[{"uid":"900--S1-0001","id":"S1-0001","volume":"900","title":"An eccentric rolling hinge should convert a vertical load into a repeatable lateral step.","prediction":"An eccentric rolling hinge should convert a vertical load into a repeatable lateral step.","test":"Track a weighted prototype on a level plate.","contrary":"No displacement beyond drift.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0001","hypothesis":"An eccentric rolling hinge should convert a vertical load into a repeatable lateral step.","prediction":"An eccentric rolling hinge should convert a vertical load into a repeatable lateral step.","test":"Track a weighted prototype on a level plate.","contrary_outcome":"No displacement beyond drift.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0001","hypothesis":"An eccentric rolling hinge should convert a vertical load into a repeatable lateral step.","prediction":"An eccentric rolling hinge should convert a vertical load into a repeatable lateral step.","test":"Track a weighted prototype on a level plate.","contrary_outcome":"No displacement beyond drift.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":1,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"An eccentric rolling hinge convert a vertical load into a repeatable lateral step. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0002","id":"S1-0002","volume":"900","title":"A vented suction cup should release sooner under peeling than under equal peak axial tension.","prediction":"A vented suction cup should release sooner under peeling than under equal peak axial tension.","test":"Measure release forces with a force gauge.","contrary":"Release is independent of loading direction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0002","hypothesis":"A vented suction cup should release sooner under peeling than under equal peak axial tension.","prediction":"A vented suction cup should release sooner under peeling than under equal peak axial tension.","test":"Measure release forces with a force gauge.","contrary_outcome":"Release is independent of loading direction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0003","id":"S1-0003","volume":"900","title":"A folded beam with unequal crease spacing should buckle sequentially rather than simultaneously.","prediction":"A folded beam with unequal crease spacing should buckle sequentially rather than simultaneously.","test":"Film slow compression and compare equal-spaced creases.","contrary":"Crease timing remains simultaneous.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0003","hypothesis":"A folded beam with unequal crease spacing should buckle sequentially rather than simultaneously.","prediction":"A folded beam with unequal crease spacing should buckle sequentially rather than simultaneously.","test":"Film slow compression and compare equal-spaced creases.","contrary_outcome":"Crease timing remains simultaneous.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0004","id":"S1-0004","volume":"900","title":"A floating perforated plate should damp sloshing most when its heave resonance matches the tank mode.","prediction":"A floating perforated plate should damp sloshing most when its heave resonance matches the tank mode.","test":"Sweep plate ballast and measure wave decay.","contrary":"Decay has no resonance-related maximum.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0004","hypothesis":"A floating perforated plate should damp sloshing most when its heave resonance matches the tank mode.","prediction":"A floating perforated plate should damp sloshing most when its heave resonance matches the tank mode.","test":"Sweep plate ballast and measure wave decay.","contrary_outcome":"Decay has no resonance-related maximum.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0005","id":"S1-0005","volume":"900","title":"A shallow spiral channel should expel trapped bubbles toward its center during oscillatory rotation.","prediction":"A shallow spiral channel should expel trapped bubbles toward its center during oscillatory rotation.","test":"Track bubbles with zero mean rotation.","contrary":"Bubbles exhibit no net radial migration.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0005","hypothesis":"A shallow spiral channel should expel trapped bubbles toward its center during oscillatory rotation.","prediction":"A shallow spiral channel should expel trapped bubbles toward its center during oscillatory rotation.","test":"Track bubbles with zero mean rotation.","contrary_outcome":"Bubbles exhibit no net radial migration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0005","hypothesis":"A shallow spiral channel should expel trapped bubbles toward its center during oscillatory rotation.","prediction":"A shallow spiral channel should expel trapped bubbles toward its center during oscillatory rotation.","test":"Track bubbles with zero mean rotation.","contrary_outcome":"Bubbles exhibit no net radial migration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":2,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A shallow spiral channel expel trapped bubbles toward its center during oscillatory rotation. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0006","id":"S1-0006","volume":"900","title":"A compliant nozzle lip should reduce the pressure spike at abrupt flow shutoff.","prediction":"A compliant nozzle lip should reduce the pressure spike at abrupt flow shutoff.","test":"Compare rigid and compliant lips using pressure sensors.","contrary":"Peak pressure is unchanged or larger.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0006","hypothesis":"A compliant nozzle lip should reduce the pressure spike at abrupt flow shutoff.","prediction":"A compliant nozzle lip should reduce the pressure spike at abrupt flow shutoff.","test":"Compare rigid and compliant lips using pressure sensors.","contrary_outcome":"Peak pressure is unchanged or larger.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0007","id":"S1-0007","volume":"900","title":"A split-ring spring should amplify its electrical contact dwell time near snap-through.","prediction":"A split-ring spring should amplify its electrical contact dwell time near snap-through.","test":"Measure contact duration against displacement rate.","contrary":"Dwell follows only actuator speed.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0007","hypothesis":"A split-ring spring should amplify its electrical contact dwell time near snap-through.","prediction":"A split-ring spring should amplify its electrical contact dwell time near snap-through.","test":"Measure contact duration against displacement rate.","contrary_outcome":"Dwell follows only actuator speed.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0008","id":"S1-0008","volume":"900","title":"A suspended eccentric paddle should align with oscillatory flow even when its time-averaged velocity is zero.","prediction":"A suspended eccentric paddle should align with oscillatory flow even when its time-averaged velocity is zero.","test":"Track orientation in a reversing water channel.","contrary":"Orientation stays isotropic.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0008","hypothesis":"A suspended eccentric paddle should align with oscillatory flow even when its time-averaged velocity is zero.","prediction":"A suspended eccentric paddle should align with oscillatory flow even when its time-averaged velocity is zero.","test":"Track orientation in a reversing water channel.","contrary_outcome":"Orientation stays isotropic.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0009","id":"S1-0009","volume":"900","title":"A porous spacer beneath a membrane should delay local collapse by equalizing trapped-air pressure.","prediction":"A porous spacer beneath a membrane should delay local collapse by equalizing trapped-air pressure.","test":"Indent vented and sealed assemblies.","contrary":"Collapse pressure is insensitive to connectivity.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0009","hypothesis":"A porous spacer beneath a membrane should delay local collapse by equalizing trapped-air pressure.","prediction":"A porous spacer beneath a membrane should delay local collapse by equalizing trapped-air pressure.","test":"Indent vented and sealed assemblies.","contrary_outcome":"Collapse pressure is insensitive to connectivity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0010","id":"S1-0010","volume":"900","title":"An annular liquid pocket should reduce bearing runout by redistributing pressure around an eccentric shaft.","prediction":"An annular liquid pocket should reduce bearing runout by redistributing pressure around an eccentric shaft.","test":"Measure runout with pocket open and blocked.","contrary":"Runout does not decrease.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0010","hypothesis":"An annular liquid pocket should reduce bearing runout by redistributing pressure around an eccentric shaft.","prediction":"An annular liquid pocket should reduce bearing runout by redistributing pressure around an eccentric shaft.","test":"Measure runout with pocket open and blocked.","contrary_outcome":"Runout does not decrease.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0011","id":"S1-0011","volume":"900","title":"A chain of unequal pendulums should localize an impact away from its shortest member.","prediction":"A chain of unequal pendulums should localize an impact away from its shortest member.","test":"Measure each pendulum's peak kinetic energy.","contrary":"Energy follows only distance from impact.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0011","hypothesis":"A chain of unequal pendulums should localize an impact away from its shortest member.","prediction":"A chain of unequal pendulums should localize an impact away from its shortest member.","test":"Measure each pendulum's peak kinetic energy.","contrary_outcome":"Energy follows only distance from impact.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0012","id":"S1-0012","volume":"900","title":"A double-wall bellows should suppress axial buckling when its walls touch intermittently.","prediction":"A double-wall bellows should suppress axial buckling when its walls touch intermittently.","test":"Compress transparent prototypes and measure lateral excursion.","contrary":"Intermittent contact offers no stabilization.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0012","hypothesis":"A double-wall bellows should suppress axial buckling when its walls touch intermittently.","prediction":"A double-wall bellows should suppress axial buckling when its walls touch intermittently.","test":"Compress transparent prototypes and measure lateral excursion.","contrary_outcome":"Intermittent contact offers no stabilization.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0013","id":"S1-0013","volume":"900","title":"A tapered elastomer notch should make crack initiation force less sensitive to grip misalignment.","prediction":"A tapered elastomer notch should make crack initiation force less sensitive to grip misalignment.","test":"Test varied grip angles with digital imaging.","contrary":"Force variability remains unchanged.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0013","hypothesis":"A tapered elastomer notch should make crack initiation force less sensitive to grip misalignment.","prediction":"A tapered elastomer notch should make crack initiation force less sensitive to grip misalignment.","test":"Test varied grip angles with digital imaging.","contrary_outcome":"Force variability remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0014","id":"S1-0014","volume":"900","title":"A curved capillary branch should delay liquid invasion through air compression before breakthrough.","prediction":"A curved capillary branch should delay liquid invasion through air compression before breakthrough.","test":"Record meniscus motion in sealed and vented branches.","contrary":"Breakthrough ignores trapped-air volume.","layers":[1,2,3],"categories":["physical"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0014","hypothesis":"A curved capillary branch should delay liquid invasion through air compression before breakthrough.","prediction":"A curved capillary branch should delay liquid invasion through air compression before breakthrough.","test":"Record meniscus motion in sealed and vented branches.","contrary_outcome":"Breakthrough ignores trapped-air volume.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0014","hypothesis":"A curved capillary branch should delay liquid invasion through air compression before breakthrough.","prediction":"A curved capillary branch should delay liquid invasion through air compression before breakthrough.","test":"Record meniscus motion in sealed and vented branches.","contrary_outcome":"Breakthrough ignores trapped-air volume.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":3,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A curved capillary branch delay liquid invasion through air compression before breakthrough. experimental mechanism"},"dossier":{"id":"S1-0014","title":"Trapped-air capillary delay","why_selected":"Clear sealed-versus-vented intervention, inexpensive transparent apparatus, and a parameter with a model-predicted sign. Strong prior art makes this a replication/extension candidate rather than a novelty claim.","sources":[{"title":"Dynamics of a Capillary Invasion in a Closed-End Capillary","url":"https://pubs.acs.org/doi/10.1021/la501927c","access":"Publisher abstract read","finding":"The authors report theoretical and experimental closed-capillary invasion with compressed gas; their predicted early oscillations were not observed experimentally. This is direct related work and a warning against treating an ideal transient model as physical proof."}],"design":"Fabricate a transparent curved branch of measured area A with exchangeable terminal air volumes V0 and a separate vent. Record meniscus position at sufficient frame rate to resolve the slowest observed front. Keep liquid batch, branch surface preparation, inlet head, temperature, and starting meniscus fixed. Use at least five independently assembled branches per design, randomize test order, and repeat three starts per branch. Determine final replication after a variance pilot; these counts are planning choices, not a power calculation.","endpoints":"Primary: time to a preregistered meniscus station, seconds. Secondary: arrest distance, pressure at release, and residual gas volume. Define failure before testing: no positive relationship between terminal-gas confinement and delay above measurement uncertainty.","controls":"Same channel vented; sealed straight branch with equal hydraulic resistance; known external pressure ramp; leak test; independent contact-angle and temperature checks. Curvature itself may alter wetting, so do not attribute a sealed/vented difference uniquely to curvature.","conditional_analysis":"Assume isothermal ideal gas, no dissolution/leakage, uniform area, and meniscus advance x with 0<Ax<V0. Then p_g(x)=p0*V0/(V0-Ax), and dp_g/dx=p0*V0*A/(V0-Ax)^2>0. Thus gas opposition increases with invasion within this assumed model. This derivative does not prove delayed breakthrough in a real curved branch: viscous losses, dynamic contact angle, compliance, and finite forcing determine whether breakthrough occurs at all. Adiabatic and dissolving-gas alternatives must be fitted separately.","analysis_plan":"Fit branch-level delay versus V0 using uncertainty in position and pressure; report raw traces, confidence intervals, and all non-invasion trials rather than discarding them. Compare sealed/vented contrasts within matched branches. Reject the claimed useful effect if the interval includes the preregistered minimum useful delay or if a leak/wetting explanation accounts for it.","limitations":"Unproved physical proposal. Literature already supports the broad trapped-gas mechanism; no discovery or global novelty claim. No physical data were collected.","rank":1,"hypothesis":"A curved capillary branch should delay liquid invasion through air compression before breakthrough.","status":"speculative; no physical proof; no physical data collected"},"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0015","id":"S1-0015","volume":"900","title":"A granular brake with an expanding cavity should recover its release force after repeated compaction.","prediction":"A granular brake with an expanding cavity should recover its release force after repeated compaction.","test":"Cycle loading while tracking cavity volume.","contrary":"Release force drifts despite expansion.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0015","hypothesis":"A granular brake with an expanding cavity should recover its release force after repeated compaction.","prediction":"A granular brake with an expanding cavity should recover its release force after repeated compaction.","test":"Cycle loading while tracking cavity volume.","contrary_outcome":"Release force drifts despite expansion.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0016","id":"S1-0016","volume":"900","title":"A compliant skirt around an air jet should lower entrainment noise without reducing thrust equivalently.","prediction":"A compliant skirt around an air jet should lower entrainment noise without reducing thrust equivalently.","test":"Measure thrust and sound against a bare nozzle.","contrary":"Noise benefit disappears at matched thrust.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0016","hypothesis":"A compliant skirt around an air jet should lower entrainment noise without reducing thrust equivalently.","prediction":"A compliant skirt around an air jet should lower entrainment noise without reducing thrust equivalently.","test":"Measure thrust and sound against a bare nozzle.","contrary_outcome":"Noise benefit disappears at matched thrust.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0017","id":"S1-0017","volume":"900","title":"A flexure with a lateral relief slit should develop a force plateau before material yielding.","prediction":"A flexure with a lateral relief slit should develop a force plateau before material yielding.","test":"Measure force-displacement and residual strain.","contrary":"Plateau requires permanent deformation.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0017","hypothesis":"A flexure with a lateral relief slit should develop a force plateau before material yielding.","prediction":"A flexure with a lateral relief slit should develop a force plateau before material yielding.","test":"Measure force-displacement and residual strain.","contrary_outcome":"Plateau requires permanent deformation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0018","id":"S1-0018","volume":"900","title":"A contactless eddy-current damper should reject lateral vibration more strongly with a slotted conductor than a solid disk at equal mass.","prediction":"A contactless eddy-current damper should reject lateral vibration more strongly with a slotted conductor than a solid disk at equal mass.","test":"Measure modal damping in both directions.","contrary":"Directional damping contrast is absent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0018","hypothesis":"A contactless eddy-current damper should reject lateral vibration more strongly with a slotted conductor than a solid disk at equal mass.","prediction":"A contactless eddy-current damper should reject lateral vibration more strongly with a slotted conductor than a solid disk at equal mass.","test":"Measure modal damping in both directions.","contrary_outcome":"Directional damping contrast is absent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0019","id":"S1-0019","volume":"900","title":"A buoyant flap in a flooded pipe should limit reverse surge without latching closed.","prediction":"A buoyant flap in a flooded pipe should limit reverse surge without latching closed.","test":"Measure transient flow and reopening pressure.","contrary":"The flap remains shut or fails to attenuate surge.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0019","hypothesis":"A buoyant flap in a flooded pipe should limit reverse surge without latching closed.","prediction":"A buoyant flap in a flooded pipe should limit reverse surge without latching closed.","test":"Measure transient flow and reopening pressure.","contrary_outcome":"The flap remains shut or fails to attenuate surge.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0020","id":"S1-0020","volume":"900","title":"A woven tension band should redistribute a point load farther when its crossing friction decreases.","prediction":"A woven tension band should redistribute a point load farther when its crossing friction decreases.","test":"Map strain while varying controlled crossing friction.","contrary":"Load-spreading distance does not increase.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0020","hypothesis":"A woven tension band should redistribute a point load farther when its crossing friction decreases.","prediction":"A woven tension band should redistribute a point load farther when its crossing friction decreases.","test":"Map strain while varying controlled crossing friction.","contrary_outcome":"Load-spreading distance does not increase.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0021","id":"S1-0021","volume":"900","title":"A hollow rolling sphere containing a free internal ring should show a delayed change in rolling resistance after reversal.","prediction":"A hollow rolling sphere containing a free internal ring should show a delayed change in rolling resistance after reversal.","test":"Measure torque through direction reversals.","contrary":"Torque depends only on instantaneous speed.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0021","hypothesis":"A hollow rolling sphere containing a free internal ring should show a delayed change in rolling resistance after reversal.","prediction":"A hollow rolling sphere containing a free internal ring should show a delayed change in rolling resistance after reversal.","test":"Measure torque through direction reversals.","contrary_outcome":"Torque depends only on instantaneous speed.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0022","id":"S1-0022","volume":"900","title":"A branched drainage groove should avoid meniscus pinning when branch angles decrease downstream.","prediction":"A branched drainage groove should avoid meniscus pinning when branch angles decrease downstream.","test":"Measure residual water after drainage against constant-angle grooves.","contrary":"Residual volume is not reduced.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0022","hypothesis":"A branched drainage groove should avoid meniscus pinning when branch angles decrease downstream.","prediction":"A branched drainage groove should avoid meniscus pinning when branch angles decrease downstream.","test":"Measure residual water after drainage against constant-angle grooves.","contrary_outcome":"Residual volume is not reduced.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0023","id":"S1-0023","volume":"900","title":"A perforated acoustic cavity should retain a stable resonance despite partial outlet blockage if holes couple through a common plenum.","prediction":"A perforated acoustic cavity should retain a stable resonance despite partial outlet blockage if holes couple through a common plenum.","test":"Block holes sequentially and measure spectra.","contrary":"Resonance shifts as much as isolated cavities.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0023","hypothesis":"A perforated acoustic cavity should retain a stable resonance despite partial outlet blockage if holes couple through a common plenum.","prediction":"A perforated acoustic cavity should retain a stable resonance despite partial outlet blockage if holes couple through a common plenum.","test":"Block holes sequentially and measure spectra.","contrary_outcome":"Resonance shifts as much as isolated cavities.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0023","hypothesis":"A perforated acoustic cavity should retain a stable resonance despite partial outlet blockage if holes couple through a common plenum.","prediction":"A perforated acoustic cavity should retain a stable resonance despite partial outlet blockage if holes couple through a common plenum.","test":"Block holes sequentially and measure spectra.","contrary_outcome":"Resonance shifts as much as isolated cavities.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":4,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A perforated acoustic cavity retain a stable resonance despite partial outlet blockage if holes couple through a common plenum. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0024","id":"S1-0024","volume":"900","title":"A passive bimetal latch with a thermal shunt should reset at a rate-dependent temperature.","prediction":"A passive bimetal latch with a thermal shunt should reset at a rate-dependent temperature.","test":"Cycle heating rates and measure release/reset temperatures.","contrary":"Reset temperature remains rate-independent.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0024","hypothesis":"A passive bimetal latch with a thermal shunt should reset at a rate-dependent temperature.","prediction":"A passive bimetal latch with a thermal shunt should reset at a rate-dependent temperature.","test":"Cycle heating rates and measure release/reset temperatures.","contrary_outcome":"Reset temperature remains rate-independent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0025","id":"S1-0025","volume":"900","title":"A beam containing a sliding internal mass should passively detune from a slowly swept vibration source.","prediction":"A beam containing a sliding internal mass should passively detune from a slowly swept vibration source.","test":"Track mass position and response during frequency sweeps.","contrary":"Mass migration fails to reduce amplitude.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0025","hypothesis":"A beam containing a sliding internal mass should passively detune from a slowly swept vibration source.","prediction":"A beam containing a sliding internal mass should passively detune from a slowly swept vibration source.","test":"Track mass position and response during frequency sweeps.","contrary_outcome":"Mass migration fails to reduce amplitude.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0026","id":"S1-0026","volume":"900","title":"A thin liquid bridge should report plate tilt through unequal contact-line recession before bridge failure.","prediction":"A thin liquid bridge should report plate tilt through unequal contact-line recession before bridge failure.","test":"Tilt transparent plates and image contact lines.","contrary":"Recession cannot resolve tilt above noise.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0026","hypothesis":"A thin liquid bridge should report plate tilt through unequal contact-line recession before bridge failure.","prediction":"A thin liquid bridge should report plate tilt through unequal contact-line recession before bridge failure.","test":"Tilt transparent plates and image contact lines.","contrary_outcome":"Recession cannot resolve tilt above noise.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0027","id":"S1-0027","volume":"900","title":"A ratcheted capillary wick should retain a directional wetting memory after partial drying.","prediction":"A ratcheted capillary wick should retain a directional wetting memory after partial drying.","test":"Measure reinvasion fronts in both directions.","contrary":"Prior wetting does not affect directionality.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0027","hypothesis":"A ratcheted capillary wick should retain a directional wetting memory after partial drying.","prediction":"A ratcheted capillary wick should retain a directional wetting memory after partial drying.","test":"Measure reinvasion fronts in both directions.","contrary_outcome":"Prior wetting does not affect directionality.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0028","id":"S1-0028","volume":"900","title":"A loose protective cage should raise a fragile shell's impact tolerance through sequential contact.","prediction":"A loose protective cage should raise a fragile shell's impact tolerance through sequential contact.","test":"Drop matched caged and uncaged shells and measure damage.","contrary":"Cage transmits the same damaging peak force.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0028","hypothesis":"A loose protective cage should raise a fragile shell's impact tolerance through sequential contact.","prediction":"A loose protective cage should raise a fragile shell's impact tolerance through sequential contact.","test":"Drop matched caged and uncaged shells and measure damage.","contrary_outcome":"Cage transmits the same damaging peak force.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0029","id":"S1-0029","volume":"900","title":"A pair of offset compliant fins should turn reciprocal translation into a mean yaw torque.","prediction":"A pair of offset compliant fins should turn reciprocal translation into a mean yaw torque.","test":"Measure torque over symmetric stroke cycles.","contrary":"Cycle-averaged torque is zero.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0029","hypothesis":"A pair of offset compliant fins should turn reciprocal translation into a mean yaw torque.","prediction":"A pair of offset compliant fins should turn reciprocal translation into a mean yaw torque.","test":"Measure torque over symmetric stroke cycles.","contrary_outcome":"Cycle-averaged torque is zero.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0030","id":"S1-0030","volume":"900","title":"A pressure-balanced diaphragm valve should show less opening-pressure drift under downstream pressure changes.","prediction":"A pressure-balanced diaphragm valve should show less opening-pressure drift under downstream pressure changes.","test":"Measure thresholds across imposed backpressures.","contrary":"Threshold drifts as much as an unbalanced control.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0030","hypothesis":"A pressure-balanced diaphragm valve should show less opening-pressure drift under downstream pressure changes.","prediction":"A pressure-balanced diaphragm valve should show less opening-pressure drift under downstream pressure changes.","test":"Measure thresholds across imposed backpressures.","contrary_outcome":"Threshold drifts as much as an unbalanced control.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0031","id":"S1-0031","volume":"900","title":"A tapered foam plug should stabilize an intermittent air leak by progressive pore closure.","prediction":"A tapered foam plug should stabilize an intermittent air leak by progressive pore closure.","test":"Measure leak-rate fluctuations during compression.","contrary":"Fluctuations increase or remain unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0031","hypothesis":"A tapered foam plug should stabilize an intermittent air leak by progressive pore closure.","prediction":"A tapered foam plug should stabilize an intermittent air leak by progressive pore closure.","test":"Measure leak-rate fluctuations during compression.","contrary_outcome":"Fluctuations increase or remain unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0032","id":"S1-0032","volume":"900","title":"An asymmetric pin joint should make clearance detectable through harmonic content before large backlash occurs.","prediction":"An asymmetric pin joint should make clearance detectable through harmonic content before large backlash occurs.","test":"Measure vibration spectra while introducing calibrated clearance.","contrary":"Harmonics cannot distinguish clearance from baseline.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0032","hypothesis":"An asymmetric pin joint should make clearance detectable through harmonic content before large backlash occurs.","prediction":"An asymmetric pin joint should make clearance detectable through harmonic content before large backlash occurs.","test":"Measure vibration spectra while introducing calibrated clearance.","contrary_outcome":"Harmonics cannot distinguish clearance from baseline.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0032","hypothesis":"An asymmetric pin joint should make clearance detectable through harmonic content before large backlash occurs.","prediction":"An asymmetric pin joint should make clearance detectable through harmonic content before large backlash occurs.","test":"Measure vibration spectra while introducing calibrated clearance.","contrary_outcome":"Harmonics cannot distinguish clearance from baseline.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":5,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"An asymmetric pin joint make clearance detectable through harmonic content before large backlash occurs. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0033","id":"S1-0033","volume":"900","title":"A capillary moat should arrest surface liquid spreading until its reservoir fills.","prediction":"A capillary moat should arrest surface liquid spreading until its reservoir fills.","test":"Dose droplets across a machined moat and image overflow.","contrary":"Liquid crosses before storage fills.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0033","hypothesis":"A capillary moat should arrest surface liquid spreading until its reservoir fills.","prediction":"A capillary moat should arrest surface liquid spreading until its reservoir fills.","test":"Dose droplets across a machined moat and image overflow.","contrary_outcome":"Liquid crosses before storage fills.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0034","id":"S1-0034","volume":"900","title":"A twisted ladder frame should recover its handedness after full flattening if rung lengths alternate.","prediction":"A twisted ladder frame should recover its handedness after full flattening if rung lengths alternate.","test":"Cycle flattened frames and score restored chirality.","contrary":"Restored handedness is random.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0034","hypothesis":"A twisted ladder frame should recover its handedness after full flattening if rung lengths alternate.","prediction":"A twisted ladder frame should recover its handedness after full flattening if rung lengths alternate.","test":"Cycle flattened frames and score restored chirality.","contrary_outcome":"Restored handedness is random.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0035","id":"S1-0035","volume":"900","title":"A floating hinged breakwater should reduce transmitted waves through phase lag rather than drag alone.","prediction":"A floating hinged breakwater should reduce transmitted waves through phase lag rather than drag alone.","test":"Measure wave phase and transmission with hinges free and locked.","contrary":"Transmission follows only projected area.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0035","hypothesis":"A floating hinged breakwater should reduce transmitted waves through phase lag rather than drag alone.","prediction":"A floating hinged breakwater should reduce transmitted waves through phase lag rather than drag alone.","test":"Measure wave phase and transmission with hinges free and locked.","contrary_outcome":"Transmission follows only projected area.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0036","id":"S1-0036","volume":"900","title":"A serpentine heat strap should maintain conductance while reducing vibration transmission through geometric compliance.","prediction":"A serpentine heat strap should maintain conductance while reducing vibration transmission through geometric compliance.","test":"Measure thermal conductance and mechanical transfer.","contrary":"Mechanical isolation requires comparable conductance loss.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0036","hypothesis":"A serpentine heat strap should maintain conductance while reducing vibration transmission through geometric compliance.","prediction":"A serpentine heat strap should maintain conductance while reducing vibration transmission through geometric compliance.","test":"Measure thermal conductance and mechanical transfer.","contrary_outcome":"Mechanical isolation requires comparable conductance loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0037","id":"S1-0037","volume":"900","title":"A soft stop containing a vented gas chamber should equalize peak stopping force across moderate impact speeds.","prediction":"A soft stop containing a vented gas chamber should equalize peak stopping force across moderate impact speeds.","test":"Measure impact forces over a speed range.","contrary":"Peak force rises as in a solid stop.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0037","hypothesis":"A soft stop containing a vented gas chamber should equalize peak stopping force across moderate impact speeds.","prediction":"A soft stop containing a vented gas chamber should equalize peak stopping force across moderate impact speeds.","test":"Measure impact forces over a speed range.","contrary_outcome":"Peak force rises as in a solid stop.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0038","id":"S1-0038","volume":"900","title":"A conical sieve should clear clogs during low-amplitude axial oscillations through aperture strain.","prediction":"A conical sieve should clear clogs during low-amplitude axial oscillations through aperture strain.","test":"Compare clogged conical and flat sieves.","contrary":"Clog clearance shows no geometry advantage.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0038","hypothesis":"A conical sieve should clear clogs during low-amplitude axial oscillations through aperture strain.","prediction":"A conical sieve should clear clogs during low-amplitude axial oscillations through aperture strain.","test":"Compare clogged conical and flat sieves.","contrary_outcome":"Clog clearance shows no geometry advantage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0039","id":"S1-0039","volume":"900","title":"A flexible optical grating on a cylindrical support should distinguish bending from uniform temperature through opposite-side diffraction shifts.","prediction":"A flexible optical grating on a cylindrical support should distinguish bending from uniform temperature through opposite-side diffraction shifts.","test":"Apply calibrated curvature and heating.","contrary":"Both perturbations produce indistinguishable signals.","layers":[1,2,3],"categories":["physical","energy","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0039","hypothesis":"A flexible optical grating on a cylindrical support should distinguish bending from uniform temperature through opposite-side diffraction shifts.","prediction":"A flexible optical grating on a cylindrical support should distinguish bending from uniform temperature through opposite-side diffraction shifts.","test":"Apply calibrated curvature and heating.","contrary_outcome":"Both perturbations produce indistinguishable signals.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0039","hypothesis":"A flexible optical grating on a cylindrical support should distinguish bending from uniform temperature through opposite-side diffraction shifts.","prediction":"A flexible optical grating on a cylindrical support should distinguish bending from uniform temperature through opposite-side diffraction shifts.","test":"Apply calibrated curvature and heating.","contrary_outcome":"Both perturbations produce indistinguishable signals.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":6,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A flexible optical grating on a cylindrical support distinguish bending from uniform temperature through opposite-side diffraction shifts. experimental mechanism"},"dossier":{"id":"S1-0039","title":"Opposed diffraction channels for bend/temperature separation","why_selected":"A paired-signal experiment admits a transparent identifiability calculation and direct nuisance-variable controls.","sources":[{"title":"Simultaneous Vector Bend and Temperature Sensing Based on a Polymer and Silica Optical Fibre Grating Pair","url":"https://doi.org/10.3390/s18103507","access":"Primary publication metadata located; PMC access challenged","finding":"The title and metadata establish prior work on simultaneous bend/temperature sensing using paired gratings. They do not establish performance of the proposed opposite-side surface grating geometry."}],"design":"Place nominally matched diffraction films on opposite sides of a cylindrical elastic support. Illuminate at fixed geometry and track diffraction angles with a calibrated camera. Independently vary curvature using a measured bending jig and temperature in a slow, uniform enclosure; include a crossed grid of curvature and temperature conditions. Use five independently mounted pairs and randomized condition order, followed by held-out combined perturbations.","endpoints":"Primary: held-out curvature error at changing temperature. Secondary: temperature estimation error and condition number of the measured 2x2 sensitivity matrix. An initial design goal is at least a twofold reduction of thermal cross-error against either channel alone; this is a proposed criterion, not an achieved result.","controls":"Rigid unbent reference, reversed illumination, exchanged top/bottom films, thermal-gradient measurement, camera scale reference, and independent curvature gauge. Track adhesive creep and support expansion separately.","conditional_analysis":"For ideal matched channels y+=a*T+b*k and y-=a*T-b*k, T=(y++y-)/(2a) and k=(y+-y-)/(2b), provided a and b are nonzero. The determinant is -2ab, so the assumed linear map is invertible. Real coefficients must be independently calibrated; unequal thermal coefficients and gradients leave residual error. The algebra proves only identifiability of this assumed map, not the physical symmetry or measurement accuracy.","analysis_plan":"Estimate the full matrix on training conditions, propagate angle uncertainty through its inverse, and publish held-out prediction errors against single-channel baselines. Reject useful separation if the matrix is effectively singular at the measured noise level or if calibration fails across thermal cycles.","limitations":"Unproved geometry-specific claim; simultaneous sensing is established prior art. Source access was limited to metadata for this paper. No data or novel theorem claimed.","rank":2,"hypothesis":"A flexible optical grating on a cylindrical support should distinguish bending from uniform temperature through opposite-side diffraction shifts.","status":"speculative; no physical proof; no physical data collected"},"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0040","id":"S1-0040","volume":"900","title":"A capillary bridge between rotating disks should develop a detectable torque precursor before rupture.","prediction":"A capillary bridge between rotating disks should develop a detectable torque precursor before rupture.","test":"Measure torque and high-speed bridge shape.","contrary":"Rupture has no resolvable precursor.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0040","hypothesis":"A capillary bridge between rotating disks should develop a detectable torque precursor before rupture.","prediction":"A capillary bridge between rotating disks should develop a detectable torque precursor before rupture.","test":"Measure torque and high-speed bridge shape.","contrary_outcome":"Rupture has no resolvable precursor.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0041","id":"S1-0041","volume":"900","title":"A soft crawler with a centerline hinge should reverse travel direction when its drive frequency crosses its bending mode.","prediction":"A soft crawler with a centerline hinge should reverse travel direction when its drive frequency crosses its bending mode.","test":"Measure displacement per cycle over frequency.","contrary":"Direction never reverses within elastic operation.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0041","hypothesis":"A soft crawler with a centerline hinge should reverse travel direction when its drive frequency crosses its bending mode.","prediction":"A soft crawler with a centerline hinge should reverse travel direction when its drive frequency crosses its bending mode.","test":"Measure displacement per cycle over frequency.","contrary_outcome":"Direction never reverses within elastic operation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0042","id":"S1-0042","volume":"900","title":"A folded diaphragm should reduce creep-related sensor zero drift by moving strain away from its clamped rim.","prediction":"A folded diaphragm should reduce creep-related sensor zero drift by moving strain away from its clamped rim.","test":"Compare displacement after sustained pressure.","contrary":"Drift is unchanged at matched sensitivity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0042","hypothesis":"A folded diaphragm should reduce creep-related sensor zero drift by moving strain away from its clamped rim.","prediction":"A folded diaphragm should reduce creep-related sensor zero drift by moving strain away from its clamped rim.","test":"Compare displacement after sustained pressure.","contrary_outcome":"Drift is unchanged at matched sensitivity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0043","id":"S1-0043","volume":"900","title":"A submerged vertical slot should sort large air bubbles by oscillation-induced breakup threshold.","prediction":"A submerged vertical slot should sort large air bubbles by oscillation-induced breakup threshold.","test":"Measure daughter-bubble distributions while varying oscillation.","contrary":"Size selectivity is absent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0043","hypothesis":"A submerged vertical slot should sort large air bubbles by oscillation-induced breakup threshold.","prediction":"A submerged vertical slot should sort large air bubbles by oscillation-induced breakup threshold.","test":"Measure daughter-bubble distributions while varying oscillation.","contrary_outcome":"Size selectivity is absent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0044","id":"S1-0044","volume":"900","title":"A magnetic return spring should make a compliant lever's restoring stiffness nearly constant over a finite stroke.","prediction":"A magnetic return spring should make a compliant lever's restoring stiffness nearly constant over a finite stroke.","test":"Measure force slope across the designed stroke.","contrary":"Slope varies as much as the bare flexure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0044","hypothesis":"A magnetic return spring should make a compliant lever's restoring stiffness nearly constant over a finite stroke.","prediction":"A magnetic return spring should make a compliant lever's restoring stiffness nearly constant over a finite stroke.","test":"Measure force slope across the designed stroke.","contrary_outcome":"Slope varies as much as the bare flexure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0045","id":"S1-0045","volume":"900","title":"A surface groove terminating in a flexible flap should close itself when liquid reaches its end.","prediction":"A surface groove terminating in a flexible flap should close itself when liquid reaches its end.","test":"Image flap motion and downstream leakage.","contrary":"Wetting does not close the flap.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0045","hypothesis":"A surface groove terminating in a flexible flap should close itself when liquid reaches its end.","prediction":"A surface groove terminating in a flexible flap should close itself when liquid reaches its end.","test":"Image flap motion and downstream leakage.","contrary_outcome":"Wetting does not close the flap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0046","id":"S1-0046","volume":"900","title":"A mechanically isolated reference cavity should cancel barometric drift in a passive differential displacement sensor.","prediction":"A mechanically isolated reference cavity should cancel barometric drift in a passive differential displacement sensor.","test":"Compare output with and without reference during pressure changes.","contrary":"Common-mode rejection is absent.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0046","hypothesis":"A mechanically isolated reference cavity should cancel barometric drift in a passive differential displacement sensor.","prediction":"A mechanically isolated reference cavity should cancel barometric drift in a passive differential displacement sensor.","test":"Compare output with and without reference during pressure changes.","contrary_outcome":"Common-mode rejection is absent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0046","hypothesis":"A mechanically isolated reference cavity should cancel barometric drift in a passive differential displacement sensor.","prediction":"A mechanically isolated reference cavity should cancel barometric drift in a passive differential displacement sensor.","test":"Compare output with and without reference during pressure changes.","contrary_outcome":"Common-mode rejection is absent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":7,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A mechanically isolated reference cavity cancel barometric drift in a passive differential displacement sensor. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0047","id":"S1-0047","volume":"900","title":"A free-spinning disk inside a rotating enclosure should reveal viscous contamination through spin-down hysteresis.","prediction":"A free-spinning disk inside a rotating enclosure should reveal viscous contamination through spin-down hysteresis.","test":"Measure repeated spin-down after controlled viscosity changes.","contrary":"Hysteresis remains indistinguishable from bearing drift.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0047","hypothesis":"A free-spinning disk inside a rotating enclosure should reveal viscous contamination through spin-down hysteresis.","prediction":"A free-spinning disk inside a rotating enclosure should reveal viscous contamination through spin-down hysteresis.","test":"Measure repeated spin-down after controlled viscosity changes.","contrary_outcome":"Hysteresis remains indistinguishable from bearing drift.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0048","id":"S1-0048","volume":"900","title":"A tilted array of flexible rods should convey a loose bead under vertical vibration below the bead's ballistic threshold.","prediction":"A tilted array of flexible rods should convey a loose bead under vertical vibration below the bead's ballistic threshold.","test":"Measure bead motion and loss of contact.","contrary":"Transport requires ballistic hopping.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0048","hypothesis":"A tilted array of flexible rods should convey a loose bead under vertical vibration below the bead's ballistic threshold.","prediction":"A tilted array of flexible rods should convey a loose bead under vertical vibration below the bead's ballistic threshold.","test":"Measure bead motion and loss of contact.","contrary_outcome":"Transport requires ballistic hopping.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0049","id":"S1-0049","volume":"900","title":"A pinch valve with an internal support rib should reopen more reliably after long closure.","prediction":"A pinch valve with an internal support rib should reopen more reliably after long closure.","test":"Measure reopening force and aperture after dwell.","contrary":"Rib provides no recovery advantage.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0049","hypothesis":"A pinch valve with an internal support rib should reopen more reliably after long closure.","prediction":"A pinch valve with an internal support rib should reopen more reliably after long closure.","test":"Measure reopening force and aperture after dwell.","contrary_outcome":"Rib provides no recovery advantage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0050","id":"S1-0050","volume":"900","title":"A split buoyancy chamber should suppress roll while permitting heave through cross-flow resistance.","prediction":"A split buoyancy chamber should suppress roll while permitting heave through cross-flow resistance.","test":"Measure decay of roll and heave modes.","contrary":"Both modes are damped equally.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0050","hypothesis":"A split buoyancy chamber should suppress roll while permitting heave through cross-flow resistance.","prediction":"A split buoyancy chamber should suppress roll while permitting heave through cross-flow resistance.","test":"Measure decay of roll and heave modes.","contrary_outcome":"Both modes are damped equally.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0051","id":"S1-0051","volume":"900","title":"A curved leaf spring should sense load position through the ratio of two resonant frequencies.","prediction":"A curved leaf spring should sense load position through the ratio of two resonant frequencies.","test":"Apply loads at known positions and invert the ratio.","contrary":"Different positions remain spectrally indistinguishable.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0051","hypothesis":"A curved leaf spring should sense load position through the ratio of two resonant frequencies.","prediction":"A curved leaf spring should sense load position through the ratio of two resonant frequencies.","test":"Apply loads at known positions and invert the ratio.","contrary_outcome":"Different positions remain spectrally indistinguishable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0051","hypothesis":"A curved leaf spring should sense load position through the ratio of two resonant frequencies.","prediction":"A curved leaf spring should sense load position through the ratio of two resonant frequencies.","test":"Apply loads at known positions and invert the ratio.","contrary_outcome":"Different positions remain spectrally indistinguishable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":8,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A curved leaf spring sense load position through the ratio of two resonant frequencies. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0052","id":"S1-0052","volume":"900","title":"A narrow bypass around a check valve should reduce chatter without erasing directional rectification.","prediction":"A narrow bypass around a check valve should reduce chatter without erasing directional rectification.","test":"Measure pressure oscillations and mean reverse leakage.","contrary":"Chatter reduction requires unacceptable rectification loss.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0052","hypothesis":"A narrow bypass around a check valve should reduce chatter without erasing directional rectification.","prediction":"A narrow bypass around a check valve should reduce chatter without erasing directional rectification.","test":"Measure pressure oscillations and mean reverse leakage.","contrary_outcome":"Chatter reduction requires unacceptable rectification loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0053","id":"S1-0053","volume":"900","title":"A collapsible lattice pad should distribute load more evenly after the first local buckling event.","prediction":"A collapsible lattice pad should distribute load more evenly after the first local buckling event.","test":"Map contact pressure before and after buckling.","contrary":"Pressure concentration worsens or remains unchanged.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0053","hypothesis":"A collapsible lattice pad should distribute load more evenly after the first local buckling event.","prediction":"A collapsible lattice pad should distribute load more evenly after the first local buckling event.","test":"Map contact pressure before and after buckling.","contrary_outcome":"Pressure concentration worsens or remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0054","id":"S1-0054","volume":"900","title":"A freely pivoting porous screen should align to minimize pumping power in a fluctuating stream.","prediction":"A freely pivoting porous screen should align to minimize pumping power in a fluctuating stream.","test":"Measure angle and pressure loss under changing flow direction.","contrary":"Screen fails to approach lower-loss orientations.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0054","hypothesis":"A freely pivoting porous screen should align to minimize pumping power in a fluctuating stream.","prediction":"A freely pivoting porous screen should align to minimize pumping power in a fluctuating stream.","test":"Measure angle and pressure loss under changing flow direction.","contrary_outcome":"Screen fails to approach lower-loss orientations.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0055","id":"S1-0055","volume":"900","title":"A heated wire behind a thermal shield should distinguish air-speed pulses from radiant heating through response timing.","prediction":"A heated wire behind a thermal shield should distinguish air-speed pulses from radiant heating through response timing.","test":"Apply separate calibrated disturbances.","contrary":"Timing distributions overlap beyond useful discrimination.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0055","hypothesis":"A heated wire behind a thermal shield should distinguish air-speed pulses from radiant heating through response timing.","prediction":"A heated wire behind a thermal shield should distinguish air-speed pulses from radiant heating through response timing.","test":"Apply separate calibrated disturbances.","contrary_outcome":"Timing distributions overlap beyond useful discrimination.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0056","id":"S1-0056","volume":"900","title":"A hemispherical dimple should retain an air cushion longer under repeated splashes when its rim has a drainage notch.","prediction":"A hemispherical dimple should retain an air cushion longer under repeated splashes when its rim has a drainage notch.","test":"Measure trapped-air lifetime with and without notches.","contrary":"Notches shorten or do not change retention.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0056","hypothesis":"A hemispherical dimple should retain an air cushion longer under repeated splashes when its rim has a drainage notch.","prediction":"A hemispherical dimple should retain an air cushion longer under repeated splashes when its rim has a drainage notch.","test":"Measure trapped-air lifetime with and without notches.","contrary_outcome":"Notches shorten or do not change retention.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0057","id":"S1-0057","volume":"900","title":"A sliding tendon routed around an oval pulley should produce a controllable stiffness minimum without slack.","prediction":"A sliding tendon routed around an oval pulley should produce a controllable stiffness minimum without slack.","test":"Measure tendon tension and joint stiffness through rotation.","contrary":"Minimum coincides with slack or is absent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0057","hypothesis":"A sliding tendon routed around an oval pulley should produce a controllable stiffness minimum without slack.","prediction":"A sliding tendon routed around an oval pulley should produce a controllable stiffness minimum without slack.","test":"Measure tendon tension and joint stiffness through rotation.","contrary_outcome":"Minimum coincides with slack or is absent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0058","id":"S1-0058","volume":"900","title":"A two-stage siphon should stop reproducibly at a prescribed residual depth through sequential air admission.","prediction":"A two-stage siphon should stop reproducibly at a prescribed residual depth through sequential air admission.","test":"Measure remaining volume over initial fill levels.","contrary":"Residual depth depends strongly on initial fill.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0058","hypothesis":"A two-stage siphon should stop reproducibly at a prescribed residual depth through sequential air admission.","prediction":"A two-stage siphon should stop reproducibly at a prescribed residual depth through sequential air admission.","test":"Measure remaining volume over initial fill levels.","contrary_outcome":"Residual depth depends strongly on initial fill.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0059","id":"S1-0059","volume":"900","title":"A flexible whisker with an internal fluid lumen should alter its vibration phase sharply when its tip touches a surface.","prediction":"A flexible whisker with an internal fluid lumen should alter its vibration phase sharply when its tip touches a surface.","test":"Compare phase during proximity and contact.","contrary":"Contact produces no separable phase change.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0059","hypothesis":"A flexible whisker with an internal fluid lumen should alter its vibration phase sharply when its tip touches a surface.","prediction":"A flexible whisker with an internal fluid lumen should alter its vibration phase sharply when its tip touches a surface.","test":"Compare phase during proximity and contact.","contrary_outcome":"Contact produces no separable phase change.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0060","id":"S1-0060","volume":"900","title":"An elastomer ring compressed inside a square frame should exhibit a stable four-lobed state before full contact.","prediction":"An elastomer ring compressed inside a square frame should exhibit a stable four-lobed state before full contact.","test":"Image quasi-static compression with unloading.","contrary":"Lobes occur only as transient instability.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0060","hypothesis":"An elastomer ring compressed inside a square frame should exhibit a stable four-lobed state before full contact.","prediction":"An elastomer ring compressed inside a square frame should exhibit a stable four-lobed state before full contact.","test":"Image quasi-static compression with unloading.","contrary_outcome":"Lobes occur only as transient instability.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0061","id":"S1-0061","volume":"900","title":"A rotating porous drum should separate droplets from a gas stream at lower pressure loss when drainage channels break circumferential films.","prediction":"A rotating porous drum should separate droplets from a gas stream at lower pressure loss when drainage channels break circumferential films.","test":"Measure carryover and pressure drop.","contrary":"Channels offer no improvement at matched flow.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0061","hypothesis":"A rotating porous drum should separate droplets from a gas stream at lower pressure loss when drainage channels break circumferential films.","prediction":"A rotating porous drum should separate droplets from a gas stream at lower pressure loss when drainage channels break circumferential films.","test":"Measure carryover and pressure drop.","contrary_outcome":"Channels offer no improvement at matched flow.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0062","id":"S1-0062","volume":"900","title":"A stepped capillary should measure liquid compressibility from meniscus recoil after a pressure pulse.","prediction":"A stepped capillary should measure liquid compressibility from meniscus recoil after a pressure pulse.","test":"Compare recoil with independent compressibility values.","contrary":"Recoil is dominated by unidentifiable wall compliance.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0062","hypothesis":"A stepped capillary should measure liquid compressibility from meniscus recoil after a pressure pulse.","prediction":"A stepped capillary should measure liquid compressibility from meniscus recoil after a pressure pulse.","test":"Compare recoil with independent compressibility values.","contrary_outcome":"Recoil is dominated by unidentifiable wall compliance.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0063","id":"S1-0063","volume":"900","title":"A resonant paddle should reject slow flow drift while detecting short vortex passages.","prediction":"A resonant paddle should reject slow flow drift while detecting short vortex passages.","test":"Compare spectral response to steady ramps and controlled vortices.","contrary":"Slow drift overwhelms vortex signal.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0063","hypothesis":"A resonant paddle should reject slow flow drift while detecting short vortex passages.","prediction":"A resonant paddle should reject slow flow drift while detecting short vortex passages.","test":"Compare spectral response to steady ramps and controlled vortices.","contrary_outcome":"Slow drift overwhelms vortex signal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0064","id":"S1-0064","volume":"900","title":"A flexure parallelogram with one sliding pivot should tolerate assembly error without large parasitic rotation.","prediction":"A flexure parallelogram with one sliding pivot should tolerate assembly error without large parasitic rotation.","test":"Measure motion under imposed mounting offsets.","contrary":"Rotation grows as in fixed-pivot controls.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0064","hypothesis":"A flexure parallelogram with one sliding pivot should tolerate assembly error without large parasitic rotation.","prediction":"A flexure parallelogram with one sliding pivot should tolerate assembly error without large parasitic rotation.","test":"Measure motion under imposed mounting offsets.","contrary_outcome":"Rotation grows as in fixed-pivot controls.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0065","id":"S1-0065","volume":"900","title":"A cam-guided compression spring should deliver approximately constant output torque across a designed angular range.","prediction":"A cam-guided compression spring should deliver approximately constant output torque across a designed angular range.","test":"Measure torque against the inverse-cam model.","contrary":"Torque variation exceeds the bare-spring control.","layers":[1,2,3],"categories":["measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0065","hypothesis":"A cam-guided compression spring should deliver approximately constant output torque across a designed angular range.","prediction":"A cam-guided compression spring should deliver approximately constant output torque across a designed angular range.","test":"Measure torque against the inverse-cam model.","contrary_outcome":"Torque variation exceeds the bare-spring control.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0065","hypothesis":"A cam-guided compression spring should deliver approximately constant output torque across a designed angular range.","prediction":"A cam-guided compression spring should deliver approximately constant output torque across a designed angular range.","test":"Measure torque against the inverse-cam model.","contrary_outcome":"Torque variation exceeds the bare-spring control.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":9,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A cam-guided compression spring deliver approximately constant output torque across a designed angular range. experimental mechanism"},"dossier":{"id":"S1-0065","title":"Constant-torque cam and compression spring","why_selected":"The energy calculation is unusually strong under explicit assumptions, while a low-cost torque test can expose frictional departures. This is an engineering verification direction with obvious prior art.","sources":[{"title":"Design and experimental validation of a cam-based constant-force compression mechanism with friction considered","url":"https://journals.sagepub.com/doi/10.1177/0954406218806015","access":"Publisher abstract read","finding":"Li, Cheng, and Xie describe cam/spring constant-force prototypes and explicitly treat sliding and rolling friction. This supports feasibility of the broader design family and directly limits novelty of a cam-shaped output proposal."}],"design":"Use a measured linear compression spring and a CNC/printed cam driven quasistatically through a roller follower. Select finite angle interval [0,Theta] and positive preload x0 to avoid a singular cam slope. Measure spring compression, angle, and torque on loading/unloading. Build five independent cams, test three slow speeds, and compare with a circular cam at matched stored energy.","endpoints":"Primary: torque range divided by mean torque over the central designed interval. Secondary: hysteresis-loop work, peak contact force, and wear-induced drift. Proposed success criterion: at least 50% less normalized torque variation than the circular control without loss of stable contact.","controls":"Bare spring calibration; circular cam; unloaded bearing torque; reverse rotation; roller versus sliding follower; repeated mounting. Preload and follower geometry must be measured rather than treated as exact CAD values.","conditional_analysis":"For a frictionless quasistatic linear spring U=k*x(theta)^2/2. Choose x(theta)=sqrt(x0^2+2*tau0*theta/k), with k>0, x0>0, tau0>0. Then dU/dtheta=k*x*dx/dtheta=tau0 exactly. This proves constant generalized torque only in the assumed lossless spring-and-cam model. It does not prove a manufactured cam has that profile, negligible friction, linear stiffness, or acceptable contact stress. A passive mechanism cannot deliver positive work indefinitely without recharging the spring.","analysis_plan":"Compare measured torque against tau0 plus independently measured bearing/friction contributions; plot complete hysteresis loops and uncertainty bands. Reject the physical claim if torque flatness or contact stability fails the preregistered criterion. Keep model predictions distinct from observations.","limitations":"The conditional calculation is standard energy mechanics, not an original mathematical discovery. Physical performance remains untested; substantial related prior art exists.","rank":3,"hypothesis":"A cam-guided compression spring should deliver approximately constant output torque across a designed angular range.","status":"speculative; no physical proof; no physical data collected"},"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0066","id":"S1-0066","volume":"900","title":"A porous strip suspended above a reservoir should oscillate from alternating wetting weight and elastic recoil.","prediction":"A porous strip suspended above a reservoir should oscillate from alternating wetting weight and elastic recoil.","test":"Record mass uptake and motion without imposed periodic drive.","contrary":"Motion decays to a static equilibrium.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0066","hypothesis":"A porous strip suspended above a reservoir should oscillate from alternating wetting weight and elastic recoil.","prediction":"A porous strip suspended above a reservoir should oscillate from alternating wetting weight and elastic recoil.","test":"Record mass uptake and motion without imposed periodic drive.","contrary_outcome":"Motion decays to a static equilibrium.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0067","id":"S1-0067","volume":"900","title":"A compressible side pocket should reduce microchannel bubble-lock duration by storing displaced liquid.","prediction":"A compressible side pocket should reduce microchannel bubble-lock duration by storing displaced liquid.","test":"Track stoppage duration in matched channels.","contrary":"Pocket does not shorten blockage.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0067","hypothesis":"A compressible side pocket should reduce microchannel bubble-lock duration by storing displaced liquid.","prediction":"A compressible side pocket should reduce microchannel bubble-lock duration by storing displaced liquid.","test":"Track stoppage duration in matched channels.","contrary_outcome":"Pocket does not shorten blockage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0068","id":"S1-0068","volume":"900","title":"A beam with a detachable root sleeve should allow damping changes with little resonant-frequency shift.","prediction":"A beam with a detachable root sleeve should allow damping changes with little resonant-frequency shift.","test":"Measure frequency and damping over sleeve engagement.","contrary":"Damping changes require comparable frequency shifts.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0068","hypothesis":"A beam with a detachable root sleeve should allow damping changes with little resonant-frequency shift.","prediction":"A beam with a detachable root sleeve should allow damping changes with little resonant-frequency shift.","test":"Measure frequency and damping over sleeve engagement.","contrary_outcome":"Damping changes require comparable frequency shifts.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0069","id":"S1-0069","volume":"900","title":"A hemispherical foot with a loose internal weight should improve a passive tripod's recovery from tilt.","prediction":"A hemispherical foot with a loose internal weight should improve a passive tripod's recovery from tilt.","test":"Measure maximum recoverable inclination.","contrary":"Moving weight reduces or leaves recovery unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0069","hypothesis":"A hemispherical foot with a loose internal weight should improve a passive tripod's recovery from tilt.","prediction":"A hemispherical foot with a loose internal weight should improve a passive tripod's recovery from tilt.","test":"Measure maximum recoverable inclination.","contrary_outcome":"Moving weight reduces or leaves recovery unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0070","id":"S1-0070","volume":"900","title":"A shear-thickening clutch should transmit brief impacts less efficiently when a parallel elastic path unloads it early.","prediction":"A shear-thickening clutch should transmit brief impacts less efficiently when a parallel elastic path unloads it early.","test":"Measure transmitted impulses with and without bypass spring.","contrary":"Bypass increases impulse transmission.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0070","hypothesis":"A shear-thickening clutch should transmit brief impacts less efficiently when a parallel elastic path unloads it early.","prediction":"A shear-thickening clutch should transmit brief impacts less efficiently when a parallel elastic path unloads it early.","test":"Measure transmitted impulses with and without bypass spring.","contrary_outcome":"Bypass increases impulse transmission.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0071","id":"S1-0071","volume":"900","title":"A capillary-fed evaporator should resist dryout when a compliant reservoir contracts with falling pressure.","prediction":"A capillary-fed evaporator should resist dryout when a compliant reservoir contracts with falling pressure.","test":"Measure dryout threshold under rising heat load.","contrary":"Reservoir compliance does not raise threshold.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0071","hypothesis":"A capillary-fed evaporator should resist dryout when a compliant reservoir contracts with falling pressure.","prediction":"A capillary-fed evaporator should resist dryout when a compliant reservoir contracts with falling pressure.","test":"Measure dryout threshold under rising heat load.","contrary_outcome":"Reservoir compliance does not raise threshold.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0072","id":"S1-0072","volume":"900","title":"A hollow lattice strut should signal local buckling acoustically before global collapse.","prediction":"A hollow lattice strut should signal local buckling acoustically before global collapse.","test":"Record sound and displacement during compression.","contrary":"Acoustic events occur only after collapse.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0072","hypothesis":"A hollow lattice strut should signal local buckling acoustically before global collapse.","prediction":"A hollow lattice strut should signal local buckling acoustically before global collapse.","test":"Record sound and displacement during compression.","contrary_outcome":"Acoustic events occur only after collapse.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0073","id":"S1-0073","volume":"900","title":"A narrow liquid seal should reseat after vibration if its channel widens toward its reservoir.","prediction":"A narrow liquid seal should reseat after vibration if its channel widens toward its reservoir.","test":"Measure leak recovery after controlled shocks.","contrary":"Widening does not improve resealing.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0073","hypothesis":"A narrow liquid seal should reseat after vibration if its channel widens toward its reservoir.","prediction":"A narrow liquid seal should reseat after vibration if its channel widens toward its reservoir.","test":"Measure leak recovery after controlled shocks.","contrary_outcome":"Widening does not improve resealing.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0074","id":"S1-0074","volume":"900","title":"A folded reflective strip should encode out-of-plane displacement through a ratio of two spot separations.","prediction":"A folded reflective strip should encode out-of-plane displacement through a ratio of two spot separations.","test":"Calibrate against translation and illumination changes.","contrary":"Ratio remains sensitive to nuisance intensity or is nonmonotonic.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0074","hypothesis":"A folded reflective strip should encode out-of-plane displacement through a ratio of two spot separations.","prediction":"A folded reflective strip should encode out-of-plane displacement through a ratio of two spot separations.","test":"Calibrate against translation and illumination changes.","contrary_outcome":"Ratio remains sensitive to nuisance intensity or is nonmonotonic.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0075","id":"S1-0075","volume":"900","title":"A passive shunt resonator should reduce pipe-wall vibration without materially reducing the mean flow area.","prediction":"A passive shunt resonator should reduce pipe-wall vibration without materially reducing the mean flow area.","test":"Measure wall acceleration and pressure drop.","contrary":"Damping requires substantial flow restriction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0075","hypothesis":"A passive shunt resonator should reduce pipe-wall vibration without materially reducing the mean flow area.","prediction":"A passive shunt resonator should reduce pipe-wall vibration without materially reducing the mean flow area.","test":"Measure wall acceleration and pressure drop.","contrary_outcome":"Damping requires substantial flow restriction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0076","id":"S1-0076","volume":"900","title":"A conical spring nest should pack repeatable pulse energy into a shorter stroke through sequential coil engagement.","prediction":"A conical spring nest should pack repeatable pulse energy into a shorter stroke through sequential coil engagement.","test":"Measure stored/released energy and coil motion.","contrary":"Energy recovery becomes erratic or no compaction benefit appears.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0076","hypothesis":"A conical spring nest should pack repeatable pulse energy into a shorter stroke through sequential coil engagement.","prediction":"A conical spring nest should pack repeatable pulse energy into a shorter stroke through sequential coil engagement.","test":"Measure stored/released energy and coil motion.","contrary_outcome":"Energy recovery becomes erratic or no compaction benefit appears.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0077","id":"S1-0077","volume":"900","title":"A vented flexible enclosure should attenuate pressure pulses more than equal-volume rigid storage.","prediction":"A vented flexible enclosure should attenuate pressure pulses more than equal-volume rigid storage.","test":"Measure transmitted pressure against pulse duration.","contrary":"Attenuation matches rigid storage alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0077","hypothesis":"A vented flexible enclosure should attenuate pressure pulses more than equal-volume rigid storage.","prediction":"A vented flexible enclosure should attenuate pressure pulses more than equal-volume rigid storage.","test":"Measure transmitted pressure against pulse duration.","contrary_outcome":"Attenuation matches rigid storage alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0078","id":"S1-0078","volume":"900","title":"A reverse-curved splash guard should return rebounding droplets to a drain over a wider incidence range.","prediction":"A reverse-curved splash guard should return rebounding droplets to a drain over a wider incidence range.","test":"Image impact trajectories and recovered volume.","contrary":"Return fraction does not improve.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0078","hypothesis":"A reverse-curved splash guard should return rebounding droplets to a drain over a wider incidence range.","prediction":"A reverse-curved splash guard should return rebounding droplets to a drain over a wider incidence range.","test":"Image impact trajectories and recovered volume.","contrary_outcome":"Return fraction does not improve.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0079","id":"S1-0079","volume":"900","title":"A distributed tether should prevent a membrane from forming one dominant flutter mode.","prediction":"A distributed tether should prevent a membrane from forming one dominant flutter mode.","test":"Measure modal spectra with point and distributed attachment.","contrary":"Energy remains concentrated in one damaging mode.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0079","hypothesis":"A distributed tether should prevent a membrane from forming one dominant flutter mode.","prediction":"A distributed tether should prevent a membrane from forming one dominant flutter mode.","test":"Measure modal spectra with point and distributed attachment.","contrary_outcome":"Energy remains concentrated in one damaging mode.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0080","id":"S1-0080","volume":"900","title":"A rocking mass on a curved track should estimate vibration direction from its final resting position.","prediction":"A rocking mass on a curved track should estimate vibration direction from its final resting position.","test":"Apply calibrated directional pulses.","contrary":"Resting position is ambiguous under repeated trials.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0080","hypothesis":"A rocking mass on a curved track should estimate vibration direction from its final resting position.","prediction":"A rocking mass on a curved track should estimate vibration direction from its final resting position.","test":"Apply calibrated directional pulses.","contrary_outcome":"Resting position is ambiguous under repeated trials.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0081","id":"S1-0081","volume":"900","title":"A capillary valve containing a reentrant corner should reopen at a different pressure after gas intrusion.","prediction":"A capillary valve containing a reentrant corner should reopen at a different pressure after gas intrusion.","test":"Measure first and subsequent opening thresholds.","contrary":"Threshold has no reproducible history dependence.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0081","hypothesis":"A capillary valve containing a reentrant corner should reopen at a different pressure after gas intrusion.","prediction":"A capillary valve containing a reentrant corner should reopen at a different pressure after gas intrusion.","test":"Measure first and subsequent opening thresholds.","contrary_outcome":"Threshold has no reproducible history dependence.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0081","hypothesis":"A capillary valve containing a reentrant corner should reopen at a different pressure after gas intrusion.","prediction":"A capillary valve containing a reentrant corner should reopen at a different pressure after gas intrusion.","test":"Measure first and subsequent opening thresholds.","contrary_outcome":"Threshold has no reproducible history dependence.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":10,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A capillary valve containing a reentrant corner reopen at a different pressure after gas intrusion. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0082","id":"S1-0082","volume":"900","title":"A thin-shell cover should improve tactile force estimation by spatially spreading point contacts across several gauges.","prediction":"A thin-shell cover should improve tactile force estimation by spatially spreading point contacts across several gauges.","test":"Apply known loads and reconstruct location/force.","contrary":"Spreading worsens reconstruction error.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0082","hypothesis":"A thin-shell cover should improve tactile force estimation by spatially spreading point contacts across several gauges.","prediction":"A thin-shell cover should improve tactile force estimation by spatially spreading point contacts across several gauges.","test":"Apply known loads and reconstruct location/force.","contrary_outcome":"Spreading worsens reconstruction error.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0083","id":"S1-0083","volume":"900","title":"An inclined compliant brush should scrape condensed droplets while leaving a lower dry-contact friction than a rigid blade.","prediction":"An inclined compliant brush should scrape condensed droplets while leaving a lower dry-contact friction than a rigid blade.","test":"Measure droplet removal and dry friction.","contrary":"Removal benefit requires equal or greater dry friction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0083","hypothesis":"An inclined compliant brush should scrape condensed droplets while leaving a lower dry-contact friction than a rigid blade.","prediction":"An inclined compliant brush should scrape condensed droplets while leaving a lower dry-contact friction than a rigid blade.","test":"Measure droplet removal and dry friction.","contrary_outcome":"Removal benefit requires equal or greater dry friction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0084","id":"S1-0084","volume":"900","title":"A split flow resistor should preserve total resistance after one branch partially clogs through deformation of the other branch.","prediction":"A split flow resistor should preserve total resistance after one branch partially clogs through deformation of the other branch.","test":"Measure resistance during controlled blockage.","contrary":"Deformation reinforces resistance growth.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0084","hypothesis":"A split flow resistor should preserve total resistance after one branch partially clogs through deformation of the other branch.","prediction":"A split flow resistor should preserve total resistance after one branch partially clogs through deformation of the other branch.","test":"Measure resistance during controlled blockage.","contrary_outcome":"Deformation reinforces resistance growth.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0085","id":"S1-0085","volume":"900","title":"A rolling diaphragm should separate pressure and stroke effects more cleanly than a stretched flat membrane.","prediction":"A rolling diaphragm should separate pressure and stroke effects more cleanly than a stretched flat membrane.","test":"Measure output under independently varied pressure and stroke.","contrary":"Cross-sensitivity remains comparable.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0085","hypothesis":"A rolling diaphragm should separate pressure and stroke effects more cleanly than a stretched flat membrane.","prediction":"A rolling diaphragm should separate pressure and stroke effects more cleanly than a stretched flat membrane.","test":"Measure output under independently varied pressure and stroke.","contrary_outcome":"Cross-sensitivity remains comparable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0086","id":"S1-0086","volume":"900","title":"A ring of coupled floats should average local water-height noise without delaying a common level step excessively.","prediction":"A ring of coupled floats should average local water-height noise without delaying a common level step excessively.","test":"Measure noise spectrum and step response.","contrary":"Noise suppression requires unacceptable step lag.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0086","hypothesis":"A ring of coupled floats should average local water-height noise without delaying a common level step excessively.","prediction":"A ring of coupled floats should average local water-height noise without delaying a common level step excessively.","test":"Measure noise spectrum and step response.","contrary_outcome":"Noise suppression requires unacceptable step lag.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0087","id":"S1-0087","volume":"900","title":"A thin elastic tongue should produce distinct rebound counts for equal-energy impacts of different durations.","prediction":"A thin elastic tongue should produce distinct rebound counts for equal-energy impacts of different durations.","test":"Apply shaped force pulses and count rebounds.","contrary":"Duration cannot be distinguished at matched energy.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0087","hypothesis":"A thin elastic tongue should produce distinct rebound counts for equal-energy impacts of different durations.","prediction":"A thin elastic tongue should produce distinct rebound counts for equal-energy impacts of different durations.","test":"Apply shaped force pulses and count rebounds.","contrary_outcome":"Duration cannot be distinguished at matched energy.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0088","id":"S1-0088","volume":"900","title":"A flexible channel roof should suppress long bubbles by reopening behind their tails.","prediction":"A flexible channel roof should suppress long bubbles by reopening behind their tails.","test":"Image bubbles under matched rigid and flexible roofs.","contrary":"Bubble length distribution is unchanged.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0088","hypothesis":"A flexible channel roof should suppress long bubbles by reopening behind their tails.","prediction":"A flexible channel roof should suppress long bubbles by reopening behind their tails.","test":"Image bubbles under matched rigid and flexible roofs.","contrary_outcome":"Bubble length distribution is unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0089","id":"S1-0089","volume":"900","title":"A vented granular pouch should grip irregular objects more reproducibly when its backing limits thickness redistribution.","prediction":"A vented granular pouch should grip irregular objects more reproducibly when its backing limits thickness redistribution.","test":"Measure slip force across repeated placements.","contrary":"Backing does not reduce variability.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0089","hypothesis":"A vented granular pouch should grip irregular objects more reproducibly when its backing limits thickness redistribution.","prediction":"A vented granular pouch should grip irregular objects more reproducibly when its backing limits thickness redistribution.","test":"Measure slip force across repeated placements.","contrary_outcome":"Backing does not reduce variability.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0090","id":"S1-0090","volume":"900","title":"A torsional flexure with paired offsets should reject axial acceleration while preserving angular sensitivity.","prediction":"A torsional flexure with paired offsets should reject axial acceleration while preserving angular sensitivity.","test":"Apply separate angular and axial excitation.","contrary":"Axial cross-sensitivity remains large.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0090","hypothesis":"A torsional flexure with paired offsets should reject axial acceleration while preserving angular sensitivity.","prediction":"A torsional flexure with paired offsets should reject axial acceleration while preserving angular sensitivity.","test":"Apply separate angular and axial excitation.","contrary_outcome":"Axial cross-sensitivity remains large.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0091","id":"S1-0091","volume":"900","title":"A wavy drainage lip should detach water at smaller accumulated volumes by concentrating contact-line curvature.","prediction":"A wavy drainage lip should detach water at smaller accumulated volumes by concentrating contact-line curvature.","test":"Measure detachment volume against straight lips.","contrary":"Detachment volume is unchanged or larger.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0091","hypothesis":"A wavy drainage lip should detach water at smaller accumulated volumes by concentrating contact-line curvature.","prediction":"A wavy drainage lip should detach water at smaller accumulated volumes by concentrating contact-line curvature.","test":"Measure detachment volume against straight lips.","contrary_outcome":"Detachment volume is unchanged or larger.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0092","id":"S1-0092","volume":"900","title":"A floating magnetic rotor should reveal liquid viscosity through phase lag without contacting the vessel wall.","prediction":"A floating magnetic rotor should reveal liquid viscosity through phase lag without contacting the vessel wall.","test":"Measure phase against independently known viscosities.","contrary":"Wall-independent calibration cannot be obtained.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0092","hypothesis":"A floating magnetic rotor should reveal liquid viscosity through phase lag without contacting the vessel wall.","prediction":"A floating magnetic rotor should reveal liquid viscosity through phase lag without contacting the vessel wall.","test":"Measure phase against independently known viscosities.","contrary_outcome":"Wall-independent calibration cannot be obtained.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0093","id":"S1-0093","volume":"900","title":"A folded paperboard honeycomb should recover acoustic absorption after compression if cell vents prevent trapped-air damage.","prediction":"A folded paperboard honeycomb should recover acoustic absorption after compression if cell vents prevent trapped-air damage.","test":"Measure spectra before and after compression cycles.","contrary":"Venting provides no recovery advantage.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0093","hypothesis":"A folded paperboard honeycomb should recover acoustic absorption after compression if cell vents prevent trapped-air damage.","prediction":"A folded paperboard honeycomb should recover acoustic absorption after compression if cell vents prevent trapped-air damage.","test":"Measure spectra before and after compression cycles.","contrary_outcome":"Venting provides no recovery advantage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0094","id":"S1-0094","volume":"900","title":"An offset flexible baffle should move a cavity's acoustic node while leaving its volume unchanged.","prediction":"An offset flexible baffle should move a cavity's acoustic node while leaving its volume unchanged.","test":"Measure pressure field as baffle bends.","contrary":"Node position stays fixed within resolution.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0094","hypothesis":"An offset flexible baffle should move a cavity's acoustic node while leaving its volume unchanged.","prediction":"An offset flexible baffle should move a cavity's acoustic node while leaving its volume unchanged.","test":"Measure pressure field as baffle bends.","contrary_outcome":"Node position stays fixed within resolution.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0095","id":"S1-0095","volume":"900","title":"A spring-loaded overflow gate should stabilize reservoir head under pulsed inflow better than a fixed weir.","prediction":"A spring-loaded overflow gate should stabilize reservoir head under pulsed inflow better than a fixed weir.","test":"Measure head variance at equal mean discharge.","contrary":"Gate increases or leaves variance unchanged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0095","hypothesis":"A spring-loaded overflow gate should stabilize reservoir head under pulsed inflow better than a fixed weir.","prediction":"A spring-loaded overflow gate should stabilize reservoir head under pulsed inflow better than a fixed weir.","test":"Measure head variance at equal mean discharge.","contrary_outcome":"Gate increases or leaves variance unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0096","id":"S1-0096","volume":"900","title":"A passive rolling counterweight should reduce tipping during sudden braking of a wheeled platform.","prediction":"A passive rolling counterweight should reduce tipping during sudden braking of a wheeled platform.","test":"Measure wheel lift onset with weight free and fixed.","contrary":"Free weight lowers the stability threshold.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0096","hypothesis":"A passive rolling counterweight should reduce tipping during sudden braking of a wheeled platform.","prediction":"A passive rolling counterweight should reduce tipping during sudden braking of a wheeled platform.","test":"Measure wheel lift onset with weight free and fixed.","contrary_outcome":"Free weight lowers the stability threshold.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0097","id":"S1-0097","volume":"900","title":"A tensioned membrane with a central slack island should isolate local impact from its rim through delayed recruitment.","prediction":"A tensioned membrane with a central slack island should isolate local impact from its rim through delayed recruitment.","test":"Measure rim force and island displacement.","contrary":"Slack increases transmitted peak force.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0097","hypothesis":"A tensioned membrane with a central slack island should isolate local impact from its rim through delayed recruitment.","prediction":"A tensioned membrane with a central slack island should isolate local impact from its rim through delayed recruitment.","test":"Measure rim force and island displacement.","contrary_outcome":"Slack increases transmitted peak force.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0098","id":"S1-0098","volume":"900","title":"A transparent capillary fork should determine the sign of a pressure pulse from which branch wets first.","prediction":"A transparent capillary fork should determine the sign of a pressure pulse from which branch wets first.","test":"Apply positive and negative calibrated pulses.","contrary":"Branch sequence does not reliably encode sign.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0098","hypothesis":"A transparent capillary fork should determine the sign of a pressure pulse from which branch wets first.","prediction":"A transparent capillary fork should determine the sign of a pressure pulse from which branch wets first.","test":"Apply positive and negative calibrated pulses.","contrary_outcome":"Branch sequence does not reliably encode sign.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0099","id":"S1-0099","volume":"900","title":"A corrugated shield should attenuate radiative heating while venting convection through staggered gaps.","prediction":"A corrugated shield should attenuate radiative heating while venting convection through staggered gaps.","test":"Measure protected temperature and airflow.","contrary":"Thermal reduction requires comparable airflow loss.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0099","hypothesis":"A corrugated shield should attenuate radiative heating while venting convection through staggered gaps.","prediction":"A corrugated shield should attenuate radiative heating while venting convection through staggered gaps.","test":"Measure protected temperature and airflow.","contrary_outcome":"Thermal reduction requires comparable airflow loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0100","id":"S1-0100","volume":"900","title":"A compliant ring gear should reduce peak tooth loading through neighboring-tooth engagement.","prediction":"A compliant ring gear should reduce peak tooth loading through neighboring-tooth engagement.","test":"Measure tooth-root strain during torque pulses.","contrary":"Peak strain remains concentrated in one tooth.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0100","hypothesis":"A compliant ring gear should reduce peak tooth loading through neighboring-tooth engagement.","prediction":"A compliant ring gear should reduce peak tooth loading through neighboring-tooth engagement.","test":"Measure tooth-root strain during torque pulses.","contrary_outcome":"Peak strain remains concentrated in one tooth.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0101","id":"S1-0101","volume":"900","title":"A bowed wire should rectify symmetric lateral shaking into axial crawling through contact sequencing.","prediction":"A bowed wire should rectify symmetric lateral shaking into axial crawling through contact sequencing.","test":"Film motion on level glass.","contrary":"Mean travel vanishes.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0101","hypothesis":"A bowed wire should rectify symmetric lateral shaking into axial crawling through contact sequencing.","prediction":"A bowed wire should rectify symmetric lateral shaking into axial crawling through contact sequencing.","test":"Film motion on level glass.","contrary_outcome":"Mean travel vanishes.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0101","hypothesis":"A bowed wire should rectify symmetric lateral shaking into axial crawling through contact sequencing.","prediction":"A bowed wire should rectify symmetric lateral shaking into axial crawling through contact sequencing.","test":"Film motion on level glass.","contrary_outcome":"Mean travel vanishes.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":11,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A bowed wire rectify symmetric lateral shaking into axial crawling through contact sequencing. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0102","id":"S1-0102","volume":"900","title":"A buried air groove should reduce peel-force scatter in adhesive-free suction sheets.","prediction":"A buried air groove should reduce peel-force scatter in adhesive-free suction sheets.","test":"Measure repeated peel curves.","contrary":"Scatter remains unchanged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0102","hypothesis":"A buried air groove should reduce peel-force scatter in adhesive-free suction sheets.","prediction":"A buried air groove should reduce peel-force scatter in adhesive-free suction sheets.","test":"Measure repeated peel curves.","contrary_outcome":"Scatter remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0103","id":"S1-0103","volume":"900","title":"A compliant manifold should equalize unequal outlet flows by locally constricting high-flow branches.","prediction":"A compliant manifold should equalize unequal outlet flows by locally constricting high-flow branches.","test":"Measure branch flows under unequal loads.","contrary":"Imbalance increases.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0103","hypothesis":"A compliant manifold should equalize unequal outlet flows by locally constricting high-flow branches.","prediction":"A compliant manifold should equalize unequal outlet flows by locally constricting high-flow branches.","test":"Measure branch flows under unequal loads.","contrary_outcome":"Imbalance increases.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0104","id":"S1-0104","volume":"900","title":"A rocking shutter should reject isolated droplets but open under sustained water loading.","prediction":"A rocking shutter should reject isolated droplets but open under sustained water loading.","test":"Apply equal-volume pulses with varied duration.","contrary":"Opening ignores duration.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0104","hypothesis":"A rocking shutter should reject isolated droplets but open under sustained water loading.","prediction":"A rocking shutter should reject isolated droplets but open under sustained water loading.","test":"Apply equal-volume pulses with varied duration.","contrary_outcome":"Opening ignores duration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0105","id":"S1-0105","volume":"900","title":"An interrupted helical groove should prevent rotating shafts from pumping lubricant out of a bearing.","prediction":"An interrupted helical groove should prevent rotating shafts from pumping lubricant out of a bearing.","test":"Measure leakage against continuous grooves.","contrary":"Leakage remains equal.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0105","hypothesis":"An interrupted helical groove should prevent rotating shafts from pumping lubricant out of a bearing.","prediction":"An interrupted helical groove should prevent rotating shafts from pumping lubricant out of a bearing.","test":"Measure leakage against continuous grooves.","contrary_outcome":"Leakage remains equal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0106","id":"S1-0106","volume":"900","title":"A pressure-collapsible spacer should limit clamping force after reaching its collapse plateau.","prediction":"A pressure-collapsible spacer should limit clamping force after reaching its collapse plateau.","test":"Measure force during overtravel.","contrary":"Force rises without a plateau.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0106","hypothesis":"A pressure-collapsible spacer should limit clamping force after reaching its collapse plateau.","prediction":"A pressure-collapsible spacer should limit clamping force after reaching its collapse plateau.","test":"Measure force during overtravel.","contrary_outcome":"Force rises without a plateau.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0107","id":"S1-0107","volume":"900","title":"A hanging chain curtain should dissipate acoustic pulses through collision timing.","prediction":"A hanging chain curtain should dissipate acoustic pulses through collision timing.","test":"Measure transmission while immobilizing chain contacts.","contrary":"Free contacts provide no added attenuation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0107","hypothesis":"A hanging chain curtain should dissipate acoustic pulses through collision timing.","prediction":"A hanging chain curtain should dissipate acoustic pulses through collision timing.","test":"Measure transmission while immobilizing chain contacts.","contrary_outcome":"Free contacts provide no added attenuation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0108","id":"S1-0108","volume":"900","title":"A sealed toroidal air chamber should straighten a bent soft tube under internal pressure.","prediction":"A sealed toroidal air chamber should straighten a bent soft tube under internal pressure.","test":"Measure curvature against pressure.","contrary":"Curvature increases or stays fixed.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0108","hypothesis":"A sealed toroidal air chamber should straighten a bent soft tube under internal pressure.","prediction":"A sealed toroidal air chamber should straighten a bent soft tube under internal pressure.","test":"Measure curvature against pressure.","contrary_outcome":"Curvature increases or stays fixed.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0109","id":"S1-0109","volume":"900","title":"A freely sliding keel should increase a toy sailboat's roll stability during gust onset.","prediction":"A freely sliding keel should increase a toy sailboat's roll stability during gust onset.","test":"Measure tilt in controlled airflow.","contrary":"Free keel worsens tilt.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0109","hypothesis":"A freely sliding keel should increase a toy sailboat's roll stability during gust onset.","prediction":"A freely sliding keel should increase a toy sailboat's roll stability during gust onset.","test":"Measure tilt in controlled airflow.","contrary_outcome":"Free keel worsens tilt.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0110","id":"S1-0110","volume":"900","title":"A branching capillary should route liquid according to pulse rise time rather than peak pressure alone.","prediction":"A branching capillary should route liquid according to pulse rise time rather than peak pressure alone.","test":"Apply equal-peak pressure waveforms.","contrary":"Routing remains identical.","layers":[1,2],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0110","hypothesis":"A branching capillary should route liquid according to pulse rise time rather than peak pressure alone.","prediction":"A branching capillary should route liquid according to pulse rise time rather than peak pressure alone.","test":"Apply equal-peak pressure waveforms.","contrary_outcome":"Routing remains identical.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0110","hypothesis":"A branching capillary should route liquid according to pulse rise time rather than peak pressure alone.","prediction":"A branching capillary should route liquid according to pulse rise time rather than peak pressure alone.","test":"Apply equal-peak pressure waveforms.","contrary_outcome":"Routing remains identical.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":12,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A branching capillary route liquid according to pulse rise time rather than peak pressure alone. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0111","id":"S1-0111","volume":"900","title":"A corrugated torsion strip should change its natural twist after controlled end-shortening.","prediction":"A corrugated torsion strip should change its natural twist after controlled end-shortening.","test":"Measure twist against shortening.","contrary":"Twist lacks a reproducible transition.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0111","hypothesis":"A corrugated torsion strip should change its natural twist after controlled end-shortening.","prediction":"A corrugated torsion strip should change its natural twist after controlled end-shortening.","test":"Measure twist against shortening.","contrary_outcome":"Twist lacks a reproducible transition.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0112","id":"S1-0112","volume":"900","title":"A vented lens mount should reduce thermal focus drift caused by enclosed-air pressure.","prediction":"A vented lens mount should reduce thermal focus drift caused by enclosed-air pressure.","test":"Measure focus during temperature cycles.","contrary":"Venting provides no improvement.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0112","hypothesis":"A vented lens mount should reduce thermal focus drift caused by enclosed-air pressure.","prediction":"A vented lens mount should reduce thermal focus drift caused by enclosed-air pressure.","test":"Measure focus during temperature cycles.","contrary_outcome":"Venting provides no improvement.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0113","id":"S1-0113","volume":"900","title":"A fluid-filled cable sleeve should transmit static tension while filtering transverse shock.","prediction":"A fluid-filled cable sleeve should transmit static tension while filtering transverse shock.","test":"Measure force and acceleration transfer.","contrary":"Isolation also destroys static force transmission.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0113","hypothesis":"A fluid-filled cable sleeve should transmit static tension while filtering transverse shock.","prediction":"A fluid-filled cable sleeve should transmit static tension while filtering transverse shock.","test":"Measure force and acceleration transfer.","contrary_outcome":"Isolation also destroys static force transmission.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0114","id":"S1-0114","volume":"900","title":"A flexible scraper edge should shed deposited particles when reversed curvature releases elastic energy.","prediction":"A flexible scraper edge should shed deposited particles when reversed curvature releases elastic energy.","test":"Cycle curvature and weigh retained particles.","contrary":"Reversal does not improve shedding.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0114","hypothesis":"A flexible scraper edge should shed deposited particles when reversed curvature releases elastic energy.","prediction":"A flexible scraper edge should shed deposited particles when reversed curvature releases elastic energy.","test":"Cycle curvature and weigh retained particles.","contrary_outcome":"Reversal does not improve shedding.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0115","id":"S1-0115","volume":"900","title":"A shallow bowl with radial floor ridges should segregate rolling beads by restitution under vibration.","prediction":"A shallow bowl with radial floor ridges should segregate rolling beads by restitution under vibration.","test":"Track known beads.","contrary":"Sorting follows size alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0115","hypothesis":"A shallow bowl with radial floor ridges should segregate rolling beads by restitution under vibration.","prediction":"A shallow bowl with radial floor ridges should segregate rolling beads by restitution under vibration.","test":"Track known beads.","contrary_outcome":"Sorting follows size alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0116","id":"S1-0116","volume":"900","title":"A split membrane should cap differential pressure by reversible edge separation.","prediction":"A split membrane should cap differential pressure by reversible edge separation.","test":"Measure flow-pressure cycles.","contrary":"Separation is irreversible or lacks pressure limitation.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0116","hypothesis":"A split membrane should cap differential pressure by reversible edge separation.","prediction":"A split membrane should cap differential pressure by reversible edge separation.","test":"Measure flow-pressure cycles.","contrary_outcome":"Separation is irreversible or lacks pressure limitation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0117","id":"S1-0117","volume":"900","title":"A loose annular shield should suppress splash from a plunging rod through delayed downward motion.","prediction":"A loose annular shield should suppress splash from a plunging rod through delayed downward motion.","test":"Image splash with free and fixed shields.","contrary":"Motion provides no reduction.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0117","hypothesis":"A loose annular shield should suppress splash from a plunging rod through delayed downward motion.","prediction":"A loose annular shield should suppress splash from a plunging rod through delayed downward motion.","test":"Image splash with free and fixed shields.","contrary_outcome":"Motion provides no reduction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0118","id":"S1-0118","volume":"900","title":"An oblique slit in a soft pneumatic chamber should yield different inflation and deflation resistances.","prediction":"An oblique slit in a soft pneumatic chamber should yield different inflation and deflation resistances.","test":"Measure pressure-flow curves.","contrary":"Resistance is direction-independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0118","hypothesis":"An oblique slit in a soft pneumatic chamber should yield different inflation and deflation resistances.","prediction":"An oblique slit in a soft pneumatic chamber should yield different inflation and deflation resistances.","test":"Measure pressure-flow curves.","contrary_outcome":"Resistance is direction-independent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0119","id":"S1-0119","volume":"900","title":"A variable-pitch spiral spring should confine fatigue damage away from its anchor.","prediction":"A variable-pitch spiral spring should confine fatigue damage away from its anchor.","test":"Map strain and crack locations during cycling.","contrary":"Anchor remains the dominant failure site.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0119","hypothesis":"A variable-pitch spiral spring should confine fatigue damage away from its anchor.","prediction":"A variable-pitch spiral spring should confine fatigue damage away from its anchor.","test":"Map strain and crack locations during cycling.","contrary_outcome":"Anchor remains the dominant failure site.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0119","hypothesis":"A variable-pitch spiral spring should confine fatigue damage away from its anchor.","prediction":"A variable-pitch spiral spring should confine fatigue damage away from its anchor.","test":"Map strain and crack locations during cycling.","contrary_outcome":"Anchor remains the dominant failure site.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":13,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A variable-pitch spiral spring confine fatigue damage away from its anchor. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0120","id":"S1-0120","volume":"900","title":"A capillary ladder should drain isolated droplets through bridges formed only above a critical volume.","prediction":"A capillary ladder should drain isolated droplets through bridges formed only above a critical volume.","test":"Dose and image transfer.","contrary":"Transfer lacks a reproducible threshold.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0120","hypothesis":"A capillary ladder should drain isolated droplets through bridges formed only above a critical volume.","prediction":"A capillary ladder should drain isolated droplets through bridges formed only above a critical volume.","test":"Dose and image transfer.","contrary_outcome":"Transfer lacks a reproducible threshold.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0121","id":"S1-0121","volume":"900","title":"A curved bearing pad should convert wear into a measurable shift of its pressure centroid.","prediction":"A curved bearing pad should convert wear into a measurable shift of its pressure centroid.","test":"Map contact pressure during controlled abrasion.","contrary":"Centroid does not track wear.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0121","hypothesis":"A curved bearing pad should convert wear into a measurable shift of its pressure centroid.","prediction":"A curved bearing pad should convert wear into a measurable shift of its pressure centroid.","test":"Map contact pressure during controlled abrasion.","contrary_outcome":"Centroid does not track wear.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0122","id":"S1-0122","volume":"900","title":"A collapsible sidewall should maintain a nearly circular liquid jet as reservoir pressure falls.","prediction":"A collapsible sidewall should maintain a nearly circular liquid jet as reservoir pressure falls.","test":"Image jet cross-section.","contrary":"Circularity deteriorates as in rigid controls.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0122","hypothesis":"A collapsible sidewall should maintain a nearly circular liquid jet as reservoir pressure falls.","prediction":"A collapsible sidewall should maintain a nearly circular liquid jet as reservoir pressure falls.","test":"Image jet cross-section.","contrary_outcome":"Circularity deteriorates as in rigid controls.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0123","id":"S1-0123","volume":"900","title":"A compliant stop with staggered ribs should reduce rebound by engaging contacts at different times.","prediction":"A compliant stop with staggered ribs should reduce rebound by engaging contacts at different times.","test":"Measure restitution and rib motion.","contrary":"Rebound remains equal.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0123","hypothesis":"A compliant stop with staggered ribs should reduce rebound by engaging contacts at different times.","prediction":"A compliant stop with staggered ribs should reduce rebound by engaging contacts at different times.","test":"Measure restitution and rib motion.","contrary_outcome":"Rebound remains equal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0124","id":"S1-0124","volume":"900","title":"A sliding optical wedge should cancel beam wander from small support rotations.","prediction":"A sliding optical wedge should cancel beam wander from small support rotations.","test":"Measure output angle against support tilt.","contrary":"Cancellation fails within the designed range.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0124","hypothesis":"A sliding optical wedge should cancel beam wander from small support rotations.","prediction":"A sliding optical wedge should cancel beam wander from small support rotations.","test":"Measure output angle against support tilt.","contrary_outcome":"Cancellation fails within the designed range.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0125","id":"S1-0125","volume":"900","title":"A soft pneumatic finger should retain grasp force longer when a local check chamber isolates leakage.","prediction":"A soft pneumatic finger should retain grasp force longer when a local check chamber isolates leakage.","test":"Measure force decay after imposed puncture.","contrary":"Decay is unchanged.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0125","hypothesis":"A soft pneumatic finger should retain grasp force longer when a local check chamber isolates leakage.","prediction":"A soft pneumatic finger should retain grasp force longer when a local check chamber isolates leakage.","test":"Measure force decay after imposed puncture.","contrary_outcome":"Decay is unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0125","hypothesis":"A soft pneumatic finger should retain grasp force longer when a local check chamber isolates leakage.","prediction":"A soft pneumatic finger should retain grasp force longer when a local check chamber isolates leakage.","test":"Measure force decay after imposed puncture.","contrary_outcome":"Decay is unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":14,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A soft pneumatic finger retain grasp force longer when a local check chamber isolates leakage. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0126","id":"S1-0126","volume":"900","title":"A floating porous collar should concentrate floating debris through convergent surface drainage.","prediction":"A floating porous collar should concentrate floating debris through convergent surface drainage.","test":"Track inert particles under gentle withdrawal.","contrary":"Particles bypass the collar.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0126","hypothesis":"A floating porous collar should concentrate floating debris through convergent surface drainage.","prediction":"A floating porous collar should concentrate floating debris through convergent surface drainage.","test":"Track inert particles under gentle withdrawal.","contrary_outcome":"Particles bypass the collar.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0127","id":"S1-0127","volume":"900","title":"A hinged waveguide wall should alter acoustic transmission more strongly near its mechanical resonance.","prediction":"A hinged waveguide wall should alter acoustic transmission more strongly near its mechanical resonance.","test":"Sweep sound frequency.","contrary":"Wall motion adds no distinct transmission feature.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0127","hypothesis":"A hinged waveguide wall should alter acoustic transmission more strongly near its mechanical resonance.","prediction":"A hinged waveguide wall should alter acoustic transmission more strongly near its mechanical resonance.","test":"Sweep sound frequency.","contrary_outcome":"Wall motion adds no distinct transmission feature.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0128","id":"S1-0128","volume":"900","title":"A corrugated liquid film should drain more slowly when transverse wrinkles interrupt gravitational rivulets.","prediction":"A corrugated liquid film should drain more slowly when transverse wrinkles interrupt gravitational rivulets.","test":"Measure thickness decay.","contrary":"Wrinkles accelerate or leave drainage unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0128","hypothesis":"A corrugated liquid film should drain more slowly when transverse wrinkles interrupt gravitational rivulets.","prediction":"A corrugated liquid film should drain more slowly when transverse wrinkles interrupt gravitational rivulets.","test":"Measure thickness decay.","contrary_outcome":"Wrinkles accelerate or leave drainage unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0129","id":"S1-0129","volume":"900","title":"A compliant bearing sleeve should self-center under alternating radial loads through pressure asymmetry.","prediction":"A compliant bearing sleeve should self-center under alternating radial loads through pressure asymmetry.","test":"Measure shaft eccentricity.","contrary":"Centering is absent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0129","hypothesis":"A compliant bearing sleeve should self-center under alternating radial loads through pressure asymmetry.","prediction":"A compliant bearing sleeve should self-center under alternating radial loads through pressure asymmetry.","test":"Measure shaft eccentricity.","contrary_outcome":"Centering is absent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0130","id":"S1-0130","volume":"900","title":"A vented impactor head should distinguish trapped gas from soft solid support through force relaxation.","prediction":"A vented impactor head should distinguish trapped gas from soft solid support through force relaxation.","test":"Indent controlled samples.","contrary":"Relaxation curves remain indistinguishable.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0130","hypothesis":"A vented impactor head should distinguish trapped gas from soft solid support through force relaxation.","prediction":"A vented impactor head should distinguish trapped gas from soft solid support through force relaxation.","test":"Indent controlled samples.","contrary_outcome":"Relaxation curves remain indistinguishable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0131","id":"S1-0131","volume":"900","title":"A rotating slotted disk should generate a narrow-band airflow pulse with less tonal jitter when slots widen radially.","prediction":"A rotating slotted disk should generate a narrow-band airflow pulse with less tonal jitter when slots widen radially.","test":"Measure pressure timing.","contrary":"Radial widening offers no improvement.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0131","hypothesis":"A rotating slotted disk should generate a narrow-band airflow pulse with less tonal jitter when slots widen radially.","prediction":"A rotating slotted disk should generate a narrow-band airflow pulse with less tonal jitter when slots widen radially.","test":"Measure pressure timing.","contrary_outcome":"Radial widening offers no improvement.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0132","id":"S1-0132","volume":"900","title":"A flexure-supported marble track should passively meter one marble per oscillation.","prediction":"A flexure-supported marble track should passively meter one marble per oscillation.","test":"Count releases over varied fill heights.","contrary":"Multiple releases remain common.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0132","hypothesis":"A flexure-supported marble track should passively meter one marble per oscillation.","prediction":"A flexure-supported marble track should passively meter one marble per oscillation.","test":"Count releases over varied fill heights.","contrary_outcome":"Multiple releases remain common.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0133","id":"S1-0133","volume":"900","title":"A liquid-filled arch should resist collapse through hydrostatic redistribution between its legs.","prediction":"A liquid-filled arch should resist collapse through hydrostatic redistribution between its legs.","test":"Compare drained and filled collapse loads.","contrary":"Liquid provides no stabilization.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0133","hypothesis":"A liquid-filled arch should resist collapse through hydrostatic redistribution between its legs.","prediction":"A liquid-filled arch should resist collapse through hydrostatic redistribution between its legs.","test":"Compare drained and filled collapse loads.","contrary_outcome":"Liquid provides no stabilization.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0134","id":"S1-0134","volume":"900","title":"A tapered porous wick should maintain upward transport under partial side drying.","prediction":"A tapered porous wick should maintain upward transport under partial side drying.","test":"Measure flux and drying front.","contrary":"Side drying causes the same transport collapse.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0134","hypothesis":"A tapered porous wick should maintain upward transport under partial side drying.","prediction":"A tapered porous wick should maintain upward transport under partial side drying.","test":"Measure flux and drying front.","contrary_outcome":"Side drying causes the same transport collapse.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0135","id":"S1-0135","volume":"900","title":"A soft rolling seal should show less stick-slip when its contact width varies gradually around circumference.","prediction":"A soft rolling seal should show less stick-slip when its contact width varies gradually around circumference.","test":"Measure force fluctuations.","contrary":"Fluctuations do not decrease.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0135","hypothesis":"A soft rolling seal should show less stick-slip when its contact width varies gradually around circumference.","prediction":"A soft rolling seal should show less stick-slip when its contact width varies gradually around circumference.","test":"Measure force fluctuations.","contrary_outcome":"Fluctuations do not decrease.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0136","id":"S1-0136","volume":"900","title":"A suspended perforated sphere should measure turbulent burst intensity through intermittent wake-induced rotation.","prediction":"A suspended perforated sphere should measure turbulent burst intensity through intermittent wake-induced rotation.","test":"Compare angular spikes with flow velocimetry.","contrary":"Rotation follows mean flow only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0136","hypothesis":"A suspended perforated sphere should measure turbulent burst intensity through intermittent wake-induced rotation.","prediction":"A suspended perforated sphere should measure turbulent burst intensity through intermittent wake-induced rotation.","test":"Compare angular spikes with flow velocimetry.","contrary_outcome":"Rotation follows mean flow only.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0137","id":"S1-0137","volume":"900","title":"A mechanically bistable gauge should preserve evidence of a pressure excursion after pressure returns to zero.","prediction":"A mechanically bistable gauge should preserve evidence of a pressure excursion after pressure returns to zero.","test":"Apply known pulses and inspect state.","contrary":"Subthreshold and suprathreshold pulses produce indistinguishable states.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0137","hypothesis":"A mechanically bistable gauge should preserve evidence of a pressure excursion after pressure returns to zero.","prediction":"A mechanically bistable gauge should preserve evidence of a pressure excursion after pressure returns to zero.","test":"Apply known pulses and inspect state.","contrary_outcome":"Subthreshold and suprathreshold pulses produce indistinguishable states.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0137","hypothesis":"A mechanically bistable gauge should preserve evidence of a pressure excursion after pressure returns to zero.","prediction":"A mechanically bistable gauge should preserve evidence of a pressure excursion after pressure returns to zero.","test":"Apply known pulses and inspect state.","contrary_outcome":"Subthreshold and suprathreshold pulses produce indistinguishable states.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":15,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A mechanically bistable gauge preserve evidence of a pressure excursion after pressure returns to zero. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0138","id":"S1-0138","volume":"900","title":"A two-layer flap should open sequentially under increasing flow and thereby reduce valve chatter.","prediction":"A two-layer flap should open sequentially under increasing flow and thereby reduce valve chatter.","test":"Measure layer motion and pressure spectrum.","contrary":"Sequential opening fails to reduce chatter.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0138","hypothesis":"A two-layer flap should open sequentially under increasing flow and thereby reduce valve chatter.","prediction":"A two-layer flap should open sequentially under increasing flow and thereby reduce valve chatter.","test":"Measure layer motion and pressure spectrum.","contrary_outcome":"Sequential opening fails to reduce chatter.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0139","id":"S1-0139","volume":"900","title":"A flexible docking cone should correct lateral alignment before transmitting axial insertion force.","prediction":"A flexible docking cone should correct lateral alignment before transmitting axial insertion force.","test":"Measure offset and force during insertion.","contrary":"Axial loading begins before alignment improves.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0139","hypothesis":"A flexible docking cone should correct lateral alignment before transmitting axial insertion force.","prediction":"A flexible docking cone should correct lateral alignment before transmitting axial insertion force.","test":"Measure offset and force during insertion.","contrary_outcome":"Axial loading begins before alignment improves.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0140","id":"S1-0140","volume":"900","title":"A radial slit array should make a flat diaphragm approach constant restoring force over a finite displacement.","prediction":"A radial slit array should make a flat diaphragm approach constant restoring force over a finite displacement.","test":"Measure force-displacement.","contrary":"No stable plateau appears.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0140","hypothesis":"A radial slit array should make a flat diaphragm approach constant restoring force over a finite displacement.","prediction":"A radial slit array should make a flat diaphragm approach constant restoring force over a finite displacement.","test":"Measure force-displacement.","contrary_outcome":"No stable plateau appears.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0141","id":"S1-0141","volume":"900","title":"A side-connected resonator should identify partial pipe filling through split acoustic peaks.","prediction":"A side-connected resonator should identify partial pipe filling through split acoustic peaks.","test":"Compare spectra against known fill fractions.","contrary":"Peak splitting does not resolve filling.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0141","hypothesis":"A side-connected resonator should identify partial pipe filling through split acoustic peaks.","prediction":"A side-connected resonator should identify partial pipe filling through split acoustic peaks.","test":"Compare spectra against known fill fractions.","contrary_outcome":"Peak splitting does not resolve filling.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0142","id":"S1-0142","volume":"900","title":"A submerged mesh pocket should release retained air reproducibly when rotated past a geometric threshold.","prediction":"A submerged mesh pocket should release retained air reproducibly when rotated past a geometric threshold.","test":"Measure release angle.","contrary":"Release angle varies widely with initial air volume.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0142","hypothesis":"A submerged mesh pocket should release retained air reproducibly when rotated past a geometric threshold.","prediction":"A submerged mesh pocket should release retained air reproducibly when rotated past a geometric threshold.","test":"Measure release angle.","contrary_outcome":"Release angle varies widely with initial air volume.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0143","id":"S1-0143","volume":"900","title":"A compliant eccentric wheel should passively equalize contact force over small floor steps.","prediction":"A compliant eccentric wheel should passively equalize contact force over small floor steps.","test":"Measure axle force on calibrated steps.","contrary":"Force spikes match rigid wheels.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0143","hypothesis":"A compliant eccentric wheel should passively equalize contact force over small floor steps.","prediction":"A compliant eccentric wheel should passively equalize contact force over small floor steps.","test":"Measure axle force on calibrated steps.","contrary_outcome":"Force spikes match rigid wheels.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0144","id":"S1-0144","volume":"900","title":"A spring-mounted drain plug should clear sediment through pressure-induced tapping.","prediction":"A spring-mounted drain plug should clear sediment through pressure-induced tapping.","test":"Measure sediment removal without external actuation.","contrary":"Plug remains static or worsens clogging.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0144","hypothesis":"A spring-mounted drain plug should clear sediment through pressure-induced tapping.","prediction":"A spring-mounted drain plug should clear sediment through pressure-induced tapping.","test":"Measure sediment removal without external actuation.","contrary_outcome":"Plug remains static or worsens clogging.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0145","id":"S1-0145","volume":"900","title":"A multilobe capillary tip should create several equal droplets per detachment cycle.","prediction":"A multilobe capillary tip should create several equal droplets per detachment cycle.","test":"Measure droplet volumes with high-speed imaging.","contrary":"Volumes remain persistently unequal.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0145","hypothesis":"A multilobe capillary tip should create several equal droplets per detachment cycle.","prediction":"A multilobe capillary tip should create several equal droplets per detachment cycle.","test":"Measure droplet volumes with high-speed imaging.","contrary_outcome":"Volumes remain persistently unequal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0145","hypothesis":"A multilobe capillary tip should create several equal droplets per detachment cycle.","prediction":"A multilobe capillary tip should create several equal droplets per detachment cycle.","test":"Measure droplet volumes with high-speed imaging.","contrary_outcome":"Volumes remain persistently unequal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":16,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A multilobe capillary tip create several equal droplets per detachment cycle. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0146","id":"S1-0146","volume":"900","title":"A serpentine strain gauge support should reduce sensitivity to rigid-body thermal expansion.","prediction":"A serpentine strain gauge support should reduce sensitivity to rigid-body thermal expansion.","test":"Measure signal during strain-free heating.","contrary":"Thermal offset remains unchanged.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0146","hypothesis":"A serpentine strain gauge support should reduce sensitivity to rigid-body thermal expansion.","prediction":"A serpentine strain gauge support should reduce sensitivity to rigid-body thermal expansion.","test":"Measure signal during strain-free heating.","contrary_outcome":"Thermal offset remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0147","id":"S1-0147","volume":"900","title":"A ribbed inflatable beam should resist torsional collapse better when ribs alternate orientation.","prediction":"A ribbed inflatable beam should resist torsional collapse better when ribs alternate orientation.","test":"Compare torque-angle curves.","contrary":"Alternation adds no stability.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0147","hypothesis":"A ribbed inflatable beam should resist torsional collapse better when ribs alternate orientation.","prediction":"A ribbed inflatable beam should resist torsional collapse better when ribs alternate orientation.","test":"Compare torque-angle curves.","contrary_outcome":"Alternation adds no stability.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0148","id":"S1-0148","volume":"900","title":"A receding meniscus should pull a floating flap toward a repeatable stop without external power.","prediction":"A receding meniscus should pull a floating flap toward a repeatable stop without external power.","test":"Track flap during drainage.","contrary":"Final position depends strongly on starting position.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0148","hypothesis":"A receding meniscus should pull a floating flap toward a repeatable stop without external power.","prediction":"A receding meniscus should pull a floating flap toward a repeatable stop without external power.","test":"Track flap during drainage.","contrary_outcome":"Final position depends strongly on starting position.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0149","id":"S1-0149","volume":"900","title":"A rocking nozzle should entrain less ambient air by following its own jet reaction.","prediction":"A rocking nozzle should entrain less ambient air by following its own jet reaction.","test":"Measure jet dilution with free and fixed nozzle.","contrary":"Free motion increases dilution.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0149","hypothesis":"A rocking nozzle should entrain less ambient air by following its own jet reaction.","prediction":"A rocking nozzle should entrain less ambient air by following its own jet reaction.","test":"Measure jet dilution with free and fixed nozzle.","contrary_outcome":"Free motion increases dilution.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0150","id":"S1-0150","volume":"900","title":"A discontinuous sealing lip should leak less after dust contamination by trapping particles in recesses.","prediction":"A discontinuous sealing lip should leak less after dust contamination by trapping particles in recesses.","test":"Measure air leakage with calibrated inert dust.","contrary":"Recesses provide no benefit.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0150","hypothesis":"A discontinuous sealing lip should leak less after dust contamination by trapping particles in recesses.","prediction":"A discontinuous sealing lip should leak less after dust contamination by trapping particles in recesses.","test":"Measure air leakage with calibrated inert dust.","contrary_outcome":"Recesses provide no benefit.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0151","id":"S1-0151","volume":"900","title":"A compliant gear carrier should average pitch errors across multiple meshes.","prediction":"A compliant gear carrier should average pitch errors across multiple meshes.","test":"Measure output angular error.","contrary":"Carrier motion amplifies transmission error.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0151","hypothesis":"A compliant gear carrier should average pitch errors across multiple meshes.","prediction":"A compliant gear carrier should average pitch errors across multiple meshes.","test":"Measure output angular error.","contrary_outcome":"Carrier motion amplifies transmission error.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0152","id":"S1-0152","volume":"900","title":"A suspended flexible vane should distinguish reversing shear from constant shear through signed curvature history.","prediction":"A suspended flexible vane should distinguish reversing shear from constant shear through signed curvature history.","test":"Image curvature under matched stress magnitudes.","contrary":"History does not distinguish protocols.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0152","hypothesis":"A suspended flexible vane should distinguish reversing shear from constant shear through signed curvature history.","prediction":"A suspended flexible vane should distinguish reversing shear from constant shear through signed curvature history.","test":"Image curvature under matched stress magnitudes.","contrary_outcome":"History does not distinguish protocols.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0153","id":"S1-0153","volume":"900","title":"A bubble train should act as a tunable acoustic delay line when spacing is mechanically constrained.","prediction":"A bubble train should act as a tunable acoustic delay line when spacing is mechanically constrained.","test":"Measure group delay while varying spacing.","contrary":"Delay is insensitive to spacing.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0153","hypothesis":"A bubble train should act as a tunable acoustic delay line when spacing is mechanically constrained.","prediction":"A bubble train should act as a tunable acoustic delay line when spacing is mechanically constrained.","test":"Measure group delay while varying spacing.","contrary_outcome":"Delay is insensitive to spacing.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0154","id":"S1-0154","volume":"900","title":"A hollow tapered stopper should grip more tightly during attempted extraction through wall inversion.","prediction":"A hollow tapered stopper should grip more tightly during attempted extraction through wall inversion.","test":"Measure extraction versus insertion force.","contrary":"Extraction does not increase contact pressure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0154","hypothesis":"A hollow tapered stopper should grip more tightly during attempted extraction through wall inversion.","prediction":"A hollow tapered stopper should grip more tightly during attempted extraction through wall inversion.","test":"Measure extraction versus insertion force.","contrary_outcome":"Extraction does not increase contact pressure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0155","id":"S1-0155","volume":"900","title":"A water-filled membrane lens should correct gravity sag when its rim tension varies azimuthally.","prediction":"A water-filled membrane lens should correct gravity sag when its rim tension varies azimuthally.","test":"Measure wavefront error across orientations.","contrary":"Tailored tension does not reduce sag.","layers":[1,2],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0155","hypothesis":"A water-filled membrane lens should correct gravity sag when its rim tension varies azimuthally.","prediction":"A water-filled membrane lens should correct gravity sag when its rim tension varies azimuthally.","test":"Measure wavefront error across orientations.","contrary_outcome":"Tailored tension does not reduce sag.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0155","hypothesis":"A water-filled membrane lens should correct gravity sag when its rim tension varies azimuthally.","prediction":"A water-filled membrane lens should correct gravity sag when its rim tension varies azimuthally.","test":"Measure wavefront error across orientations.","contrary_outcome":"Tailored tension does not reduce sag.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":17,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A water-filled membrane lens correct gravity sag when its rim tension varies azimuthally. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0156","id":"S1-0156","volume":"900","title":"A shallow saddle tray should direct granular avalanches into alternating outlets under periodic tilt.","prediction":"A shallow saddle tray should direct granular avalanches into alternating outlets under periodic tilt.","test":"Count outlet sequences.","contrary":"Routing remains random.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0156","hypothesis":"A shallow saddle tray should direct granular avalanches into alternating outlets under periodic tilt.","prediction":"A shallow saddle tray should direct granular avalanches into alternating outlets under periodic tilt.","test":"Count outlet sequences.","contrary_outcome":"Routing remains random.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0157","id":"S1-0157","volume":"900","title":"A compliant impact washer should retain a residual shape proportional to peak force over a bounded range.","prediction":"A compliant impact washer should retain a residual shape proportional to peak force over a bounded range.","test":"Calibrate force and remanent deflection.","contrary":"Deflection depends mainly on impulse.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0157","hypothesis":"A compliant impact washer should retain a residual shape proportional to peak force over a bounded range.","prediction":"A compliant impact washer should retain a residual shape proportional to peak force over a bounded range.","test":"Calibrate force and remanent deflection.","contrary_outcome":"Deflection depends mainly on impulse.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0158","id":"S1-0158","volume":"900","title":"A pressure-driven sliding baffle should maintain nearly constant velocity in a narrowing duct.","prediction":"A pressure-driven sliding baffle should maintain nearly constant velocity in a narrowing duct.","test":"Measure local velocity across inflow rates.","contrary":"Velocity scales as in a fixed baffle.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0158","hypothesis":"A pressure-driven sliding baffle should maintain nearly constant velocity in a narrowing duct.","prediction":"A pressure-driven sliding baffle should maintain nearly constant velocity in a narrowing duct.","test":"Measure local velocity across inflow rates.","contrary_outcome":"Velocity scales as in a fixed baffle.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0159","id":"S1-0159","volume":"900","title":"A tethered buoy should discriminate wave direction using phase differences between orthogonal tethers.","prediction":"A tethered buoy should discriminate wave direction using phase differences between orthogonal tethers.","test":"Compare inferred direction with imposed waves.","contrary":"Phase ambiguity prevents reliable inference.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0159","hypothesis":"A tethered buoy should discriminate wave direction using phase differences between orthogonal tethers.","prediction":"A tethered buoy should discriminate wave direction using phase differences between orthogonal tethers.","test":"Compare inferred direction with imposed waves.","contrary_outcome":"Phase ambiguity prevents reliable inference.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0160","id":"S1-0160","volume":"900","title":"A narrow internal slit should relieve thermal warping in a plate while preserving edge stiffness.","prediction":"A narrow internal slit should relieve thermal warping in a plate while preserving edge stiffness.","test":"Measure curvature and edge deflection.","contrary":"Warping reduction requires comparable stiffness loss.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0160","hypothesis":"A narrow internal slit should relieve thermal warping in a plate while preserving edge stiffness.","prediction":"A narrow internal slit should relieve thermal warping in a plate while preserving edge stiffness.","test":"Measure curvature and edge deflection.","contrary_outcome":"Warping reduction requires comparable stiffness loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0161","id":"S1-0161","volume":"900","title":"A capillary fan should spread liquid uniformly only after its central reservoir exceeds a filling threshold.","prediction":"A capillary fan should spread liquid uniformly only after its central reservoir exceeds a filling threshold.","test":"Image branch fronts.","contrary":"Uniformity lacks the predicted threshold.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0161","hypothesis":"A capillary fan should spread liquid uniformly only after its central reservoir exceeds a filling threshold.","prediction":"A capillary fan should spread liquid uniformly only after its central reservoir exceeds a filling threshold.","test":"Image branch fronts.","contrary_outcome":"Uniformity lacks the predicted threshold.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0162","id":"S1-0162","volume":"900","title":"A spring-return scoop should harvest suspended particles preferentially during flow acceleration.","prediction":"A spring-return scoop should harvest suspended particles preferentially during flow acceleration.","test":"Count captured inert particles across waveforms.","contrary":"Capture depends only on integrated flow.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0162","hypothesis":"A spring-return scoop should harvest suspended particles preferentially during flow acceleration.","prediction":"A spring-return scoop should harvest suspended particles preferentially during flow acceleration.","test":"Count captured inert particles across waveforms.","contrary_outcome":"Capture depends only on integrated flow.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0163","id":"S1-0163","volume":"900","title":"A thin annular diaphragm should produce a sharp acoustic click at a reproducible differential pressure.","prediction":"A thin annular diaphragm should produce a sharp acoustic click at a reproducible differential pressure.","test":"Measure click pressure over cycles.","contrary":"Threshold drifts beyond useful repeatability.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0163","hypothesis":"A thin annular diaphragm should produce a sharp acoustic click at a reproducible differential pressure.","prediction":"A thin annular diaphragm should produce a sharp acoustic click at a reproducible differential pressure.","test":"Measure click pressure over cycles.","contrary_outcome":"Threshold drifts beyond useful repeatability.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0164","id":"S1-0164","volume":"900","title":"A flexible cover over a rough surface should reduce friction by suppressing asperity interlocking without lubrication.","prediction":"A flexible cover over a rough surface should reduce friction by suppressing asperity interlocking without lubrication.","test":"Measure sliding force and contact geometry.","contrary":"Interlocking suppression gives no friction reduction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0164","hypothesis":"A flexible cover over a rough surface should reduce friction by suppressing asperity interlocking without lubrication.","prediction":"A flexible cover over a rough surface should reduce friction by suppressing asperity interlocking without lubrication.","test":"Measure sliding force and contact geometry.","contrary_outcome":"Interlocking suppression gives no friction reduction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0165","id":"S1-0165","volume":"900","title":"A rotating capillary bend should measure angular acceleration through transient meniscus displacement.","prediction":"A rotating capillary bend should measure angular acceleration through transient meniscus displacement.","test":"Apply known acceleration profiles.","contrary":"Displacement follows speed alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0165","hypothesis":"A rotating capillary bend should measure angular acceleration through transient meniscus displacement.","prediction":"A rotating capillary bend should measure angular acceleration through transient meniscus displacement.","test":"Apply known acceleration profiles.","contrary_outcome":"Displacement follows speed alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0166","id":"S1-0166","volume":"900","title":"A double-ended float valve should resist false closure from single-sided splashes.","prediction":"A double-ended float valve should resist false closure from single-sided splashes.","test":"Apply localized splashes and sustained level rises.","contrary":"Splash rejection prevents legitimate closure.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0166","hypothesis":"A double-ended float valve should resist false closure from single-sided splashes.","prediction":"A double-ended float valve should resist false closure from single-sided splashes.","test":"Apply localized splashes and sustained level rises.","contrary_outcome":"Splash rejection prevents legitimate closure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0167","id":"S1-0167","volume":"900","title":"A bowed bridge support should redistribute load to a secondary support before the main support yields.","prediction":"A bowed bridge support should redistribute load to a secondary support before the main support yields.","test":"Measure reaction forces.","contrary":"Redistribution begins only after permanent damage.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0167","hypothesis":"A bowed bridge support should redistribute load to a secondary support before the main support yields.","prediction":"A bowed bridge support should redistribute load to a secondary support before the main support yields.","test":"Measure reaction forces.","contrary_outcome":"Redistribution begins only after permanent damage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0167","hypothesis":"A bowed bridge support should redistribute load to a secondary support before the main support yields.","prediction":"A bowed bridge support should redistribute load to a secondary support before the main support yields.","test":"Measure reaction forces.","contrary_outcome":"Redistribution begins only after permanent damage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":18,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A bowed bridge support redistribute load to a secondary support before the main support yields. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0168","id":"S1-0168","volume":"900","title":"A drain with an oscillating free ring should disrupt stable air-core formation.","prediction":"A drain with an oscillating free ring should disrupt stable air-core formation.","test":"Measure swirl and drainage rate.","contrary":"Ring fails to change the air core.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0168","hypothesis":"A drain with an oscillating free ring should disrupt stable air-core formation.","prediction":"A drain with an oscillating free ring should disrupt stable air-core formation.","test":"Measure swirl and drainage rate.","contrary_outcome":"Ring fails to change the air core.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0169","id":"S1-0169","volume":"900","title":"A perforated elastic belt should change ventilation area predictably with tension.","prediction":"A perforated elastic belt should change ventilation area predictably with tension.","test":"Measure airflow resistance and strain.","contrary":"Area changes are nonmonotonic or irreproducible.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0169","hypothesis":"A perforated elastic belt should change ventilation area predictably with tension.","prediction":"A perforated elastic belt should change ventilation area predictably with tension.","test":"Measure airflow resistance and strain.","contrary_outcome":"Area changes are nonmonotonic or irreproducible.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0170","id":"S1-0170","volume":"900","title":"A flexural pendulum should recover its calibration after overload through a geometric travel stop.","prediction":"A flexural pendulum should recover its calibration after overload through a geometric travel stop.","test":"Compare frequencies before and after overload.","contrary":"Calibration shifts despite stop engagement.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0170","hypothesis":"A flexural pendulum should recover its calibration after overload through a geometric travel stop.","prediction":"A flexural pendulum should recover its calibration after overload through a geometric travel stop.","test":"Compare frequencies before and after overload.","contrary_outcome":"Calibration shifts despite stop engagement.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0171","id":"S1-0171","volume":"900","title":"A reciprocating porous piston should transfer liquid while excluding bubbles through wetting hysteresis.","prediction":"A reciprocating porous piston should transfer liquid while excluding bubbles through wetting hysteresis.","test":"Measure net liquid and gas passage.","contrary":"Gas rejection prevents net transfer.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0171","hypothesis":"A reciprocating porous piston should transfer liquid while excluding bubbles through wetting hysteresis.","prediction":"A reciprocating porous piston should transfer liquid while excluding bubbles through wetting hysteresis.","test":"Measure net liquid and gas passage.","contrary_outcome":"Gas rejection prevents net transfer.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0172","id":"S1-0172","volume":"900","title":"A curved spring clip should convert object diameter into a monotonic resonance shift.","prediction":"A curved spring clip should convert object diameter into a monotonic resonance shift.","test":"Clamp calibrated cylinders and measure vibration.","contrary":"Frequency is ambiguous across diameters.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0172","hypothesis":"A curved spring clip should convert object diameter into a monotonic resonance shift.","prediction":"A curved spring clip should convert object diameter into a monotonic resonance shift.","test":"Clamp calibrated cylinders and measure vibration.","contrary_outcome":"Frequency is ambiguous across diameters.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0173","id":"S1-0173","volume":"900","title":"A floating ring should reduce evaporation-driven circulation by pinning the liquid surface perimeter.","prediction":"A floating ring should reduce evaporation-driven circulation by pinning the liquid surface perimeter.","test":"Measure tracer velocities.","contrary":"Circulation is unchanged or stronger.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0173","hypothesis":"A floating ring should reduce evaporation-driven circulation by pinning the liquid surface perimeter.","prediction":"A floating ring should reduce evaporation-driven circulation by pinning the liquid surface perimeter.","test":"Measure tracer velocities.","contrary_outcome":"Circulation is unchanged or stronger.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0174","id":"S1-0174","volume":"900","title":"A compliant splitter should stabilize an otherwise wandering jet through negative feedback from jet loading.","prediction":"A compliant splitter should stabilize an otherwise wandering jet through negative feedback from jet loading.","test":"Image jet centroid with splitter free and fixed.","contrary":"Free motion amplifies wandering.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0174","hypothesis":"A compliant splitter should stabilize an otherwise wandering jet through negative feedback from jet loading.","prediction":"A compliant splitter should stabilize an otherwise wandering jet through negative feedback from jet loading.","test":"Image jet centroid with splitter free and fixed.","contrary_outcome":"Free motion amplifies wandering.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0175","id":"S1-0175","volume":"900","title":"A rotating flexible fin should fold at high speed and limit motor torque passively.","prediction":"A rotating flexible fin should fold at high speed and limit motor torque passively.","test":"Measure torque and fin angle.","contrary":"Torque continues rising without limitation.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0175","hypothesis":"A rotating flexible fin should fold at high speed and limit motor torque passively.","prediction":"A rotating flexible fin should fold at high speed and limit motor torque passively.","test":"Measure torque and fin angle.","contrary_outcome":"Torque continues rising without limitation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0176","id":"S1-0176","volume":"900","title":"A pressure-fed porous pad should maintain levitation after one outlet clogs through lateral permeability.","prediction":"A pressure-fed porous pad should maintain levitation after one outlet clogs through lateral permeability.","test":"Measure gap stability under controlled blockage.","contrary":"The pad contacts its support.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0176","hypothesis":"A pressure-fed porous pad should maintain levitation after one outlet clogs through lateral permeability.","prediction":"A pressure-fed porous pad should maintain levitation after one outlet clogs through lateral permeability.","test":"Measure gap stability under controlled blockage.","contrary_outcome":"The pad contacts its support.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0177","id":"S1-0177","volume":"900","title":"A helical tether should convert water-level variation into a measurable twist while rejecting lateral drift.","prediction":"A helical tether should convert water-level variation into a measurable twist while rejecting lateral drift.","test":"Measure twist and lateral displacement.","contrary":"Cross-sensitivity prevents level reconstruction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0177","hypothesis":"A helical tether should convert water-level variation into a measurable twist while rejecting lateral drift.","prediction":"A helical tether should convert water-level variation into a measurable twist while rejecting lateral drift.","test":"Measure twist and lateral displacement.","contrary_outcome":"Cross-sensitivity prevents level reconstruction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0178","id":"S1-0178","volume":"900","title":"A toothed elastic strip should store a sequence of load reversals through successive local snaps.","prediction":"A toothed elastic strip should store a sequence of load reversals through successive local snaps.","test":"Apply known sequences and inspect states.","contrary":"Different sequences end identically.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0178","hypothesis":"A toothed elastic strip should store a sequence of load reversals through successive local snaps.","prediction":"A toothed elastic strip should store a sequence of load reversals through successive local snaps.","test":"Apply known sequences and inspect states.","contrary_outcome":"Different sequences end identically.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0179","id":"S1-0179","volume":"900","title":"A stepped thermal spacer should delay heat pulses more strongly than slow temperature changes.","prediction":"A stepped thermal spacer should delay heat pulses more strongly than slow temperature changes.","test":"Measure transfer functions.","contrary":"Filtering lacks the expected timescale dependence.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0179","hypothesis":"A stepped thermal spacer should delay heat pulses more strongly than slow temperature changes.","prediction":"A stepped thermal spacer should delay heat pulses more strongly than slow temperature changes.","test":"Measure transfer functions.","contrary_outcome":"Filtering lacks the expected timescale dependence.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0180","id":"S1-0180","volume":"900","title":"A double-wall funnel should reduce particle bridging by transferring wall vibrations across a loose gap.","prediction":"A double-wall funnel should reduce particle bridging by transferring wall vibrations across a loose gap.","test":"Measure bridging frequency.","contrary":"Loose coupling offers no reduction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0180","hypothesis":"A double-wall funnel should reduce particle bridging by transferring wall vibrations across a loose gap.","prediction":"A double-wall funnel should reduce particle bridging by transferring wall vibrations across a loose gap.","test":"Measure bridging frequency.","contrary_outcome":"Loose coupling offers no reduction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0181","id":"S1-0181","volume":"900","title":"A compliant oblique stop should direct impact rebound into a safer lateral corridor.","prediction":"A compliant oblique stop should direct impact rebound into a safer lateral corridor.","test":"Track rebound angles over incident speeds.","contrary":"Angular dispersion remains uncontrolled.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0181","hypothesis":"A compliant oblique stop should direct impact rebound into a safer lateral corridor.","prediction":"A compliant oblique stop should direct impact rebound into a safer lateral corridor.","test":"Track rebound angles over incident speeds.","contrary_outcome":"Angular dispersion remains uncontrolled.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0182","id":"S1-0182","volume":"900","title":"An intermittently contacting brush seal should reduce rotational drag while preserving static sealing.","prediction":"An intermittently contacting brush seal should reduce rotational drag while preserving static sealing.","test":"Measure leakage and torque.","contrary":"Drag reduction requires substantial leakage.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0182","hypothesis":"An intermittently contacting brush seal should reduce rotational drag while preserving static sealing.","prediction":"An intermittently contacting brush seal should reduce rotational drag while preserving static sealing.","test":"Measure leakage and torque.","contrary_outcome":"Drag reduction requires substantial leakage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0182","hypothesis":"An intermittently contacting brush seal should reduce rotational drag while preserving static sealing.","prediction":"An intermittently contacting brush seal should reduce rotational drag while preserving static sealing.","test":"Measure leakage and torque.","contrary_outcome":"Drag reduction requires substantial leakage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":19,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"An intermittently contacting brush seal reduce rotational drag while preserving static sealing. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0183","id":"S1-0183","volume":"900","title":"A corrugated air bladder should display a stable pressure plateau during deflation.","prediction":"A corrugated air bladder should display a stable pressure plateau during deflation.","test":"Measure pressure-volume loops.","contrary":"Pressure declines monotonically without plateau.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0183","hypothesis":"A corrugated air bladder should display a stable pressure plateau during deflation.","prediction":"A corrugated air bladder should display a stable pressure plateau during deflation.","test":"Measure pressure-volume loops.","contrary_outcome":"Pressure declines monotonically without plateau.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0184","id":"S1-0184","volume":"900","title":"A suspended magnet should estimate liquid level through buoyancy-induced equilibrium height without wall contact.","prediction":"A suspended magnet should estimate liquid level through buoyancy-induced equilibrium height without wall contact.","test":"Compare height against known levels.","contrary":"Hysteresis masks level changes.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0184","hypothesis":"A suspended magnet should estimate liquid level through buoyancy-induced equilibrium height without wall contact.","prediction":"A suspended magnet should estimate liquid level through buoyancy-induced equilibrium height without wall contact.","test":"Compare height against known levels.","contrary_outcome":"Hysteresis masks level changes.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0185","id":"S1-0185","volume":"900","title":"A flexible septum should prevent two liquid streams mixing during startup by temporarily storing the faster stream.","prediction":"A flexible septum should prevent two liquid streams mixing during startup by temporarily storing the faster stream.","test":"Image dye mixing.","contrary":"Startup contamination remains unchanged.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0185","hypothesis":"A flexible septum should prevent two liquid streams mixing during startup by temporarily storing the faster stream.","prediction":"A flexible septum should prevent two liquid streams mixing during startup by temporarily storing the faster stream.","test":"Image dye mixing.","contrary_outcome":"Startup contamination remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0186","id":"S1-0186","volume":"900","title":"A snap-fit acoustic reflector should encode mounting preload through a shifted echo delay.","prediction":"A snap-fit acoustic reflector should encode mounting preload through a shifted echo delay.","test":"Measure echoes over calibrated preload.","contrary":"Delay remains insensitive to preload.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0186","hypothesis":"A snap-fit acoustic reflector should encode mounting preload through a shifted echo delay.","prediction":"A snap-fit acoustic reflector should encode mounting preload through a shifted echo delay.","test":"Measure echoes over calibrated preload.","contrary_outcome":"Delay remains insensitive to preload.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0187","id":"S1-0187","volume":"900","title":"A curved porous insert should attenuate vortex shedding by redistributing bleed flow along its length.","prediction":"A curved porous insert should attenuate vortex shedding by redistributing bleed flow along its length.","test":"Measure wake spectra.","contrary":"Shedding amplitude does not fall.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0187","hypothesis":"A curved porous insert should attenuate vortex shedding by redistributing bleed flow along its length.","prediction":"A curved porous insert should attenuate vortex shedding by redistributing bleed flow along its length.","test":"Measure wake spectra.","contrary_outcome":"Shedding amplitude does not fall.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0188","id":"S1-0188","volume":"900","title":"A spring-loaded spillway lip should suppress intermittent dripping by maintaining meniscus curvature.","prediction":"A spring-loaded spillway lip should suppress intermittent dripping by maintaining meniscus curvature.","test":"Measure drop timing across low flow rates.","contrary":"Intermittency remains or increases.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0188","hypothesis":"A spring-loaded spillway lip should suppress intermittent dripping by maintaining meniscus curvature.","prediction":"A spring-loaded spillway lip should suppress intermittent dripping by maintaining meniscus curvature.","test":"Measure drop timing across low flow rates.","contrary_outcome":"Intermittency remains or increases.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0189","id":"S1-0189","volume":"900","title":"A flexure-mounted prism should separate translational vibration from rotational vibration through two reflected spots.","prediction":"A flexure-mounted prism should separate translational vibration from rotational vibration through two reflected spots.","test":"Calibrate both disturbances.","contrary":"Signals are not independently identifiable.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0189","hypothesis":"A flexure-mounted prism should separate translational vibration from rotational vibration through two reflected spots.","prediction":"A flexure-mounted prism should separate translational vibration from rotational vibration through two reflected spots.","test":"Calibrate both disturbances.","contrary_outcome":"Signals are not independently identifiable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0190","id":"S1-0190","volume":"900","title":"An inflatable torus should grip cylindrical objects more uniformly when its outer circumference is constrained.","prediction":"An inflatable torus should grip cylindrical objects more uniformly when its outer circumference is constrained.","test":"Map contact pressure.","contrary":"Constraint increases pressure nonuniformity.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0190","hypothesis":"An inflatable torus should grip cylindrical objects more uniformly when its outer circumference is constrained.","prediction":"An inflatable torus should grip cylindrical objects more uniformly when its outer circumference is constrained.","test":"Map contact pressure.","contrary_outcome":"Constraint increases pressure nonuniformity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0191","id":"S1-0191","volume":"900","title":"A rolling corrugation in a membrane should transmit displacement with less hysteresis than stretching the membrane.","prediction":"A rolling corrugation in a membrane should transmit displacement with less hysteresis than stretching the membrane.","test":"Measure displacement loops.","contrary":"Hysteresis remains comparable.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0191","hypothesis":"A rolling corrugation in a membrane should transmit displacement with less hysteresis than stretching the membrane.","prediction":"A rolling corrugation in a membrane should transmit displacement with less hysteresis than stretching the membrane.","test":"Measure displacement loops.","contrary_outcome":"Hysteresis remains comparable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0192","id":"S1-0192","volume":"900","title":"A widening capillary groove should resist freezing blockage by pushing liquid toward an open reservoir.","prediction":"A widening capillary groove should resist freezing blockage by pushing liquid toward an open reservoir.","test":"Image benign water freezing.","contrary":"Groove blocks without displacement.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0192","hypothesis":"A widening capillary groove should resist freezing blockage by pushing liquid toward an open reservoir.","prediction":"A widening capillary groove should resist freezing blockage by pushing liquid toward an open reservoir.","test":"Image benign water freezing.","contrary_outcome":"Groove blocks without displacement.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0193","id":"S1-0193","volume":"900","title":"A hinged splash plate should store impact energy and return it after droplets have drained.","prediction":"A hinged splash plate should store impact energy and return it after droplets have drained.","test":"Measure plate motion and splash volume.","contrary":"Rebound occurs before drainage and increases splash.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0193","hypothesis":"A hinged splash plate should store impact energy and return it after droplets have drained.","prediction":"A hinged splash plate should store impact energy and return it after droplets have drained.","test":"Measure plate motion and splash volume.","contrary_outcome":"Rebound occurs before drainage and increases splash.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0194","id":"S1-0194","volume":"900","title":"A radial fiber brush should retain a centered bearing clearance despite small shaft eccentricity.","prediction":"A radial fiber brush should retain a centered bearing clearance despite small shaft eccentricity.","test":"Measure drag and gap around rotation.","contrary":"Eccentricity produces localized rubbing.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0194","hypothesis":"A radial fiber brush should retain a centered bearing clearance despite small shaft eccentricity.","prediction":"A radial fiber brush should retain a centered bearing clearance despite small shaft eccentricity.","test":"Measure drag and gap around rotation.","contrary_outcome":"Eccentricity produces localized rubbing.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0195","id":"S1-0195","volume":"900","title":"A passive pendulum shutter should block resonant excitation after vibration exceeds a threshold.","prediction":"A passive pendulum shutter should block resonant excitation after vibration exceeds a threshold.","test":"Measure response as excitation increases.","contrary":"Closure is unreliable or fails to reduce response.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0195","hypothesis":"A passive pendulum shutter should block resonant excitation after vibration exceeds a threshold.","prediction":"A passive pendulum shutter should block resonant excitation after vibration exceeds a threshold.","test":"Measure response as excitation increases.","contrary_outcome":"Closure is unreliable or fails to reduce response.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0196","id":"S1-0196","volume":"900","title":"A tapered compliant conduit should stop an advancing air finger through local collapse.","prediction":"A tapered compliant conduit should stop an advancing air finger through local collapse.","test":"Image pressure and interface propagation.","contrary":"Air crosses without a reproducible stop.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0196","hypothesis":"A tapered compliant conduit should stop an advancing air finger through local collapse.","prediction":"A tapered compliant conduit should stop an advancing air finger through local collapse.","test":"Image pressure and interface propagation.","contrary_outcome":"Air crosses without a reproducible stop.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0197","id":"S1-0197","volume":"900","title":"A helical slit sleeve should permit extension while resisting radial dilation.","prediction":"A helical slit sleeve should permit extension while resisting radial dilation.","test":"Measure axial and radial compliance.","contrary":"Radial dilation remains large.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0197","hypothesis":"A helical slit sleeve should permit extension while resisting radial dilation.","prediction":"A helical slit sleeve should permit extension while resisting radial dilation.","test":"Measure axial and radial compliance.","contrary_outcome":"Radial dilation remains large.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0197","hypothesis":"A helical slit sleeve should permit extension while resisting radial dilation.","prediction":"A helical slit sleeve should permit extension while resisting radial dilation.","test":"Measure axial and radial compliance.","contrary_outcome":"Radial dilation remains large.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":20,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A helical slit sleeve permit extension while resisting radial dilation. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0198","id":"S1-0198","volume":"900","title":"A capillary pressure sensor should self-zero when a movable reservoir equalizes both menisci between measurements.","prediction":"A capillary pressure sensor should self-zero when a movable reservoir equalizes both menisci between measurements.","test":"Measure repeated zero drift.","contrary":"Equalization does not improve zero stability.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0198","hypothesis":"A capillary pressure sensor should self-zero when a movable reservoir equalizes both menisci between measurements.","prediction":"A capillary pressure sensor should self-zero when a movable reservoir equalizes both menisci between measurements.","test":"Measure repeated zero drift.","contrary_outcome":"Equalization does not improve zero stability.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0199","id":"S1-0199","volume":"900","title":"A segmented floating mat should dissipate short waves more effectively when hinges have unequal stiffness.","prediction":"A segmented floating mat should dissipate short waves more effectively when hinges have unequal stiffness.","test":"Measure transmission spectrum.","contrary":"Unequal stiffness adds no bandwidth.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0199","hypothesis":"A segmented floating mat should dissipate short waves more effectively when hinges have unequal stiffness.","prediction":"A segmented floating mat should dissipate short waves more effectively when hinges have unequal stiffness.","test":"Measure transmission spectrum.","contrary_outcome":"Unequal stiffness adds no bandwidth.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0200","id":"S1-0200","volume":"900","title":"A bowed thermal switch should reduce contact chatter through mechanical hysteresis wider than ambient fluctuations.","prediction":"A bowed thermal switch should reduce contact chatter through mechanical hysteresis wider than ambient fluctuations.","test":"Cycle small temperature noise around threshold.","contrary":"Contact chatter persists.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0200","hypothesis":"A bowed thermal switch should reduce contact chatter through mechanical hysteresis wider than ambient fluctuations.","prediction":"A bowed thermal switch should reduce contact chatter through mechanical hysteresis wider than ambient fluctuations.","test":"Cycle small temperature noise around threshold.","contrary_outcome":"Contact chatter persists.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0201","id":"S1-0201","volume":"900","title":"A hollow rib should arrest a propagating fold in a thin shell.","prediction":"A hollow rib should arrest a propagating fold in a thin shell.","test":"Compress instrumented shells.","contrary":"Fold crosses rib unimpeded.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0201","hypothesis":"A hollow rib should arrest a propagating fold in a thin shell.","prediction":"A hollow rib should arrest a propagating fold in a thin shell.","test":"Compress instrumented shells.","contrary_outcome":"Fold crosses rib unimpeded.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0202","id":"S1-0202","volume":"900","title":"A capillary corner should separate evaporation flux from liquid supply through two meniscus curvatures.","prediction":"A capillary corner should separate evaporation flux from liquid supply through two meniscus curvatures.","test":"Compare imaging with gravimetry.","contrary":"Fluxes remain nonidentifiable.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0202","hypothesis":"A capillary corner should separate evaporation flux from liquid supply through two meniscus curvatures.","prediction":"A capillary corner should separate evaporation flux from liquid supply through two meniscus curvatures.","test":"Compare imaging with gravimetry.","contrary_outcome":"Fluxes remain nonidentifiable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0203","id":"S1-0203","volume":"900","title":"A loose collar should suppress cable galloping by intermittent impacts.","prediction":"A loose collar should suppress cable galloping by intermittent impacts.","test":"Measure cable oscillation with fixed/free collar.","contrary":"Amplitude remains unchanged.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0203","hypothesis":"A loose collar should suppress cable galloping by intermittent impacts.","prediction":"A loose collar should suppress cable galloping by intermittent impacts.","test":"Measure cable oscillation with fixed/free collar.","contrary_outcome":"Amplitude remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0203","hypothesis":"A loose collar should suppress cable galloping by intermittent impacts.","prediction":"A loose collar should suppress cable galloping by intermittent impacts.","test":"Measure cable oscillation with fixed/free collar.","contrary_outcome":"Amplitude remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":21,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A loose collar suppress cable galloping by intermittent impacts. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0204","id":"S1-0204","volume":"900","title":"A flexible roof should make a drainage gutter self-flush under accumulated debris weight.","prediction":"A flexible roof should make a drainage gutter self-flush under accumulated debris weight.","test":"Add inert debris and measure discharge.","contrary":"Debris remains trapped.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0204","hypothesis":"A flexible roof should make a drainage gutter self-flush under accumulated debris weight.","prediction":"A flexible roof should make a drainage gutter self-flush under accumulated debris weight.","test":"Add inert debris and measure discharge.","contrary_outcome":"Debris remains trapped.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0205","id":"S1-0205","volume":"900","title":"A pressure-driven iris should maintain outlet momentum across a bounded supply-pressure range.","prediction":"A pressure-driven iris should maintain outlet momentum across a bounded supply-pressure range.","test":"Measure jet force.","contrary":"Momentum varies as in a fixed aperture.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0205","hypothesis":"A pressure-driven iris should maintain outlet momentum across a bounded supply-pressure range.","prediction":"A pressure-driven iris should maintain outlet momentum across a bounded supply-pressure range.","test":"Measure jet force.","contrary_outcome":"Momentum varies as in a fixed aperture.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0206","id":"S1-0206","volume":"900","title":"A skewed roller pair should center a drifting belt without flanges.","prediction":"A skewed roller pair should center a drifting belt without flanges.","test":"Track belt offset under disturbances.","contrary":"Belt walks outward.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0206","hypothesis":"A skewed roller pair should center a drifting belt without flanges.","prediction":"A skewed roller pair should center a drifting belt without flanges.","test":"Track belt offset under disturbances.","contrary_outcome":"Belt walks outward.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0207","id":"S1-0207","volume":"900","title":"A thermally expanding rod should regulate ventilation through a mechanically amplified gap.","prediction":"A thermally expanding rod should regulate ventilation through a mechanically amplified gap.","test":"Measure gap and temperature response.","contrary":"Feedback fails to stabilize temperature.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0207","hypothesis":"A thermally expanding rod should regulate ventilation through a mechanically amplified gap.","prediction":"A thermally expanding rod should regulate ventilation through a mechanically amplified gap.","test":"Measure gap and temperature response.","contrary_outcome":"Feedback fails to stabilize temperature.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0208","id":"S1-0208","volume":"900","title":"A tapered liquid bridge should center an inserted probe through asymmetric surface tension.","prediction":"A tapered liquid bridge should center an inserted probe through asymmetric surface tension.","test":"Measure lateral restoring force.","contrary":"Force is destabilizing or negligible.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0208","hypothesis":"A tapered liquid bridge should center an inserted probe through asymmetric surface tension.","prediction":"A tapered liquid bridge should center an inserted probe through asymmetric surface tension.","test":"Measure lateral restoring force.","contrary_outcome":"Force is destabilizing or negligible.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0209","id":"S1-0209","volume":"900","title":"A folded fin should reduce reverse-flow resistance after inversion.","prediction":"A folded fin should reduce reverse-flow resistance after inversion.","test":"Measure directional pressure loss.","contrary":"Inversion does not reduce loss.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0209","hypothesis":"A folded fin should reduce reverse-flow resistance after inversion.","prediction":"A folded fin should reduce reverse-flow resistance after inversion.","test":"Measure directional pressure loss.","contrary_outcome":"Inversion does not reduce loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0210","id":"S1-0210","volume":"900","title":"A compliant anchor should reduce fatigue at a vibrating cable termination.","prediction":"A compliant anchor should reduce fatigue at a vibrating cable termination.","test":"Measure strain cycles and lifetime.","contrary":"Failures remain concentrated at termination.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0210","hypothesis":"A compliant anchor should reduce fatigue at a vibrating cable termination.","prediction":"A compliant anchor should reduce fatigue at a vibrating cable termination.","test":"Measure strain cycles and lifetime.","contrary_outcome":"Failures remain concentrated at termination.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0211","id":"S1-0211","volume":"900","title":"A floating perforated cup should release overflow in discrete equal-volume packets.","prediction":"A floating perforated cup should release overflow in discrete equal-volume packets.","test":"Measure discharge packet volumes.","contrary":"Packet variability grows with inflow.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0211","hypothesis":"A floating perforated cup should release overflow in discrete equal-volume packets.","prediction":"A floating perforated cup should release overflow in discrete equal-volume packets.","test":"Measure discharge packet volumes.","contrary_outcome":"Packet variability grows with inflow.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0212","id":"S1-0212","volume":"900","title":"A shallow elastic dome should resolve pressure-pulse duration through delayed snap-back.","prediction":"A shallow elastic dome should resolve pressure-pulse duration through delayed snap-back.","test":"Apply equal-peak pulses.","contrary":"Snap-back timing ignores duration.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0212","hypothesis":"A shallow elastic dome should resolve pressure-pulse duration through delayed snap-back.","prediction":"A shallow elastic dome should resolve pressure-pulse duration through delayed snap-back.","test":"Apply equal-peak pulses.","contrary_outcome":"Snap-back timing ignores duration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0213","id":"S1-0213","volume":"900","title":"A cross-linked air chamber should balance contact pressure between two soft gripper jaws.","prediction":"A cross-linked air chamber should balance contact pressure between two soft gripper jaws.","test":"Measure jaw forces on asymmetric objects.","contrary":"Force imbalance persists.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0213","hypothesis":"A cross-linked air chamber should balance contact pressure between two soft gripper jaws.","prediction":"A cross-linked air chamber should balance contact pressure between two soft gripper jaws.","test":"Measure jaw forces on asymmetric objects.","contrary_outcome":"Force imbalance persists.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0214","id":"S1-0214","volume":"900","title":"A sawtooth drainage edge should separate oil-free water from attached inert particles by different release positions.","prediction":"A sawtooth drainage edge should separate oil-free water from attached inert particles by different release positions.","test":"Image drops and particles.","contrary":"Release positions overlap.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0214","hypothesis":"A sawtooth drainage edge should separate oil-free water from attached inert particles by different release positions.","prediction":"A sawtooth drainage edge should separate oil-free water from attached inert particles by different release positions.","test":"Image drops and particles.","contrary_outcome":"Release positions overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0214","hypothesis":"A sawtooth drainage edge should separate oil-free water from attached inert particles by different release positions.","prediction":"A sawtooth drainage edge should separate oil-free water from attached inert particles by different release positions.","test":"Image drops and particles.","contrary_outcome":"Release positions overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":22,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A sawtooth drainage edge separate oil-free water from attached inert particles by different release positions. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0215","id":"S1-0215","volume":"900","title":"A sliding mass should compensate a spring scale's sensitivity to instrument tilt.","prediction":"A sliding mass should compensate a spring scale's sensitivity to instrument tilt.","test":"Calibrate under controlled inclination.","contrary":"Tilt error remains unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0215","hypothesis":"A sliding mass should compensate a spring scale's sensitivity to instrument tilt.","prediction":"A sliding mass should compensate a spring scale's sensitivity to instrument tilt.","test":"Calibrate under controlled inclination.","contrary_outcome":"Tilt error remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0216","id":"S1-0216","volume":"900","title":"A variable-depth groove should prevent a liquid ring from breaking during slow rotation.","prediction":"A variable-depth groove should prevent a liquid ring from breaking during slow rotation.","test":"Image ring continuity.","contrary":"Breakup threshold is unchanged.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0216","hypothesis":"A variable-depth groove should prevent a liquid ring from breaking during slow rotation.","prediction":"A variable-depth groove should prevent a liquid ring from breaking during slow rotation.","test":"Image ring continuity.","contrary_outcome":"Breakup threshold is unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0217","id":"S1-0217","volume":"900","title":"A soft internal baffle should damp liquid-container impacts by delaying fluid momentum transfer.","prediction":"A soft internal baffle should damp liquid-container impacts by delaying fluid momentum transfer.","test":"Measure wall impulses.","contrary":"Impulse peaks remain equal.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0217","hypothesis":"A soft internal baffle should damp liquid-container impacts by delaying fluid momentum transfer.","prediction":"A soft internal baffle should damp liquid-container impacts by delaying fluid momentum transfer.","test":"Measure wall impulses.","contrary_outcome":"Impulse peaks remain equal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0218","id":"S1-0218","volume":"900","title":"An elastic conical foot should reduce skid onset during a lateral impulse through growing contact area.","prediction":"An elastic conical foot should reduce skid onset during a lateral impulse through growing contact area.","test":"Measure friction force and contact.","contrary":"Area growth does not delay slip.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0218","hypothesis":"An elastic conical foot should reduce skid onset during a lateral impulse through growing contact area.","prediction":"An elastic conical foot should reduce skid onset during a lateral impulse through growing contact area.","test":"Measure friction force and contact.","contrary_outcome":"Area growth does not delay slip.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0219","id":"S1-0219","volume":"900","title":"A porous acoustic plug should recover its low-frequency response after wetting if a gravity drain interrupts capillary bridges.","prediction":"A porous acoustic plug should recover its low-frequency response after wetting if a gravity drain interrupts capillary bridges.","test":"Measure spectra through wet/dry cycles.","contrary":"Drainage provides no recovery benefit.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0219","hypothesis":"A porous acoustic plug should recover its low-frequency response after wetting if a gravity drain interrupts capillary bridges.","prediction":"A porous acoustic plug should recover its low-frequency response after wetting if a gravity drain interrupts capillary bridges.","test":"Measure spectra through wet/dry cycles.","contrary_outcome":"Drainage provides no recovery benefit.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0220","id":"S1-0220","volume":"900","title":"A compliant wedge should convert small shear into amplified normal displacement without slipping.","prediction":"A compliant wedge should convert small shear into amplified normal displacement without slipping.","test":"Measure displacement and contact motion.","contrary":"Amplification requires slip.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0220","hypothesis":"A compliant wedge should convert small shear into amplified normal displacement without slipping.","prediction":"A compliant wedge should convert small shear into amplified normal displacement without slipping.","test":"Measure displacement and contact motion.","contrary_outcome":"Amplification requires slip.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0221","id":"S1-0221","volume":"900","title":"An offset tendon pair should generate bistable curvature in a soft arm at constant total tension.","prediction":"An offset tendon pair should generate bistable curvature in a soft arm at constant total tension.","test":"Measure shape versus tension difference.","contrary":"Only one stable shape exists.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0221","hypothesis":"An offset tendon pair should generate bistable curvature in a soft arm at constant total tension.","prediction":"An offset tendon pair should generate bistable curvature in a soft arm at constant total tension.","test":"Measure shape versus tension difference.","contrary_outcome":"Only one stable shape exists.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0222","id":"S1-0222","volume":"900","title":"A capillary siphon should restart more reliably when its crest contains a retaining pocket.","prediction":"A capillary siphon should restart more reliably when its crest contains a retaining pocket.","test":"Count restarts after interrupted supply.","contrary":"Pocket does not improve restart probability.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0222","hypothesis":"A capillary siphon should restart more reliably when its crest contains a retaining pocket.","prediction":"A capillary siphon should restart more reliably when its crest contains a retaining pocket.","test":"Count restarts after interrupted supply.","contrary_outcome":"Pocket does not improve restart probability.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0223","id":"S1-0223","volume":"900","title":"A freely rotating vane should infer flow reversal timing from angular acceleration spikes.","prediction":"A freely rotating vane should infer flow reversal timing from angular acceleration spikes.","test":"Compare against a flowmeter.","contrary":"Spikes lag unpredictably.","layers":[1,2],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0223","hypothesis":"A freely rotating vane should infer flow reversal timing from angular acceleration spikes.","prediction":"A freely rotating vane should infer flow reversal timing from angular acceleration spikes.","test":"Compare against a flowmeter.","contrary_outcome":"Spikes lag unpredictably.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0223","hypothesis":"A freely rotating vane should infer flow reversal timing from angular acceleration spikes.","prediction":"A freely rotating vane should infer flow reversal timing from angular acceleration spikes.","test":"Compare against a flowmeter.","contrary_outcome":"Spikes lag unpredictably.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":23,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A freely rotating vane infer flow reversal timing from angular acceleration spikes. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0224","id":"S1-0224","volume":"900","title":"A flexible rim should lower droplet impact rebound by storing deformation energy until after recoil.","prediction":"A flexible rim should lower droplet impact rebound by storing deformation energy until after recoil.","test":"Measure rim motion and rebound.","contrary":"Energy returns early and increases rebound.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0224","hypothesis":"A flexible rim should lower droplet impact rebound by storing deformation energy until after recoil.","prediction":"A flexible rim should lower droplet impact rebound by storing deformation energy until after recoil.","test":"Measure rim motion and rebound.","contrary_outcome":"Energy returns early and increases rebound.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0225","id":"S1-0225","volume":"900","title":"A corrugated spring guide should suppress lateral buckling of a compressed cable without large sliding friction.","prediction":"A corrugated spring guide should suppress lateral buckling of a compressed cable without large sliding friction.","test":"Measure axial drag and buckling load.","contrary":"Stability requires high friction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0225","hypothesis":"A corrugated spring guide should suppress lateral buckling of a compressed cable without large sliding friction.","prediction":"A corrugated spring guide should suppress lateral buckling of a compressed cable without large sliding friction.","test":"Measure axial drag and buckling load.","contrary_outcome":"Stability requires high friction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0226","id":"S1-0226","volume":"900","title":"A differential float pair should reject uniform surface rise while detecting local slope.","prediction":"A differential float pair should reject uniform surface rise while detecting local slope.","test":"Measure output under rise and tilt.","contrary":"Common-mode response remains large.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0226","hypothesis":"A differential float pair should reject uniform surface rise while detecting local slope.","prediction":"A differential float pair should reject uniform surface rise while detecting local slope.","test":"Measure output under rise and tilt.","contrary_outcome":"Common-mode response remains large.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0227","id":"S1-0227","volume":"900","title":"A contracting elastic loop should tighten around polygons with more uniform pressure when corners slide freely.","prediction":"A contracting elastic loop should tighten around polygons with more uniform pressure when corners slide freely.","test":"Map contact loads.","contrary":"Corner loads remain dominant.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0227","hypothesis":"A contracting elastic loop should tighten around polygons with more uniform pressure when corners slide freely.","prediction":"A contracting elastic loop should tighten around polygons with more uniform pressure when corners slide freely.","test":"Map contact loads.","contrary_outcome":"Corner loads remain dominant.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0228","id":"S1-0228","volume":"900","title":"A bypassed hydraulic cushion should provide distinct damping for compression and recovery strokes.","prediction":"A bypassed hydraulic cushion should provide distinct damping for compression and recovery strokes.","test":"Measure force-velocity loops.","contrary":"Directional damping contrast is absent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0228","hypothesis":"A bypassed hydraulic cushion should provide distinct damping for compression and recovery strokes.","prediction":"A bypassed hydraulic cushion should provide distinct damping for compression and recovery strokes.","test":"Measure force-velocity loops.","contrary_outcome":"Directional damping contrast is absent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0229","id":"S1-0229","volume":"900","title":"A flexible vortex finder should reduce cyclone pressure fluctuations through passive displacement.","prediction":"A flexible vortex finder should reduce cyclone pressure fluctuations through passive displacement.","test":"Measure pressure spectra.","contrary":"Finder motion amplifies fluctuations.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0229","hypothesis":"A flexible vortex finder should reduce cyclone pressure fluctuations through passive displacement.","prediction":"A flexible vortex finder should reduce cyclone pressure fluctuations through passive displacement.","test":"Measure pressure spectra.","contrary_outcome":"Finder motion amplifies fluctuations.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0230","id":"S1-0230","volume":"900","title":"A perforated dome should meter granular discharge by bending rather than aperture enlargement alone.","prediction":"A perforated dome should meter granular discharge by bending rather than aperture enlargement alone.","test":"Measure shape and throughput.","contrary":"Throughput follows static area alone.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0230","hypothesis":"A perforated dome should meter granular discharge by bending rather than aperture enlargement alone.","prediction":"A perforated dome should meter granular discharge by bending rather than aperture enlargement alone.","test":"Measure shape and throughput.","contrary_outcome":"Throughput follows static area alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0231","id":"S1-0231","volume":"900","title":"A braided air tube should limit inflation volume through fiber locking.","prediction":"A braided air tube should limit inflation volume through fiber locking.","test":"Measure volume versus pressure.","contrary":"Volume continues increasing without a lock transition.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0231","hypothesis":"A braided air tube should limit inflation volume through fiber locking.","prediction":"A braided air tube should limit inflation volume through fiber locking.","test":"Measure volume versus pressure.","contrary_outcome":"Volume continues increasing without a lock transition.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0232","id":"S1-0232","volume":"900","title":"A capillary comb should estimate surface tension from the count of spontaneously filled teeth.","prediction":"A capillary comb should estimate surface tension from the count of spontaneously filled teeth.","test":"Compare known liquids against independent tensiometry.","contrary":"Counts are dominated by uncontrolled wetting.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0232","hypothesis":"A capillary comb should estimate surface tension from the count of spontaneously filled teeth.","prediction":"A capillary comb should estimate surface tension from the count of spontaneously filled teeth.","test":"Compare known liquids against independent tensiometry.","contrary_outcome":"Counts are dominated by uncontrolled wetting.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0233","id":"S1-0233","volume":"900","title":"A loose bearing liner should average localized wear around its circumference.","prediction":"A loose bearing liner should average localized wear around its circumference.","test":"Map wear after cycling.","contrary":"Wear remains localized.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0233","hypothesis":"A loose bearing liner should average localized wear around its circumference.","prediction":"A loose bearing liner should average localized wear around its circumference.","test":"Map wear after cycling.","contrary_outcome":"Wear remains localized.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0234","id":"S1-0234","volume":"900","title":"A stepped elastic beam should reflect a flexural pulse before it reaches a fragile attachment.","prediction":"A stepped elastic beam should reflect a flexural pulse before it reaches a fragile attachment.","test":"Measure pulse energy at attachment.","contrary":"Reflection fails to reduce transmitted energy.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0234","hypothesis":"A stepped elastic beam should reflect a flexural pulse before it reaches a fragile attachment.","prediction":"A stepped elastic beam should reflect a flexural pulse before it reaches a fragile attachment.","test":"Measure pulse energy at attachment.","contrary_outcome":"Reflection fails to reduce transmitted energy.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0235","id":"S1-0235","volume":"900","title":"A liquid-filled flexible hinge should resist rapid motion more than slow motion without static preload.","prediction":"A liquid-filled flexible hinge should resist rapid motion more than slow motion without static preload.","test":"Measure torque over speeds.","contrary":"Rate selectivity is absent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0235","hypothesis":"A liquid-filled flexible hinge should resist rapid motion more than slow motion without static preload.","prediction":"A liquid-filled flexible hinge should resist rapid motion more than slow motion without static preload.","test":"Measure torque over speeds.","contrary_outcome":"Rate selectivity is absent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0236","id":"S1-0236","volume":"900","title":"A balanced flap should measure low airflow through displacement while rejecting gravitational orientation changes.","prediction":"A balanced flap should measure low airflow through displacement while rejecting gravitational orientation changes.","test":"Rotate instrument under calibrated flow.","contrary":"Orientation error exceeds flow signal.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0236","hypothesis":"A balanced flap should measure low airflow through displacement while rejecting gravitational orientation changes.","prediction":"A balanced flap should measure low airflow through displacement while rejecting gravitational orientation changes.","test":"Rotate instrument under calibrated flow.","contrary_outcome":"Orientation error exceeds flow signal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0237","id":"S1-0237","volume":"900","title":"A corrugated wick should retain transport during bending through protected longitudinal channels.","prediction":"A corrugated wick should retain transport during bending through protected longitudinal channels.","test":"Measure flux versus curvature.","contrary":"Bending blocks channels as in flat controls.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0237","hypothesis":"A corrugated wick should retain transport during bending through protected longitudinal channels.","prediction":"A corrugated wick should retain transport during bending through protected longitudinal channels.","test":"Measure flux versus curvature.","contrary_outcome":"Bending blocks channels as in flat controls.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0237","hypothesis":"A corrugated wick should retain transport during bending through protected longitudinal channels.","prediction":"A corrugated wick should retain transport during bending through protected longitudinal channels.","test":"Measure flux versus curvature.","contrary_outcome":"Bending blocks channels as in flat controls.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":24,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A corrugated wick retain transport during bending through protected longitudinal channels. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0238","id":"S1-0238","volume":"900","title":"A snap-through ring should indicate accumulated wear when its switching force crosses a threshold.","prediction":"A snap-through ring should indicate accumulated wear when its switching force crosses a threshold.","test":"Abrade controlled surfaces and measure thresholds.","contrary":"Switching does not track wear.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0238","hypothesis":"A snap-through ring should indicate accumulated wear when its switching force crosses a threshold.","prediction":"A snap-through ring should indicate accumulated wear when its switching force crosses a threshold.","test":"Abrade controlled surfaces and measure thresholds.","contrary_outcome":"Switching does not track wear.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0239","id":"S1-0239","volume":"900","title":"A submerged hinged plate should limit its own angle through buoyancy redistribution.","prediction":"A submerged hinged plate should limit its own angle through buoyancy redistribution.","test":"Measure equilibrium angle over flow speeds.","contrary":"Angle grows without saturation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0239","hypothesis":"A submerged hinged plate should limit its own angle through buoyancy redistribution.","prediction":"A submerged hinged plate should limit its own angle through buoyancy redistribution.","test":"Measure equilibrium angle over flow speeds.","contrary_outcome":"Angle grows without saturation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0240","id":"S1-0240","volume":"900","title":"A compliant sieve aperture should reject oversized particles by closing under their contact force.","prediction":"A compliant sieve aperture should reject oversized particles by closing under their contact force.","test":"Track inert particle passage.","contrary":"Large particles force apertures open.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0240","hypothesis":"A compliant sieve aperture should reject oversized particles by closing under their contact force.","prediction":"A compliant sieve aperture should reject oversized particles by closing under their contact force.","test":"Track inert particle passage.","contrary_outcome":"Large particles force apertures open.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0241","id":"S1-0241","volume":"900","title":"A curved liquid reservoir should passively compensate meniscus height against instrument tilt.","prediction":"A curved liquid reservoir should passively compensate meniscus height against instrument tilt.","test":"Measure optical reading across angles.","contrary":"Tilt bias remains unchanged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0241","hypothesis":"A curved liquid reservoir should passively compensate meniscus height against instrument tilt.","prediction":"A curved liquid reservoir should passively compensate meniscus height against instrument tilt.","test":"Measure optical reading across angles.","contrary_outcome":"Tilt bias remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0242","id":"S1-0242","volume":"900","title":"An elastic spoke wheel should transmit less shock when opposite spokes exchange tension sequentially.","prediction":"An elastic spoke wheel should transmit less shock when opposite spokes exchange tension sequentially.","test":"Measure axle acceleration.","contrary":"Sequential exchange adds no attenuation.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0242","hypothesis":"An elastic spoke wheel should transmit less shock when opposite spokes exchange tension sequentially.","prediction":"An elastic spoke wheel should transmit less shock when opposite spokes exchange tension sequentially.","test":"Measure axle acceleration.","contrary_outcome":"Sequential exchange adds no attenuation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0243","id":"S1-0243","volume":"900","title":"A pressure-fed cushion should remain stable on a slightly porous floor when its feed resistance is distributed.","prediction":"A pressure-fed cushion should remain stable on a slightly porous floor when its feed resistance is distributed.","test":"Measure gap fluctuations.","contrary":"Distributed feed cannot prevent collapse.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0243","hypothesis":"A pressure-fed cushion should remain stable on a slightly porous floor when its feed resistance is distributed.","prediction":"A pressure-fed cushion should remain stable on a slightly porous floor when its feed resistance is distributed.","test":"Measure gap fluctuations.","contrary_outcome":"Distributed feed cannot prevent collapse.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0244","id":"S1-0244","volume":"900","title":"A folded damping strip should change loss factor with vibration amplitude through frictional self-contact.","prediction":"A folded damping strip should change loss factor with vibration amplitude through frictional self-contact.","test":"Measure free-decay envelopes.","contrary":"Loss is amplitude-independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0244","hypothesis":"A folded damping strip should change loss factor with vibration amplitude through frictional self-contact.","prediction":"A folded damping strip should change loss factor with vibration amplitude through frictional self-contact.","test":"Measure free-decay envelopes.","contrary_outcome":"Loss is amplitude-independent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0245","id":"S1-0245","volume":"900","title":"A soft retaining lip should distinguish insertion from extraction through rolling contact reversal.","prediction":"A soft retaining lip should distinguish insertion from extraction through rolling contact reversal.","test":"Measure directional forces.","contrary":"Forces remain symmetric.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0245","hypothesis":"A soft retaining lip should distinguish insertion from extraction through rolling contact reversal.","prediction":"A soft retaining lip should distinguish insertion from extraction through rolling contact reversal.","test":"Measure directional forces.","contrary_outcome":"Forces remain symmetric.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0246","id":"S1-0246","volume":"900","title":"A hollow pendulum should reveal a tiny leak through a change in its amplitude-dependent frequency.","prediction":"A hollow pendulum should reveal a tiny leak through a change in its amplitude-dependent frequency.","test":"Compare sealed and calibrated-leak states.","contrary":"Leak signal cannot exceed baseline drift.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0246","hypothesis":"A hollow pendulum should reveal a tiny leak through a change in its amplitude-dependent frequency.","prediction":"A hollow pendulum should reveal a tiny leak through a change in its amplitude-dependent frequency.","test":"Compare sealed and calibrated-leak states.","contrary_outcome":"Leak signal cannot exceed baseline drift.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0246","hypothesis":"A hollow pendulum should reveal a tiny leak through a change in its amplitude-dependent frequency.","prediction":"A hollow pendulum should reveal a tiny leak through a change in its amplitude-dependent frequency.","test":"Compare sealed and calibrated-leak states.","contrary_outcome":"Leak signal cannot exceed baseline drift.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":25,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A hollow pendulum reveal a tiny leak through a change in its amplitude-dependent frequency. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0247","id":"S1-0247","volume":"900","title":"A bifurcated jet should rebalance itself when a flexible divider senses unequal reaction forces.","prediction":"A bifurcated jet should rebalance itself when a flexible divider senses unequal reaction forces.","test":"Measure outlet momentum imbalance.","contrary":"Divider motion increases imbalance.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0247","hypothesis":"A bifurcated jet should rebalance itself when a flexible divider senses unequal reaction forces.","prediction":"A bifurcated jet should rebalance itself when a flexible divider senses unequal reaction forces.","test":"Measure outlet momentum imbalance.","contrary_outcome":"Divider motion increases imbalance.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0248","id":"S1-0248","volume":"900","title":"A floating dome should prevent drain vortex ingestion by covering the low-pressure surface depression.","prediction":"A floating dome should prevent drain vortex ingestion by covering the low-pressure surface depression.","test":"Measure ingested air volume.","contrary":"Dome does not reduce ingestion.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0248","hypothesis":"A floating dome should prevent drain vortex ingestion by covering the low-pressure surface depression.","prediction":"A floating dome should prevent drain vortex ingestion by covering the low-pressure surface depression.","test":"Measure ingested air volume.","contrary_outcome":"Dome does not reduce ingestion.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0249","id":"S1-0249","volume":"900","title":"A zigzag flexure should amplify thermal expansion while canceling lateral translation.","prediction":"A zigzag flexure should amplify thermal expansion while canceling lateral translation.","test":"Measure two-axis displacement.","contrary":"Lateral error scales with useful output.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0249","hypothesis":"A zigzag flexure should amplify thermal expansion while canceling lateral translation.","prediction":"A zigzag flexure should amplify thermal expansion while canceling lateral translation.","test":"Measure two-axis displacement.","contrary_outcome":"Lateral error scales with useful output.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0250","id":"S1-0250","volume":"900","title":"A recessed groove should preserve a wetting path across a mechanically abraded surface.","prediction":"A recessed groove should preserve a wetting path across a mechanically abraded surface.","test":"Measure transport after abrasion.","contrary":"Abrasion interrupts transport equally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0250","hypothesis":"A recessed groove should preserve a wetting path across a mechanically abraded surface.","prediction":"A recessed groove should preserve a wetting path across a mechanically abraded surface.","test":"Measure transport after abrasion.","contrary_outcome":"Abrasion interrupts transport equally.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0251","id":"S1-0251","volume":"900","title":"A passive hinge brake should release at low speed after its contact heats during sustained motion.","prediction":"A passive hinge brake should release at low speed after its contact heats during sustained motion.","test":"Measure torque and contact temperature.","contrary":"Torque remains insensitive to thermal state.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0251","hypothesis":"A passive hinge brake should release at low speed after its contact heats during sustained motion.","prediction":"A passive hinge brake should release at low speed after its contact heats during sustained motion.","test":"Measure torque and contact temperature.","contrary_outcome":"Torque remains insensitive to thermal state.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0252","id":"S1-0252","volume":"900","title":"A thin annular float should resolve density change through vertical displacement while rejecting liquid-level change differentially.","prediction":"A thin annular float should resolve density change through vertical displacement while rejecting liquid-level change differentially.","test":"Compare paired level/density perturbations.","contrary":"Signals cannot be separated.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0252","hypothesis":"A thin annular float should resolve density change through vertical displacement while rejecting liquid-level change differentially.","prediction":"A thin annular float should resolve density change through vertical displacement while rejecting liquid-level change differentially.","test":"Compare paired level/density perturbations.","contrary_outcome":"Signals cannot be separated.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0253","id":"S1-0253","volume":"900","title":"A corrugated pipe wall should reduce water-hammer peaks through controlled radial unfolding.","prediction":"A corrugated pipe wall should reduce water-hammer peaks through controlled radial unfolding.","test":"Measure transient pressure and wall motion.","contrary":"Unfolding fails to reduce peaks.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0253","hypothesis":"A corrugated pipe wall should reduce water-hammer peaks through controlled radial unfolding.","prediction":"A corrugated pipe wall should reduce water-hammer peaks through controlled radial unfolding.","test":"Measure transient pressure and wall motion.","contrary_outcome":"Unfolding fails to reduce peaks.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0254","id":"S1-0254","volume":"900","title":"A spring-mounted magnet array should self-adjust its gap to maintain nearly constant holding force.","prediction":"A spring-mounted magnet array should self-adjust its gap to maintain nearly constant holding force.","test":"Measure pull force versus gap.","contrary":"Force varies steeply as in fixed arrays.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0254","hypothesis":"A spring-mounted magnet array should self-adjust its gap to maintain nearly constant holding force.","prediction":"A spring-mounted magnet array should self-adjust its gap to maintain nearly constant holding force.","test":"Measure pull force versus gap.","contrary_outcome":"Force varies steeply as in fixed arrays.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0255","id":"S1-0255","volume":"900","title":"A slanted capillary ridge should guide a condensing droplet toward a colder collection zone.","prediction":"A slanted capillary ridge should guide a condensing droplet toward a colder collection zone.","test":"Image transport under uniform gravity.","contrary":"Drops remain pinned or move randomly.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0255","hypothesis":"A slanted capillary ridge should guide a condensing droplet toward a colder collection zone.","prediction":"A slanted capillary ridge should guide a condensing droplet toward a colder collection zone.","test":"Image transport under uniform gravity.","contrary_outcome":"Drops remain pinned or move randomly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0256","id":"S1-0256","volume":"900","title":"A compliant mechanical diode should transmit slow compression while releasing under rapid compression.","prediction":"A compliant mechanical diode should transmit slow compression while releasing under rapid compression.","test":"Measure response across loading rates.","contrary":"Directionality depends only on force magnitude.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0256","hypothesis":"A compliant mechanical diode should transmit slow compression while releasing under rapid compression.","prediction":"A compliant mechanical diode should transmit slow compression while releasing under rapid compression.","test":"Measure response across loading rates.","contrary_outcome":"Directionality depends only on force magnitude.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0257","id":"S1-0257","volume":"900","title":"A rotating perforated sleeve should calibrate optical turbidity by periodically exposing a clear reference path.","prediction":"A rotating perforated sleeve should calibrate optical turbidity by periodically exposing a clear reference path.","test":"Compare drift with continuous measurement.","contrary":"Reference switching does not improve accuracy.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0257","hypothesis":"A rotating perforated sleeve should calibrate optical turbidity by periodically exposing a clear reference path.","prediction":"A rotating perforated sleeve should calibrate optical turbidity by periodically exposing a clear reference path.","test":"Compare drift with continuous measurement.","contrary_outcome":"Reference switching does not improve accuracy.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0258","id":"S1-0258","volume":"900","title":"A flexible partition should reduce mixing from abrupt flow startup by absorbing initial momentum.","prediction":"A flexible partition should reduce mixing from abrupt flow startup by absorbing initial momentum.","test":"Image dyed interfaces.","contrary":"Mixing remains unchanged.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0258","hypothesis":"A flexible partition should reduce mixing from abrupt flow startup by absorbing initial momentum.","prediction":"A flexible partition should reduce mixing from abrupt flow startup by absorbing initial momentum.","test":"Image dyed interfaces.","contrary_outcome":"Mixing remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0259","id":"S1-0259","volume":"900","title":"A curved friction pad should self-release under excessive torque through local peeling.","prediction":"A curved friction pad should self-release under excessive torque through local peeling.","test":"Measure torque and contact area.","contrary":"Pad locks harder instead.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0259","hypothesis":"A curved friction pad should self-release under excessive torque through local peeling.","prediction":"A curved friction pad should self-release under excessive torque through local peeling.","test":"Measure torque and contact area.","contrary_outcome":"Pad locks harder instead.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0260","id":"S1-0260","volume":"900","title":"A buoyant cam should transform rising water level into nearly constant spring tension.","prediction":"A buoyant cam should transform rising water level into nearly constant spring tension.","test":"Measure tension over level.","contrary":"Tension varies as in a direct linkage.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0260","hypothesis":"A buoyant cam should transform rising water level into nearly constant spring tension.","prediction":"A buoyant cam should transform rising water level into nearly constant spring tension.","test":"Measure tension over level.","contrary_outcome":"Tension varies as in a direct linkage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0261","id":"S1-0261","volume":"900","title":"A vented lattice should survive repeated vacuum release with less permanent distortion than sealed cells.","prediction":"A vented lattice should survive repeated vacuum release with less permanent distortion than sealed cells.","test":"Measure shape after pressure cycles.","contrary":"Venting provides no improvement.","layers":[1,2],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0261","hypothesis":"A vented lattice should survive repeated vacuum release with less permanent distortion than sealed cells.","prediction":"A vented lattice should survive repeated vacuum release with less permanent distortion than sealed cells.","test":"Measure shape after pressure cycles.","contrary_outcome":"Venting provides no improvement.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0261","hypothesis":"A vented lattice should survive repeated vacuum release with less permanent distortion than sealed cells.","prediction":"A vented lattice should survive repeated vacuum release with less permanent distortion than sealed cells.","test":"Measure shape after pressure cycles.","contrary_outcome":"Venting provides no improvement.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":26,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A vented lattice survive repeated vacuum release with less permanent distortion than sealed cells. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0262","id":"S1-0262","volume":"900","title":"A soft annular resonator should detect localized contact by splitting formerly degenerate vibration modes.","prediction":"A soft annular resonator should detect localized contact by splitting formerly degenerate vibration modes.","test":"Apply known point contacts.","contrary":"Splitting cannot distinguish contact location.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0262","hypothesis":"A soft annular resonator should detect localized contact by splitting formerly degenerate vibration modes.","prediction":"A soft annular resonator should detect localized contact by splitting formerly degenerate vibration modes.","test":"Apply known point contacts.","contrary_outcome":"Splitting cannot distinguish contact location.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0263","id":"S1-0263","volume":"900","title":"A narrow side groove should capture stray droplets before they bridge adjacent electrical-free optical channels.","prediction":"A narrow side groove should capture stray droplets before they bridge adjacent electrical-free optical channels.","test":"Image controlled condensation.","contrary":"Droplets bridge channels despite groove storage.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0263","hypothesis":"A narrow side groove should capture stray droplets before they bridge adjacent electrical-free optical channels.","prediction":"A narrow side groove should capture stray droplets before they bridge adjacent electrical-free optical channels.","test":"Image controlled condensation.","contrary_outcome":"Droplets bridge channels despite groove storage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0264","id":"S1-0264","volume":"900","title":"A flexible scoop should reduce granular crushing by retreating under local overload.","prediction":"A flexible scoop should reduce granular crushing by retreating under local overload.","test":"Measure particle breakage and throughput.","contrary":"Breakage is unchanged at matched throughput.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0264","hypothesis":"A flexible scoop should reduce granular crushing by retreating under local overload.","prediction":"A flexible scoop should reduce granular crushing by retreating under local overload.","test":"Measure particle breakage and throughput.","contrary_outcome":"Breakage is unchanged at matched throughput.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0265","id":"S1-0265","volume":"900","title":"A winding capillary should encode acceleration direction through differential wetting of opposing arms.","prediction":"A winding capillary should encode acceleration direction through differential wetting of opposing arms.","test":"Apply directional acceleration pulses.","contrary":"Wetting is dominated by uncontrolled initial state.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0265","hypothesis":"A winding capillary should encode acceleration direction through differential wetting of opposing arms.","prediction":"A winding capillary should encode acceleration direction through differential wetting of opposing arms.","test":"Apply directional acceleration pulses.","contrary_outcome":"Wetting is dominated by uncontrolled initial state.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0266","id":"S1-0266","volume":"900","title":"A spring-tensioned mesh should clean itself when release launches lodged particles.","prediction":"A spring-tensioned mesh should clean itself when release launches lodged particles.","test":"Measure retained inert particles after unloading.","contrary":"Unloading does not dislodge particles.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0266","hypothesis":"A spring-tensioned mesh should clean itself when release launches lodged particles.","prediction":"A spring-tensioned mesh should clean itself when release launches lodged particles.","test":"Measure retained inert particles after unloading.","contrary_outcome":"Unloading does not dislodge particles.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0267","id":"S1-0267","volume":"900","title":"A tapered pneumatic chamber should bend progressively from its narrow end under inflation.","prediction":"A tapered pneumatic chamber should bend progressively from its narrow end under inflation.","test":"Image curvature distribution.","contrary":"Bending nucleates unpredictably.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0267","hypothesis":"A tapered pneumatic chamber should bend progressively from its narrow end under inflation.","prediction":"A tapered pneumatic chamber should bend progressively from its narrow end under inflation.","test":"Image curvature distribution.","contrary_outcome":"Bending nucleates unpredictably.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0268","id":"S1-0268","volume":"900","title":"A pivoting drain screen should clear leaves analogues when flow torque exceeds a threshold.","prediction":"A pivoting drain screen should clear leaves analogues when flow torque exceeds a threshold.","test":"Use standardized inert flakes.","contrary":"Screen remains blocked or opens too early.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0268","hypothesis":"A pivoting drain screen should clear leaves analogues when flow torque exceeds a threshold.","prediction":"A pivoting drain screen should clear leaves analogues when flow torque exceeds a threshold.","test":"Use standardized inert flakes.","contrary_outcome":"Screen remains blocked or opens too early.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0269","id":"S1-0269","volume":"900","title":"A cross-braced membrane should suppress large wrinkles while retaining local indentation compliance.","prediction":"A cross-braced membrane should suppress large wrinkles while retaining local indentation compliance.","test":"Map shape and indentation force.","contrary":"Wrinkle suppression requires major stiffness increase.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0269","hypothesis":"A cross-braced membrane should suppress large wrinkles while retaining local indentation compliance.","prediction":"A cross-braced membrane should suppress large wrinkles while retaining local indentation compliance.","test":"Map shape and indentation force.","contrary_outcome":"Wrinkle suppression requires major stiffness increase.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0270","id":"S1-0270","volume":"900","title":"A capillary reservoir should limit humidity-sensor condensation by collecting liquid away from the sensing gap.","prediction":"A capillary reservoir should limit humidity-sensor condensation by collecting liquid away from the sensing gap.","test":"Measure recovery after cooling.","contrary":"Recovery is unchanged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0270","hypothesis":"A capillary reservoir should limit humidity-sensor condensation by collecting liquid away from the sensing gap.","prediction":"A capillary reservoir should limit humidity-sensor condensation by collecting liquid away from the sensing gap.","test":"Measure recovery after cooling.","contrary_outcome":"Recovery is unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0271","id":"S1-0271","volume":"900","title":"A rolling spring contact should reduce electrical-free mechanical hysteresis in a displacement transducer.","prediction":"A rolling spring contact should reduce electrical-free mechanical hysteresis in a displacement transducer.","test":"Measure force-position loops.","contrary":"Rolling adds comparable hysteresis.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0271","hypothesis":"A rolling spring contact should reduce electrical-free mechanical hysteresis in a displacement transducer.","prediction":"A rolling spring contact should reduce electrical-free mechanical hysteresis in a displacement transducer.","test":"Measure force-position loops.","contrary_outcome":"Rolling adds comparable hysteresis.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0272","id":"S1-0272","volume":"900","title":"A compliant ballast pouch should lower a vessel's center of gravity during heel.","prediction":"A compliant ballast pouch should lower a vessel's center of gravity during heel.","test":"Measure ballast position and restoring torque.","contrary":"Ballast moves in the destabilizing direction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0272","hypothesis":"A compliant ballast pouch should lower a vessel's center of gravity during heel.","prediction":"A compliant ballast pouch should lower a vessel's center of gravity during heel.","test":"Measure ballast position and restoring torque.","contrary_outcome":"Ballast moves in the destabilizing direction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0273","id":"S1-0273","volume":"900","title":"A telescoping drain tube should maintain siphon flow as reservoir level falls.","prediction":"A telescoping drain tube should maintain siphon flow as reservoir level falls.","test":"Measure flow against fixed-tube control.","contrary":"Telescoping causes early air entry.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0273","hypothesis":"A telescoping drain tube should maintain siphon flow as reservoir level falls.","prediction":"A telescoping drain tube should maintain siphon flow as reservoir level falls.","test":"Measure flow against fixed-tube control.","contrary_outcome":"Telescoping causes early air entry.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0274","id":"S1-0274","volume":"900","title":"A patterned support bed should reduce membrane adhesion by admitting peeling air sequentially.","prediction":"A patterned support bed should reduce membrane adhesion by admitting peeling air sequentially.","test":"Measure release force and front motion.","contrary":"Air admission does not reduce force.","layers":[1,2],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0274","hypothesis":"A patterned support bed should reduce membrane adhesion by admitting peeling air sequentially.","prediction":"A patterned support bed should reduce membrane adhesion by admitting peeling air sequentially.","test":"Measure release force and front motion.","contrary_outcome":"Air admission does not reduce force.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0274","hypothesis":"A patterned support bed should reduce membrane adhesion by admitting peeling air sequentially.","prediction":"A patterned support bed should reduce membrane adhesion by admitting peeling air sequentially.","test":"Measure release force and front motion.","contrary_outcome":"Air admission does not reduce force.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":27,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A patterned support bed reduce membrane adhesion by admitting peeling air sequentially. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0275","id":"S1-0275","volume":"900","title":"A flexural rocking oscillator should average support-height errors through alternating contacts.","prediction":"A flexural rocking oscillator should average support-height errors through alternating contacts.","test":"Measure frequency across surface irregularities.","contrary":"Frequency remains surface-sensitive.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0275","hypothesis":"A flexural rocking oscillator should average support-height errors through alternating contacts.","prediction":"A flexural rocking oscillator should average support-height errors through alternating contacts.","test":"Measure frequency across surface irregularities.","contrary_outcome":"Frequency remains surface-sensitive.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0276","id":"S1-0276","volume":"900","title":"A capillary pressure pulse should sort identical droplets by their prior evaporation history.","prediction":"A capillary pressure pulse should sort identical droplets by their prior evaporation history.","test":"Track release thresholds after known dwell times.","contrary":"Threshold does not encode evaporation history.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0276","hypothesis":"A capillary pressure pulse should sort identical droplets by their prior evaporation history.","prediction":"A capillary pressure pulse should sort identical droplets by their prior evaporation history.","test":"Track release thresholds after known dwell times.","contrary_outcome":"Threshold does not encode evaporation history.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0277","id":"S1-0277","volume":"900","title":"A porous fin should reduce wake drag only above a flow threshold where through-flow reorganizes separation.","prediction":"A porous fin should reduce wake drag only above a flow threshold where through-flow reorganizes separation.","test":"Measure drag and wake fields.","contrary":"No threshold-dependent benefit appears.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0277","hypothesis":"A porous fin should reduce wake drag only above a flow threshold where through-flow reorganizes separation.","prediction":"A porous fin should reduce wake drag only above a flow threshold where through-flow reorganizes separation.","test":"Measure drag and wake fields.","contrary_outcome":"No threshold-dependent benefit appears.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0278","id":"S1-0278","volume":"900","title":"An elastic collar should lock a telescoping rod under bending while allowing axial adjustment when straight.","prediction":"An elastic collar should lock a telescoping rod under bending while allowing axial adjustment when straight.","test":"Measure slip force versus curvature.","contrary":"Locking does not depend on curvature.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0278","hypothesis":"An elastic collar should lock a telescoping rod under bending while allowing axial adjustment when straight.","prediction":"An elastic collar should lock a telescoping rod under bending while allowing axial adjustment when straight.","test":"Measure slip force versus curvature.","contrary_outcome":"Locking does not depend on curvature.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0279","id":"S1-0279","volume":"900","title":"A segmented reflector should preserve beam focus during support bending through hinge rotation.","prediction":"A segmented reflector should preserve beam focus during support bending through hinge rotation.","test":"Measure focal spot against rigid control.","contrary":"Hinges worsen spot broadening.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0279","hypothesis":"A segmented reflector should preserve beam focus during support bending through hinge rotation.","prediction":"A segmented reflector should preserve beam focus during support bending through hinge rotation.","test":"Measure focal spot against rigid control.","contrary_outcome":"Hinges worsen spot broadening.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0280","id":"S1-0280","volume":"900","title":"A flexible floor in a granular hopper should prevent stable arches through load-driven local deflection.","prediction":"A flexible floor in a granular hopper should prevent stable arches through load-driven local deflection.","test":"Measure clog frequency without external vibration.","contrary":"Clogs persist.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0280","hypothesis":"A flexible floor in a granular hopper should prevent stable arches through load-driven local deflection.","prediction":"A flexible floor in a granular hopper should prevent stable arches through load-driven local deflection.","test":"Measure clog frequency without external vibration.","contrary_outcome":"Clogs persist.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0281","id":"S1-0281","volume":"900","title":"A sealed air spring should sense ambient pressure via its resonance after temperature correction.","prediction":"A sealed air spring should sense ambient pressure via its resonance after temperature correction.","test":"Calibrate resonance against pressure.","contrary":"Residual thermal effects prevent pressure inference.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0281","hypothesis":"A sealed air spring should sense ambient pressure via its resonance after temperature correction.","prediction":"A sealed air spring should sense ambient pressure via its resonance after temperature correction.","test":"Calibrate resonance against pressure.","contrary_outcome":"Residual thermal effects prevent pressure inference.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0282","id":"S1-0282","volume":"900","title":"A hinged capillary bridge support should open automatically after liquid depletion.","prediction":"A hinged capillary bridge support should open automatically after liquid depletion.","test":"Measure opening versus residual volume.","contrary":"Support opens unpredictably.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0282","hypothesis":"A hinged capillary bridge support should open automatically after liquid depletion.","prediction":"A hinged capillary bridge support should open automatically after liquid depletion.","test":"Measure opening versus residual volume.","contrary_outcome":"Support opens unpredictably.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0283","id":"S1-0283","volume":"900","title":"A twisted filament bundle should resist torsional creep when filaments can exchange radial positions.","prediction":"A twisted filament bundle should resist torsional creep when filaments can exchange radial positions.","test":"Measure long-term twist.","contrary":"Radial exchange increases creep.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0283","hypothesis":"A twisted filament bundle should resist torsional creep when filaments can exchange radial positions.","prediction":"A twisted filament bundle should resist torsional creep when filaments can exchange radial positions.","test":"Measure long-term twist.","contrary_outcome":"Radial exchange increases creep.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0284","id":"S1-0284","volume":"900","title":"A liquid-backed seal should distribute contact load around small surface defects.","prediction":"A liquid-backed seal should distribute contact load around small surface defects.","test":"Map pressure and leakage over calibrated notches.","contrary":"Defects remain dominant leak paths.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0284","hypothesis":"A liquid-backed seal should distribute contact load around small surface defects.","prediction":"A liquid-backed seal should distribute contact load around small surface defects.","test":"Map pressure and leakage over calibrated notches.","contrary_outcome":"Defects remain dominant leak paths.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0285","id":"S1-0285","volume":"900","title":"A mass-balanced compliant gate should isolate low-frequency base motion from its closing threshold.","prediction":"A mass-balanced compliant gate should isolate low-frequency base motion from its closing threshold.","test":"Measure threshold during support vibration.","contrary":"Threshold shifts significantly.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0285","hypothesis":"A mass-balanced compliant gate should isolate low-frequency base motion from its closing threshold.","prediction":"A mass-balanced compliant gate should isolate low-frequency base motion from its closing threshold.","test":"Measure threshold during support vibration.","contrary_outcome":"Threshold shifts significantly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0286","id":"S1-0286","volume":"900","title":"A porous suspended plate should attenuate pressure fluctuations while passing mean liquid flow.","prediction":"A porous suspended plate should attenuate pressure fluctuations while passing mean liquid flow.","test":"Measure pressure transfer and mean loss.","contrary":"Attenuation requires prohibitive mean loss.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0286","hypothesis":"A porous suspended plate should attenuate pressure fluctuations while passing mean liquid flow.","prediction":"A porous suspended plate should attenuate pressure fluctuations while passing mean liquid flow.","test":"Measure pressure transfer and mean loss.","contrary_outcome":"Attenuation requires prohibitive mean loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0286","hypothesis":"A porous suspended plate should attenuate pressure fluctuations while passing mean liquid flow.","prediction":"A porous suspended plate should attenuate pressure fluctuations while passing mean liquid flow.","test":"Measure pressure transfer and mean loss.","contrary_outcome":"Attenuation requires prohibitive mean loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":28,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A porous suspended plate attenuate pressure fluctuations while passing mean liquid flow. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0287","id":"S1-0287","volume":"900","title":"A tapered elastic rib should prevent fold localization during repeated soft-tube collapse.","prediction":"A tapered elastic rib should prevent fold localization during repeated soft-tube collapse.","test":"Image curvature over cycles.","contrary":"One persistent kink still dominates.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0287","hypothesis":"A tapered elastic rib should prevent fold localization during repeated soft-tube collapse.","prediction":"A tapered elastic rib should prevent fold localization during repeated soft-tube collapse.","test":"Image curvature over cycles.","contrary_outcome":"One persistent kink still dominates.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0288","id":"S1-0288","volume":"900","title":"A passive spiral track should convert random bead motion into outward accumulation under unbiased shaking.","prediction":"A passive spiral track should convert random bead motion into outward accumulation under unbiased shaking.","test":"Measure radial probability distributions.","contrary":"Accumulation equals a symmetric control.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0288","hypothesis":"A passive spiral track should convert random bead motion into outward accumulation under unbiased shaking.","prediction":"A passive spiral track should convert random bead motion into outward accumulation under unbiased shaking.","test":"Measure radial probability distributions.","contrary_outcome":"Accumulation equals a symmetric control.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0289","id":"S1-0289","volume":"900","title":"A pressure-compensated bubble trap should retain collection capacity across changing backpressure.","prediction":"A pressure-compensated bubble trap should retain collection capacity across changing backpressure.","test":"Measure trapped-gas volume.","contrary":"Capacity declines as in a rigid trap.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0289","hypothesis":"A pressure-compensated bubble trap should retain collection capacity across changing backpressure.","prediction":"A pressure-compensated bubble trap should retain collection capacity across changing backpressure.","test":"Measure trapped-gas volume.","contrary_outcome":"Capacity declines as in a rigid trap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0290","id":"S1-0290","volume":"900","title":"A spring-mounted cutting-free divider should separate granular streams without accumulating a stagnant wedge.","prediction":"A spring-mounted cutting-free divider should separate granular streams without accumulating a stagnant wedge.","test":"Image velocities and buildup.","contrary":"Wedge growth persists.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0290","hypothesis":"A spring-mounted cutting-free divider should separate granular streams without accumulating a stagnant wedge.","prediction":"A spring-mounted cutting-free divider should separate granular streams without accumulating a stagnant wedge.","test":"Image velocities and buildup.","contrary_outcome":"Wedge growth persists.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0291","id":"S1-0291","volume":"900","title":"A corrugated diaphragm should generate a diagnostic overtone when a local crack first opens.","prediction":"A corrugated diaphragm should generate a diagnostic overtone when a local crack first opens.","test":"Record vibration and inspect crack growth.","contrary":"Overtone appears only after gross failure.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0291","hypothesis":"A corrugated diaphragm should generate a diagnostic overtone when a local crack first opens.","prediction":"A corrugated diaphragm should generate a diagnostic overtone when a local crack first opens.","test":"Record vibration and inspect crack growth.","contrary_outcome":"Overtone appears only after gross failure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0291","hypothesis":"A corrugated diaphragm should generate a diagnostic overtone when a local crack first opens.","prediction":"A corrugated diaphragm should generate a diagnostic overtone when a local crack first opens.","test":"Record vibration and inspect crack growth.","contrary_outcome":"Overtone appears only after gross failure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":29,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A corrugated diaphragm generate a diagnostic overtone when a local crack first opens. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0292","id":"S1-0292","volume":"900","title":"A flexible floating fence should redirect surface contamination toward a skimmer under changing current direction.","prediction":"A flexible floating fence should redirect surface contamination toward a skimmer under changing current direction.","test":"Track inert tracers.","contrary":"Capture collapses during reversal.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0292","hypothesis":"A flexible floating fence should redirect surface contamination toward a skimmer under changing current direction.","prediction":"A flexible floating fence should redirect surface contamination toward a skimmer under changing current direction.","test":"Track inert tracers.","contrary_outcome":"Capture collapses during reversal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0293","id":"S1-0293","volume":"900","title":"A capillary-fed hinge should stiffen when dry through loss of liquid lubrication.","prediction":"A capillary-fed hinge should stiffen when dry through loss of liquid lubrication.","test":"Measure torque against liquid content.","contrary":"Stiffness does not track drying.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0293","hypothesis":"A capillary-fed hinge should stiffen when dry through loss of liquid lubrication.","prediction":"A capillary-fed hinge should stiffen when dry through loss of liquid lubrication.","test":"Measure torque against liquid content.","contrary_outcome":"Stiffness does not track drying.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0294","id":"S1-0294","volume":"900","title":"A loose cylindrical insert should suppress bottle glugging through an independent air-return path.","prediction":"A loose cylindrical insert should suppress bottle glugging through an independent air-return path.","test":"Measure discharge pulsation.","contrary":"Pulsation remains unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0294","hypothesis":"A loose cylindrical insert should suppress bottle glugging through an independent air-return path.","prediction":"A loose cylindrical insert should suppress bottle glugging through an independent air-return path.","test":"Measure discharge pulsation.","contrary_outcome":"Pulsation remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0295","id":"S1-0295","volume":"900","title":"A slotted thermal sleeve should reduce gradient-induced bending by permitting differential expansion.","prediction":"A slotted thermal sleeve should reduce gradient-induced bending by permitting differential expansion.","test":"Measure curvature under one-sided heating.","contrary":"Slots provide no reduction.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0295","hypothesis":"A slotted thermal sleeve should reduce gradient-induced bending by permitting differential expansion.","prediction":"A slotted thermal sleeve should reduce gradient-induced bending by permitting differential expansion.","test":"Measure curvature under one-sided heating.","contrary_outcome":"Slots provide no reduction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0296","id":"S1-0296","volume":"900","title":"A compliant spiral pad should spread compression progressively from center to rim.","prediction":"A compliant spiral pad should spread compression progressively from center to rim.","test":"Map contact area.","contrary":"Contact grows irregularly or rim-first.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0296","hypothesis":"A compliant spiral pad should spread compression progressively from center to rim.","prediction":"A compliant spiral pad should spread compression progressively from center to rim.","test":"Map contact area.","contrary_outcome":"Contact grows irregularly or rim-first.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0297","id":"S1-0297","volume":"900","title":"A moving porous partition should equalize pressure between gas chambers while filtering rapid pulses.","prediction":"A moving porous partition should equalize pressure between gas chambers while filtering rapid pulses.","test":"Measure static equalization and transient transfer.","contrary":"Timescale separation is absent.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0297","hypothesis":"A moving porous partition should equalize pressure between gas chambers while filtering rapid pulses.","prediction":"A moving porous partition should equalize pressure between gas chambers while filtering rapid pulses.","test":"Measure static equalization and transient transfer.","contrary_outcome":"Timescale separation is absent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0297","hypothesis":"A moving porous partition should equalize pressure between gas chambers while filtering rapid pulses.","prediction":"A moving porous partition should equalize pressure between gas chambers while filtering rapid pulses.","test":"Measure static equalization and transient transfer.","contrary_outcome":"Timescale separation is absent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":30,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A moving porous partition equalize pressure between gas chambers while filtering rapid pulses. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0298","id":"S1-0298","volume":"900","title":"A split tether should estimate wave steepness from tension asymmetry rather than absolute tension.","prediction":"A split tether should estimate wave steepness from tension asymmetry rather than absolute tension.","test":"Compare with optical wave profiles.","contrary":"Asymmetry cannot predict steepness.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0298","hypothesis":"A split tether should estimate wave steepness from tension asymmetry rather than absolute tension.","prediction":"A split tether should estimate wave steepness from tension asymmetry rather than absolute tension.","test":"Compare with optical wave profiles.","contrary_outcome":"Asymmetry cannot predict steepness.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0299","id":"S1-0299","volume":"900","title":"A tapered hanging film should select one stable flutter mode over a broad flow range.","prediction":"A tapered hanging film should select one stable flutter mode over a broad flow range.","test":"Measure modal spectra.","contrary":"Frequent mode switching persists.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0299","hypothesis":"A tapered hanging film should select one stable flutter mode over a broad flow range.","prediction":"A tapered hanging film should select one stable flutter mode over a broad flow range.","test":"Measure modal spectra.","contrary_outcome":"Frequent mode switching persists.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0300","id":"S1-0300","volume":"900","title":"A passive double hinge should eliminate geometric dead zones in a force indicator.","prediction":"A passive double hinge should eliminate geometric dead zones in a force indicator.","test":"Calibrate force through full stroke.","contrary":"Dead zones remain.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0300","hypothesis":"A passive double hinge should eliminate geometric dead zones in a force indicator.","prediction":"A passive double hinge should eliminate geometric dead zones in a force indicator.","test":"Calibrate force through full stroke.","contrary_outcome":"Dead zones remain.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0301","id":"S1-0301","volume":"900","title":"A compliant wheel hub should filter road shocks through controlled ovalization.","prediction":"A compliant wheel hub should filter road shocks through controlled ovalization.","test":"Measure hub shape and axle acceleration.","contrary":"Ovalization gives no attenuation.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0301","hypothesis":"A compliant wheel hub should filter road shocks through controlled ovalization.","prediction":"A compliant wheel hub should filter road shocks through controlled ovalization.","test":"Measure hub shape and axle acceleration.","contrary_outcome":"Ovalization gives no attenuation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0302","id":"S1-0302","volume":"900","title":"A capillary trench should delay corrosion-free salt crystallization at an optical window by relocating evaporation.","prediction":"A capillary trench should delay corrosion-free salt crystallization at an optical window by relocating evaporation.","test":"Image inert salt deposits.","contrary":"Deposits remain on window.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0302","hypothesis":"A capillary trench should delay corrosion-free salt crystallization at an optical window by relocating evaporation.","prediction":"A capillary trench should delay corrosion-free salt crystallization at an optical window by relocating evaporation.","test":"Image inert salt deposits.","contrary_outcome":"Deposits remain on window.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0303","id":"S1-0303","volume":"900","title":"A flexible gas separator should release bubbles selectively when buoyancy bends its outlet open.","prediction":"A flexible gas separator should release bubbles selectively when buoyancy bends its outlet open.","test":"Measure gas and liquid discharge.","contrary":"Liquid leaks equally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0303","hypothesis":"A flexible gas separator should release bubbles selectively when buoyancy bends its outlet open.","prediction":"A flexible gas separator should release bubbles selectively when buoyancy bends its outlet open.","test":"Measure gas and liquid discharge.","contrary_outcome":"Liquid leaks equally.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0304","id":"S1-0304","volume":"900","title":"A suspended acoustic mirror should reveal weak airflow through Doppler sidebands.","prediction":"A suspended acoustic mirror should reveal weak airflow through Doppler sidebands.","test":"Compare sidebands with calibrated flow.","contrary":"Sidebands lack flow dependence.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0304","hypothesis":"A suspended acoustic mirror should reveal weak airflow through Doppler sidebands.","prediction":"A suspended acoustic mirror should reveal weak airflow through Doppler sidebands.","test":"Compare sidebands with calibrated flow.","contrary_outcome":"Sidebands lack flow dependence.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0305","id":"S1-0305","volume":"900","title":"A snap-through floor tile analogue should record overload location through a persistent local inversion.","prediction":"A snap-through floor tile analogue should record overload location through a persistent local inversion.","test":"Apply instrumented loads.","contrary":"Unloaded sites also invert.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0305","hypothesis":"A snap-through floor tile analogue should record overload location through a persistent local inversion.","prediction":"A snap-through floor tile analogue should record overload location through a persistent local inversion.","test":"Apply instrumented loads.","contrary_outcome":"Unloaded sites also invert.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0305","hypothesis":"A snap-through floor tile analogue should record overload location through a persistent local inversion.","prediction":"A snap-through floor tile analogue should record overload location through a persistent local inversion.","test":"Apply instrumented loads.","contrary_outcome":"Unloaded sites also invert.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":31,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A snap-through floor tile analogue record overload location through a persistent local inversion. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0306","id":"S1-0306","volume":"900","title":"A hollow elastomer roller should meter liquid by repeatable cavity collapse.","prediction":"A hollow elastomer roller should meter liquid by repeatable cavity collapse.","test":"Weigh delivery over rotations.","contrary":"Dose varies strongly with backpressure.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0306","hypothesis":"A hollow elastomer roller should meter liquid by repeatable cavity collapse.","prediction":"A hollow elastomer roller should meter liquid by repeatable cavity collapse.","test":"Weigh delivery over rotations.","contrary_outcome":"Dose varies strongly with backpressure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0307","id":"S1-0307","volume":"900","title":"A branching vent should prevent suction cup collapse from a localized leak.","prediction":"A branching vent should prevent suction cup collapse from a localized leak.","test":"Introduce calibrated leak positions.","contrary":"One leak defeats all chambers.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0307","hypothesis":"A branching vent should prevent suction cup collapse from a localized leak.","prediction":"A branching vent should prevent suction cup collapse from a localized leak.","test":"Introduce calibrated leak positions.","contrary_outcome":"One leak defeats all chambers.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0308","id":"S1-0308","volume":"900","title":"A torsionally free sail should reduce gust-induced support loads by temporarily feathering.","prediction":"A torsionally free sail should reduce gust-induced support loads by temporarily feathering.","test":"Measure peak support torque.","contrary":"Free motion amplifies torque.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0308","hypothesis":"A torsionally free sail should reduce gust-induced support loads by temporarily feathering.","prediction":"A torsionally free sail should reduce gust-induced support loads by temporarily feathering.","test":"Measure peak support torque.","contrary_outcome":"Free motion amplifies torque.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0309","id":"S1-0309","volume":"900","title":"A circumferential groove should prevent a squeeze film splitting into isolated pockets.","prediction":"A circumferential groove should prevent a squeeze film splitting into isolated pockets.","test":"Image pressure-sensitive film drainage.","contrary":"Pocket formation is unchanged.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0309","hypothesis":"A circumferential groove should prevent a squeeze film splitting into isolated pockets.","prediction":"A circumferential groove should prevent a squeeze film splitting into isolated pockets.","test":"Image pressure-sensitive film drainage.","contrary_outcome":"Pocket formation is unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0310","id":"S1-0310","volume":"900","title":"A compliant pin array should reconstruct object curvature from collective displacement with fewer sensors than pins.","prediction":"A compliant pin array should reconstruct object curvature from collective displacement with fewer sensors than pins.","test":"Calibrate known shapes.","contrary":"Reconstruction remains underdetermined.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0310","hypothesis":"A compliant pin array should reconstruct object curvature from collective displacement with fewer sensors than pins.","prediction":"A compliant pin array should reconstruct object curvature from collective displacement with fewer sensors than pins.","test":"Calibrate known shapes.","contrary_outcome":"Reconstruction remains underdetermined.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0311","id":"S1-0311","volume":"900","title":"A passive heat-pipe bend should regulate thermal conductance through gravity-dependent liquid return.","prediction":"A passive heat-pipe bend should regulate thermal conductance through gravity-dependent liquid return.","test":"Measure conductance over inclination.","contrary":"Conductance lacks controllable transitions.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0311","hypothesis":"A passive heat-pipe bend should regulate thermal conductance through gravity-dependent liquid return.","prediction":"A passive heat-pipe bend should regulate thermal conductance through gravity-dependent liquid return.","test":"Measure conductance over inclination.","contrary_outcome":"Conductance lacks controllable transitions.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0312","id":"S1-0312","volume":"900","title":"A rolling elastic loop should traverse a narrow obstacle through reversible shape inversion.","prediction":"A rolling elastic loop should traverse a narrow obstacle through reversible shape inversion.","test":"Film obstacle crossings.","contrary":"Inversion causes trapping.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0312","hypothesis":"A rolling elastic loop should traverse a narrow obstacle through reversible shape inversion.","prediction":"A rolling elastic loop should traverse a narrow obstacle through reversible shape inversion.","test":"Film obstacle crossings.","contrary_outcome":"Inversion causes trapping.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0313","id":"S1-0313","volume":"900","title":"An annular capillary should average meniscus noise across its circumference.","prediction":"An annular capillary should average meniscus noise across its circumference.","test":"Compare height fluctuations with a straight tube.","contrary":"Noise remains equal.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0313","hypothesis":"An annular capillary should average meniscus noise across its circumference.","prediction":"An annular capillary should average meniscus noise across its circumference.","test":"Compare height fluctuations with a straight tube.","contrary_outcome":"Noise remains equal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0314","id":"S1-0314","volume":"900","title":"A free eccentric collar should identify shaft imbalance by its locked angular orientation.","prediction":"A free eccentric collar should identify shaft imbalance by its locked angular orientation.","test":"Add known imbalance and image collar.","contrary":"Orientation does not track imbalance.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0314","hypothesis":"A free eccentric collar should identify shaft imbalance by its locked angular orientation.","prediction":"A free eccentric collar should identify shaft imbalance by its locked angular orientation.","test":"Add known imbalance and image collar.","contrary_outcome":"Orientation does not track imbalance.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0315","id":"S1-0315","volume":"900","title":"A corrugated sleeve should retain liquid seals during axial stretching.","prediction":"A corrugated sleeve should retain liquid seals during axial stretching.","test":"Measure leak pressure versus extension.","contrary":"Sealing fails as in smooth sleeves.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0315","hypothesis":"A corrugated sleeve should retain liquid seals during axial stretching.","prediction":"A corrugated sleeve should retain liquid seals during axial stretching.","test":"Measure leak pressure versus extension.","contrary_outcome":"Sealing fails as in smooth sleeves.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0316","id":"S1-0316","volume":"900","title":"A soft splitter nose should reduce startup pressure overshoot by retreating.","prediction":"A soft splitter nose should reduce startup pressure overshoot by retreating.","test":"Measure transient pressure.","contrary":"Retreat leaves overshoot unchanged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0316","hypothesis":"A soft splitter nose should reduce startup pressure overshoot by retreating.","prediction":"A soft splitter nose should reduce startup pressure overshoot by retreating.","test":"Measure transient pressure.","contrary_outcome":"Retreat leaves overshoot unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0317","id":"S1-0317","volume":"900","title":"A floating perforated lid should limit splash without trapping pressure during rapid filling.","prediction":"A floating perforated lid should limit splash without trapping pressure during rapid filling.","test":"Measure splash and internal pressure.","contrary":"Splash suppression requires pressure buildup.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0317","hypothesis":"A floating perforated lid should limit splash without trapping pressure during rapid filling.","prediction":"A floating perforated lid should limit splash without trapping pressure during rapid filling.","test":"Measure splash and internal pressure.","contrary_outcome":"Splash suppression requires pressure buildup.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0318","id":"S1-0318","volume":"900","title":"A bowed optical fiber guide should encode bending direction through differential path lengths.","prediction":"A bowed optical fiber guide should encode bending direction through differential path lengths.","test":"Measure paired optical delays.","contrary":"Directional discrimination is absent.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0318","hypothesis":"A bowed optical fiber guide should encode bending direction through differential path lengths.","prediction":"A bowed optical fiber guide should encode bending direction through differential path lengths.","test":"Measure paired optical delays.","contrary_outcome":"Directional discrimination is absent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0318","hypothesis":"A bowed optical fiber guide should encode bending direction through differential path lengths.","prediction":"A bowed optical fiber guide should encode bending direction through differential path lengths.","test":"Measure paired optical delays.","contrary_outcome":"Directional discrimination is absent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":32,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A bowed optical fiber guide encode bending direction through differential path lengths. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0319","id":"S1-0319","volume":"900","title":"A sliding wall should reduce granular shear-band localization by permitting controlled dilation.","prediction":"A sliding wall should reduce granular shear-band localization by permitting controlled dilation.","test":"Image particle motion.","contrary":"Shear remains localized.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0319","hypothesis":"A sliding wall should reduce granular shear-band localization by permitting controlled dilation.","prediction":"A sliding wall should reduce granular shear-band localization by permitting controlled dilation.","test":"Image particle motion.","contrary_outcome":"Shear remains localized.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0320","id":"S1-0320","volume":"900","title":"A capillary-pressure latch should distinguish a liquid arrival from a gas-pressure pulse.","prediction":"A capillary-pressure latch should distinguish a liquid arrival from a gas-pressure pulse.","test":"Apply matched pressure transients.","contrary":"Gas pulses trigger identical latching.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0320","hypothesis":"A capillary-pressure latch should distinguish a liquid arrival from a gas-pressure pulse.","prediction":"A capillary-pressure latch should distinguish a liquid arrival from a gas-pressure pulse.","test":"Apply matched pressure transients.","contrary_outcome":"Gas pulses trigger identical latching.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0321","id":"S1-0321","volume":"900","title":"A compliant skew hinge should couple extension to rotation with a reproducible sign change at midstroke.","prediction":"A compliant skew hinge should couple extension to rotation with a reproducible sign change at midstroke.","test":"Measure kinematics.","contrary":"Coupling never reverses.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0321","hypothesis":"A compliant skew hinge should couple extension to rotation with a reproducible sign change at midstroke.","prediction":"A compliant skew hinge should couple extension to rotation with a reproducible sign change at midstroke.","test":"Measure kinematics.","contrary_outcome":"Coupling never reverses.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0322","id":"S1-0322","volume":"900","title":"A hollow impact bead should reduce rebound through internal liquid jetting.","prediction":"A hollow impact bead should reduce rebound through internal liquid jetting.","test":"Measure restitution and internal flow.","contrary":"Liquid motion adds no dissipation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0322","hypothesis":"A hollow impact bead should reduce rebound through internal liquid jetting.","prediction":"A hollow impact bead should reduce rebound through internal liquid jetting.","test":"Measure restitution and internal flow.","contrary_outcome":"Liquid motion adds no dissipation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0323","id":"S1-0323","volume":"900","title":"A staggered bristle array should reduce intermittent snagging on a rough guide rail.","prediction":"A staggered bristle array should reduce intermittent snagging on a rough guide rail.","test":"Measure force spikes.","contrary":"Snag frequency remains equal.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0323","hypothesis":"A staggered bristle array should reduce intermittent snagging on a rough guide rail.","prediction":"A staggered bristle array should reduce intermittent snagging on a rough guide rail.","test":"Measure force spikes.","contrary_outcome":"Snag frequency remains equal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0324","id":"S1-0324","volume":"900","title":"A conical diaphragm should measure torque through axial displacement with low radial-force sensitivity.","prediction":"A conical diaphragm should measure torque through axial displacement with low radial-force sensitivity.","test":"Apply independent loads.","contrary":"Radial cross-sensitivity dominates.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0324","hypothesis":"A conical diaphragm should measure torque through axial displacement with low radial-force sensitivity.","prediction":"A conical diaphragm should measure torque through axial displacement with low radial-force sensitivity.","test":"Apply independent loads.","contrary_outcome":"Radial cross-sensitivity dominates.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0325","id":"S1-0325","volume":"900","title":"A vented capillary trap should maintain bubble capture despite changing flow direction.","prediction":"A vented capillary trap should maintain bubble capture despite changing flow direction.","test":"Track bubble retention through reversals.","contrary":"Bubbles immediately escape.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0325","hypothesis":"A vented capillary trap should maintain bubble capture despite changing flow direction.","prediction":"A vented capillary trap should maintain bubble capture despite changing flow direction.","test":"Track bubble retention through reversals.","contrary_outcome":"Bubbles immediately escape.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0326","id":"S1-0326","volume":"900","title":"A flexible thermal bridge should make contact only after a prescribed expansion threshold.","prediction":"A flexible thermal bridge should make contact only after a prescribed expansion threshold.","test":"Measure conductance versus temperature.","contrary":"Contact threshold is irreproducible.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0326","hypothesis":"A flexible thermal bridge should make contact only after a prescribed expansion threshold.","prediction":"A flexible thermal bridge should make contact only after a prescribed expansion threshold.","test":"Measure conductance versus temperature.","contrary_outcome":"Contact threshold is irreproducible.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0326","hypothesis":"A flexible thermal bridge should make contact only after a prescribed expansion threshold.","prediction":"A flexible thermal bridge should make contact only after a prescribed expansion threshold.","test":"Measure conductance versus temperature.","contrary_outcome":"Contact threshold is irreproducible.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":33,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A flexible thermal bridge make contact only after a prescribed expansion threshold. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0327","id":"S1-0327","volume":"900","title":"A loose porous liner should reduce pipe fouling by microslip under flow fluctuations.","prediction":"A loose porous liner should reduce pipe fouling by microslip under flow fluctuations.","test":"Weigh inert deposits.","contrary":"Microslip does not reduce deposition.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0327","hypothesis":"A loose porous liner should reduce pipe fouling by microslip under flow fluctuations.","prediction":"A loose porous liner should reduce pipe fouling by microslip under flow fluctuations.","test":"Weigh inert deposits.","contrary_outcome":"Microslip does not reduce deposition.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0328","id":"S1-0328","volume":"900","title":"A segmented spring should absorb impact through sequential rotation rather than axial strain.","prediction":"A segmented spring should absorb impact through sequential rotation rather than axial strain.","test":"Measure joint motion and force.","contrary":"Segments engage simultaneously.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0328","hypothesis":"A segmented spring should absorb impact through sequential rotation rather than axial strain.","prediction":"A segmented spring should absorb impact through sequential rotation rather than axial strain.","test":"Measure joint motion and force.","contrary_outcome":"Segments engage simultaneously.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0329","id":"S1-0329","volume":"900","title":"A shallow fluid cavity should amplify small membrane leaks through visible air-front propagation.","prediction":"A shallow fluid cavity should amplify small membrane leaks through visible air-front propagation.","test":"Introduce calibrated pinholes.","contrary":"Front response cannot separate leaks from evaporation.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0329","hypothesis":"A shallow fluid cavity should amplify small membrane leaks through visible air-front propagation.","prediction":"A shallow fluid cavity should amplify small membrane leaks through visible air-front propagation.","test":"Introduce calibrated pinholes.","contrary_outcome":"Front response cannot separate leaks from evaporation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0330","id":"S1-0330","volume":"900","title":"A self-tensioning belt should hold its resonant frequency nearly constant as temperature changes.","prediction":"A self-tensioning belt should hold its resonant frequency nearly constant as temperature changes.","test":"Measure tension and frequency during heating.","contrary":"Frequency drifts as in fixed tension.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0330","hypothesis":"A self-tensioning belt should hold its resonant frequency nearly constant as temperature changes.","prediction":"A self-tensioning belt should hold its resonant frequency nearly constant as temperature changes.","test":"Measure tension and frequency during heating.","contrary_outcome":"Frequency drifts as in fixed tension.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0331","id":"S1-0331","volume":"900","title":"A curved capillary stop should release liquid at a reproducible centrifugal acceleration.","prediction":"A curved capillary stop should release liquid at a reproducible centrifugal acceleration.","test":"Spin calibrated rotors.","contrary":"Release varies mainly with filling history.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0331","hypothesis":"A curved capillary stop should release liquid at a reproducible centrifugal acceleration.","prediction":"A curved capillary stop should release liquid at a reproducible centrifugal acceleration.","test":"Spin calibrated rotors.","contrary_outcome":"Release varies mainly with filling history.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0332","id":"S1-0332","volume":"900","title":"A pressure-fed soft wedge should lift objects without lateral sliding through symmetric inflation.","prediction":"A pressure-fed soft wedge should lift objects without lateral sliding through symmetric inflation.","test":"Measure lateral displacement.","contrary":"Lateral motion remains large.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0332","hypothesis":"A pressure-fed soft wedge should lift objects without lateral sliding through symmetric inflation.","prediction":"A pressure-fed soft wedge should lift objects without lateral sliding through symmetric inflation.","test":"Measure lateral displacement.","contrary_outcome":"Lateral motion remains large.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0333","id":"S1-0333","volume":"900","title":"A fluttering ribbon should detect onset of two-phase pipe flow earlier than mean pressure changes.","prediction":"A fluttering ribbon should detect onset of two-phase pipe flow earlier than mean pressure changes.","test":"Compare vibration and optical phase arrival.","contrary":"Ribbon detects no earlier transition.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0333","hypothesis":"A fluttering ribbon should detect onset of two-phase pipe flow earlier than mean pressure changes.","prediction":"A fluttering ribbon should detect onset of two-phase pipe flow earlier than mean pressure changes.","test":"Compare vibration and optical phase arrival.","contrary_outcome":"Ribbon detects no earlier transition.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0334","id":"S1-0334","volume":"900","title":"A gravity-return sliding screen should expose clean area as clogging increases pressure.","prediction":"A gravity-return sliding screen should expose clean area as clogging increases pressure.","test":"Measure pressure and screen travel.","contrary":"Screen jams before useful exposure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0334","hypothesis":"A gravity-return sliding screen should expose clean area as clogging increases pressure.","prediction":"A gravity-return sliding screen should expose clean area as clogging increases pressure.","test":"Measure pressure and screen travel.","contrary_outcome":"Screen jams before useful exposure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0335","id":"S1-0335","volume":"900","title":"A compliant bearing pedestal should cancel force harmonics through out-of-phase elastic motion.","prediction":"A compliant bearing pedestal should cancel force harmonics through out-of-phase elastic motion.","test":"Measure support spectrum.","contrary":"Harmonics remain unchanged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0335","hypothesis":"A compliant bearing pedestal should cancel force harmonics through out-of-phase elastic motion.","prediction":"A compliant bearing pedestal should cancel force harmonics through out-of-phase elastic motion.","test":"Measure support spectrum.","contrary_outcome":"Harmonics remain unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0336","id":"S1-0336","volume":"900","title":"A reentrant groove should retain lubricant under transient centrifugal loading.","prediction":"A reentrant groove should retain lubricant under transient centrifugal loading.","test":"Measure retained volume after spin pulses.","contrary":"Retention equals a simple groove.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0336","hypothesis":"A reentrant groove should retain lubricant under transient centrifugal loading.","prediction":"A reentrant groove should retain lubricant under transient centrifugal loading.","test":"Measure retained volume after spin pulses.","contrary_outcome":"Retention equals a simple groove.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0337","id":"S1-0337","volume":"900","title":"A porous membrane backed by isolated cavities should localize puncture leakage.","prediction":"A porous membrane backed by isolated cavities should localize puncture leakage.","test":"Puncture one cavity and measure total leakage.","contrary":"Leak spreads across cavities.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0337","hypothesis":"A porous membrane backed by isolated cavities should localize puncture leakage.","prediction":"A porous membrane backed by isolated cavities should localize puncture leakage.","test":"Puncture one cavity and measure total leakage.","contrary_outcome":"Leak spreads across cavities.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0338","id":"S1-0338","volume":"900","title":"A mechanically coupled twin float should detect liquid stratification through unequal immersion changes.","prediction":"A mechanically coupled twin float should detect liquid stratification through unequal immersion changes.","test":"Vary known density layers.","contrary":"Response is indistinguishable from uniform density change.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0338","hypothesis":"A mechanically coupled twin float should detect liquid stratification through unequal immersion changes.","prediction":"A mechanically coupled twin float should detect liquid stratification through unequal immersion changes.","test":"Vary known density layers.","contrary_outcome":"Response is indistinguishable from uniform density change.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0339","id":"S1-0339","volume":"900","title":"A curved spring trap should capture rolling particles without rebound by sequential closure.","prediction":"A curved spring trap should capture rolling particles without rebound by sequential closure.","test":"Film standardized particle capture.","contrary":"Particles rebound before closure.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0339","hypothesis":"A curved spring trap should capture rolling particles without rebound by sequential closure.","prediction":"A curved spring trap should capture rolling particles without rebound by sequential closure.","test":"Film standardized particle capture.","contrary_outcome":"Particles rebound before closure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0340","id":"S1-0340","volume":"900","title":"A flexible diffraction mask should reveal local delamination through discontinuous spot motion.","prediction":"A flexible diffraction mask should reveal local delamination through discontinuous spot motion.","test":"Introduce known debonds.","contrary":"Spot changes cannot localize delamination.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0340","hypothesis":"A flexible diffraction mask should reveal local delamination through discontinuous spot motion.","prediction":"A flexible diffraction mask should reveal local delamination through discontinuous spot motion.","test":"Introduce known debonds.","contrary_outcome":"Spot changes cannot localize delamination.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0341","id":"S1-0341","volume":"900","title":"A tethered air pouch should reduce resonance of a liquid column through compliant volume exchange.","prediction":"A tethered air pouch should reduce resonance of a liquid column through compliant volume exchange.","test":"Measure oscillation decay.","contrary":"Exchange increases oscillation amplitude.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0341","hypothesis":"A tethered air pouch should reduce resonance of a liquid column through compliant volume exchange.","prediction":"A tethered air pouch should reduce resonance of a liquid column through compliant volume exchange.","test":"Measure oscillation decay.","contrary_outcome":"Exchange increases oscillation amplitude.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0341","hypothesis":"A tethered air pouch should reduce resonance of a liquid column through compliant volume exchange.","prediction":"A tethered air pouch should reduce resonance of a liquid column through compliant volume exchange.","test":"Measure oscillation decay.","contrary_outcome":"Exchange increases oscillation amplitude.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":34,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A tethered air pouch reduce resonance of a liquid column through compliant volume exchange. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0342","id":"S1-0342","volume":"900","title":"A spiral drain inlet should reject floating flakes through outward surface circulation.","prediction":"A spiral drain inlet should reject floating flakes through outward surface circulation.","test":"Track inert flakes.","contrary":"Flakes enter as readily as controls.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0342","hypothesis":"A spiral drain inlet should reject floating flakes through outward surface circulation.","prediction":"A spiral drain inlet should reject floating flakes through outward surface circulation.","test":"Track inert flakes.","contrary_outcome":"Flakes enter as readily as controls.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0343","id":"S1-0343","volume":"900","title":"A compression-tuned gap should provide a monotonic mechanical readout of accumulated ice thickness.","prediction":"A compression-tuned gap should provide a monotonic mechanical readout of accumulated ice thickness.","test":"Grow controlled water ice.","contrary":"Output loses monotonicity.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0343","hypothesis":"A compression-tuned gap should provide a monotonic mechanical readout of accumulated ice thickness.","prediction":"A compression-tuned gap should provide a monotonic mechanical readout of accumulated ice thickness.","test":"Grow controlled water ice.","contrary_outcome":"Output loses monotonicity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0344","id":"S1-0344","volume":"900","title":"A slotted elastic shell should retain impact protection after one slit tears.","prediction":"A slotted elastic shell should retain impact protection after one slit tears.","test":"Measure repeated impacts with controlled damage.","contrary":"Damage causes global loss of protection.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0344","hypothesis":"A slotted elastic shell should retain impact protection after one slit tears.","prediction":"A slotted elastic shell should retain impact protection after one slit tears.","test":"Measure repeated impacts with controlled damage.","contrary_outcome":"Damage causes global loss of protection.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0345","id":"S1-0345","volume":"900","title":"A rolling capillary bridge should transport a small object without solid sliding contact.","prediction":"A rolling capillary bridge should transport a small object without solid sliding contact.","test":"Track object and meniscus.","contrary":"Transport requires substantial solid friction.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0345","hypothesis":"A rolling capillary bridge should transport a small object without solid sliding contact.","prediction":"A rolling capillary bridge should transport a small object without solid sliding contact.","test":"Track object and meniscus.","contrary_outcome":"Transport requires substantial solid friction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0346","id":"S1-0346","volume":"900","title":"A freely hinged diffuser should stabilize pressure recovery across changing flow rates.","prediction":"A freely hinged diffuser should stabilize pressure recovery across changing flow rates.","test":"Measure pressure coefficient.","contrary":"Free hinge worsens recovery.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0346","hypothesis":"A freely hinged diffuser should stabilize pressure recovery across changing flow rates.","prediction":"A freely hinged diffuser should stabilize pressure recovery across changing flow rates.","test":"Measure pressure coefficient.","contrary_outcome":"Free hinge worsens recovery.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0347","id":"S1-0347","volume":"900","title":"A flexible metal-free resonator should measure water uptake through paired mass and stiffness shifts.","prediction":"A flexible metal-free resonator should measure water uptake through paired mass and stiffness shifts.","test":"Measure frequency pairs and gravimetry.","contrary":"Mass and stiffness effects cannot be separated.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0347","hypothesis":"A flexible metal-free resonator should measure water uptake through paired mass and stiffness shifts.","prediction":"A flexible metal-free resonator should measure water uptake through paired mass and stiffness shifts.","test":"Measure frequency pairs and gravimetry.","contrary_outcome":"Mass and stiffness effects cannot be separated.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0348","id":"S1-0348","volume":"900","title":"A capillary reservoir with a moving floor should maintain delivery pressure during depletion.","prediction":"A capillary reservoir with a moving floor should maintain delivery pressure during depletion.","test":"Measure pressure against remaining volume.","contrary":"Pressure falls like a fixed reservoir.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0348","hypothesis":"A capillary reservoir with a moving floor should maintain delivery pressure during depletion.","prediction":"A capillary reservoir with a moving floor should maintain delivery pressure during depletion.","test":"Measure pressure against remaining volume.","contrary_outcome":"Pressure falls like a fixed reservoir.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0349","id":"S1-0349","volume":"900","title":"A multi-contact rocker should detect floor unevenness through changes in oscillation harmonics.","prediction":"A multi-contact rocker should detect floor unevenness through changes in oscillation harmonics.","test":"Test calibrated surfaces.","contrary":"Harmonics cannot resolve unevenness.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0349","hypothesis":"A multi-contact rocker should detect floor unevenness through changes in oscillation harmonics.","prediction":"A multi-contact rocker should detect floor unevenness through changes in oscillation harmonics.","test":"Test calibrated surfaces.","contrary_outcome":"Harmonics cannot resolve unevenness.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0350","id":"S1-0350","volume":"900","title":"A twisted soft tube should switch between bending planes when pressure passes a threshold.","prediction":"A twisted soft tube should switch between bending planes when pressure passes a threshold.","test":"Image inflation cycles.","contrary":"Bending plane remains fixed.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0350","hypothesis":"A twisted soft tube should switch between bending planes when pressure passes a threshold.","prediction":"A twisted soft tube should switch between bending planes when pressure passes a threshold.","test":"Image inflation cycles.","contrary_outcome":"Bending plane remains fixed.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0351","id":"S1-0351","volume":"900","title":"A small vent adjacent to a liquid junction should suppress intermittent air locking.","prediction":"A small vent adjacent to a liquid junction should suppress intermittent air locking.","test":"Measure flow interruptions.","contrary":"Vent introduces equal or greater instability.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0351","hypothesis":"A small vent adjacent to a liquid junction should suppress intermittent air locking.","prediction":"A small vent adjacent to a liquid junction should suppress intermittent air locking.","test":"Measure flow interruptions.","contrary_outcome":"Vent introduces equal or greater instability.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0352","id":"S1-0352","volume":"900","title":"A sliding friction pad should limit transmitted torque by moving to a lower-pressure region.","prediction":"A sliding friction pad should limit transmitted torque by moving to a lower-pressure region.","test":"Measure torque during overload.","contrary":"Torque rises until irreversible slip damage.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0352","hypothesis":"A sliding friction pad should limit transmitted torque by moving to a lower-pressure region.","prediction":"A sliding friction pad should limit transmitted torque by moving to a lower-pressure region.","test":"Measure torque during overload.","contrary_outcome":"Torque rises until irreversible slip damage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0352","hypothesis":"A sliding friction pad should limit transmitted torque by moving to a lower-pressure region.","prediction":"A sliding friction pad should limit transmitted torque by moving to a lower-pressure region.","test":"Measure torque during overload.","contrary_outcome":"Torque rises until irreversible slip damage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":35,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A sliding friction pad limit transmitted torque by moving to a lower-pressure region. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0353","id":"S1-0353","volume":"900","title":"A compliant optical aperture should measure shock peak through irreversible slit widening.","prediction":"A compliant optical aperture should measure shock peak through irreversible slit widening.","test":"Apply known pulses.","contrary":"Widening tracks energy rather than peak.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0353","hypothesis":"A compliant optical aperture should measure shock peak through irreversible slit widening.","prediction":"A compliant optical aperture should measure shock peak through irreversible slit widening.","test":"Apply known pulses.","contrary_outcome":"Widening tracks energy rather than peak.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0354","id":"S1-0354","volume":"900","title":"A floating lattice should prevent capillary aggregation of neighboring objects by locally depressing the surface.","prediction":"A floating lattice should prevent capillary aggregation of neighboring objects by locally depressing the surface.","test":"Track object spacing.","contrary":"Aggregation persists.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0354","hypothesis":"A floating lattice should prevent capillary aggregation of neighboring objects by locally depressing the surface.","prediction":"A floating lattice should prevent capillary aggregation of neighboring objects by locally depressing the surface.","test":"Track object spacing.","contrary_outcome":"Aggregation persists.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0355","id":"S1-0355","volume":"900","title":"A bowed liquid channel should change hydraulic resistance sharply when straightened.","prediction":"A bowed liquid channel should change hydraulic resistance sharply when straightened.","test":"Measure flow-pressure curves versus curvature.","contrary":"Resistance changes smoothly and weakly.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0355","hypothesis":"A bowed liquid channel should change hydraulic resistance sharply when straightened.","prediction":"A bowed liquid channel should change hydraulic resistance sharply when straightened.","test":"Measure flow-pressure curves versus curvature.","contrary_outcome":"Resistance changes smoothly and weakly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0356","id":"S1-0356","volume":"900","title":"A granular-filled hinge should tune damping independently of stiffness through packing rearrangement.","prediction":"A granular-filled hinge should tune damping independently of stiffness through packing rearrangement.","test":"Measure both across packing states.","contrary":"Damping and stiffness remain tightly coupled.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0356","hypothesis":"A granular-filled hinge should tune damping independently of stiffness through packing rearrangement.","prediction":"A granular-filled hinge should tune damping independently of stiffness through packing rearrangement.","test":"Measure both across packing states.","contrary_outcome":"Damping and stiffness remain tightly coupled.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0357","id":"S1-0357","volume":"900","title":"A flexible check flap should self-clean through curvature reversal during opening.","prediction":"A flexible check flap should self-clean through curvature reversal during opening.","test":"Measure residue removal.","contrary":"Residue persists on the flap.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0357","hypothesis":"A flexible check flap should self-clean through curvature reversal during opening.","prediction":"A flexible check flap should self-clean through curvature reversal during opening.","test":"Measure residue removal.","contrary_outcome":"Residue persists on the flap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0358","id":"S1-0358","volume":"900","title":"A side-mounted bubble chamber should report pipe acceleration through gas-liquid interface tilt.","prediction":"A side-mounted bubble chamber should report pipe acceleration through gas-liquid interface tilt.","test":"Compare with accelerometer reference.","contrary":"Flow disturbances overwhelm acceleration response.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0358","hypothesis":"A side-mounted bubble chamber should report pipe acceleration through gas-liquid interface tilt.","prediction":"A side-mounted bubble chamber should report pipe acceleration through gas-liquid interface tilt.","test":"Compare with accelerometer reference.","contrary_outcome":"Flow disturbances overwhelm acceleration response.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0359","id":"S1-0359","volume":"900","title":"A nested spring pair should suppress temperature drift through opposing geometric expansion.","prediction":"A nested spring pair should suppress temperature drift through opposing geometric expansion.","test":"Measure stiffness versus temperature.","contrary":"Drift does not improve.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0359","hypothesis":"A nested spring pair should suppress temperature drift through opposing geometric expansion.","prediction":"A nested spring pair should suppress temperature drift through opposing geometric expansion.","test":"Measure stiffness versus temperature.","contrary_outcome":"Drift does not improve.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0360","id":"S1-0360","volume":"900","title":"A capillary branch with a flexible terminus should store a finite liquid dose independent of supply duration.","prediction":"A capillary branch with a flexible terminus should store a finite liquid dose independent of supply duration.","test":"Measure captured volume.","contrary":"Dose continues growing with duration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0360","hypothesis":"A capillary branch with a flexible terminus should store a finite liquid dose independent of supply duration.","prediction":"A capillary branch with a flexible terminus should store a finite liquid dose independent of supply duration.","test":"Measure captured volume.","contrary_outcome":"Dose continues growing with duration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0361","id":"S1-0361","volume":"900","title":"A pressure-balanced soft seal should maintain contact force despite upstream pressure fluctuations.","prediction":"A pressure-balanced soft seal should maintain contact force despite upstream pressure fluctuations.","test":"Measure contact pressure.","contrary":"Force follows upstream pressure strongly.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0361","hypothesis":"A pressure-balanced soft seal should maintain contact force despite upstream pressure fluctuations.","prediction":"A pressure-balanced soft seal should maintain contact force despite upstream pressure fluctuations.","test":"Measure contact pressure.","contrary_outcome":"Force follows upstream pressure strongly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0362","id":"S1-0362","volume":"900","title":"A loose fin sleeve should reduce crosswind torque on a slender mast.","prediction":"A loose fin sleeve should reduce crosswind torque on a slender mast.","test":"Measure torque spectra.","contrary":"Sleeve motion increases torque.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0362","hypothesis":"A loose fin sleeve should reduce crosswind torque on a slender mast.","prediction":"A loose fin sleeve should reduce crosswind torque on a slender mast.","test":"Measure torque spectra.","contrary_outcome":"Sleeve motion increases torque.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0363","id":"S1-0363","volume":"900","title":"A corrugated air channel should produce a distinctive whistle only near incipient blockage.","prediction":"A corrugated air channel should produce a distinctive whistle only near incipient blockage.","test":"Introduce controlled obstructions.","contrary":"Whistle is not blockage-specific.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0363","hypothesis":"A corrugated air channel should produce a distinctive whistle only near incipient blockage.","prediction":"A corrugated air channel should produce a distinctive whistle only near incipient blockage.","test":"Introduce controlled obstructions.","contrary_outcome":"Whistle is not blockage-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0364","id":"S1-0364","volume":"900","title":"A compliant platform should center a rolling ball through load-induced surface curvature.","prediction":"A compliant platform should center a rolling ball through load-induced surface curvature.","test":"Measure restoring acceleration.","contrary":"Ball moves outward.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0364","hypothesis":"A compliant platform should center a rolling ball through load-induced surface curvature.","prediction":"A compliant platform should center a rolling ball through load-induced surface curvature.","test":"Measure restoring acceleration.","contrary_outcome":"Ball moves outward.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0365","id":"S1-0365","volume":"900","title":"A tethered ring should measure wave orbital motion through its elliptical trajectory.","prediction":"A tethered ring should measure wave orbital motion through its elliptical trajectory.","test":"Compare trajectory against velocimetry.","contrary":"Tether dynamics obscure orbit shape.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0365","hypothesis":"A tethered ring should measure wave orbital motion through its elliptical trajectory.","prediction":"A tethered ring should measure wave orbital motion through its elliptical trajectory.","test":"Compare trajectory against velocimetry.","contrary_outcome":"Tether dynamics obscure orbit shape.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0366","id":"S1-0366","volume":"900","title":"A sealed flexible sachet should mix its contents under external reciprocal compression through asymmetric folding.","prediction":"A sealed flexible sachet should mix its contents under external reciprocal compression through asymmetric folding.","test":"Image dye dispersion.","contrary":"Mixing matches symmetric controls.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0366","hypothesis":"A sealed flexible sachet should mix its contents under external reciprocal compression through asymmetric folding.","prediction":"A sealed flexible sachet should mix its contents under external reciprocal compression through asymmetric folding.","test":"Image dye dispersion.","contrary_outcome":"Mixing matches symmetric controls.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0366","hypothesis":"A sealed flexible sachet should mix its contents under external reciprocal compression through asymmetric folding.","prediction":"A sealed flexible sachet should mix its contents under external reciprocal compression through asymmetric folding.","test":"Image dye dispersion.","contrary_outcome":"Mixing matches symmetric controls.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":36,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A sealed flexible sachet mix its contents under external reciprocal compression through asymmetric folding. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0367","id":"S1-0367","volume":"900","title":"A thin drain flap should reject reverse aerosol-free splash while passing continuous runoff.","prediction":"A thin drain flap should reject reverse aerosol-free splash while passing continuous runoff.","test":"Measure directional water passage.","contrary":"Runoff and splash rejection cannot coexist.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0367","hypothesis":"A thin drain flap should reject reverse aerosol-free splash while passing continuous runoff.","prediction":"A thin drain flap should reject reverse aerosol-free splash while passing continuous runoff.","test":"Measure directional water passage.","contrary_outcome":"Runoff and splash rejection cannot coexist.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0368","id":"S1-0368","volume":"900","title":"A torsion spring with a floating anchor should reduce sensitivity to assembly preload.","prediction":"A torsion spring with a floating anchor should reduce sensitivity to assembly preload.","test":"Measure torque curves across mounting offsets.","contrary":"Preload errors persist.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0368","hypothesis":"A torsion spring with a floating anchor should reduce sensitivity to assembly preload.","prediction":"A torsion spring with a floating anchor should reduce sensitivity to assembly preload.","test":"Measure torque curves across mounting offsets.","contrary_outcome":"Preload errors persist.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0369","id":"S1-0369","volume":"900","title":"A capillary junction should detect surfactant contamination through a changed branch-selection threshold.","prediction":"A capillary junction should detect surfactant contamination through a changed branch-selection threshold.","test":"Measure thresholds against independent surface tension.","contrary":"Response is dominated by viscosity alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0369","hypothesis":"A capillary junction should detect surfactant contamination through a changed branch-selection threshold.","prediction":"A capillary junction should detect surfactant contamination through a changed branch-selection threshold.","test":"Measure thresholds against independent surface tension.","contrary_outcome":"Response is dominated by viscosity alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0370","id":"S1-0370","volume":"900","title":"A flexible sleeve should silence rod-end impacts by progressively engaging an internal spiral contact.","prediction":"A flexible sleeve should silence rod-end impacts by progressively engaging an internal spiral contact.","test":"Measure sound and force.","contrary":"Sound reduction requires equal force increase.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0370","hypothesis":"A flexible sleeve should silence rod-end impacts by progressively engaging an internal spiral contact.","prediction":"A flexible sleeve should silence rod-end impacts by progressively engaging an internal spiral contact.","test":"Measure sound and force.","contrary_outcome":"Sound reduction requires equal force increase.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0371","id":"S1-0371","volume":"900","title":"A porous floating plug should level a small reservoir during intermittent withdrawal.","prediction":"A porous floating plug should level a small reservoir during intermittent withdrawal.","test":"Measure head fluctuations.","contrary":"Plug amplifies level fluctuations.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0371","hypothesis":"A porous floating plug should level a small reservoir during intermittent withdrawal.","prediction":"A porous floating plug should level a small reservoir during intermittent withdrawal.","test":"Measure head fluctuations.","contrary_outcome":"Plug amplifies level fluctuations.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0372","id":"S1-0372","volume":"900","title":"A bowed plate should suppress thermal snap-through when its edge can slide radially.","prediction":"A bowed plate should suppress thermal snap-through when its edge can slide radially.","test":"Cycle controlled heating.","contrary":"Sliding does not prevent snap-through.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0372","hypothesis":"A bowed plate should suppress thermal snap-through when its edge can slide radially.","prediction":"A bowed plate should suppress thermal snap-through when its edge can slide radially.","test":"Cycle controlled heating.","contrary_outcome":"Sliding does not prevent snap-through.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0373","id":"S1-0373","volume":"900","title":"A rotating capillary reservoir should deliver liquid at fixed angular intervals through meniscus reset.","prediction":"A rotating capillary reservoir should deliver liquid at fixed angular intervals through meniscus reset.","test":"Measure delivery timing.","contrary":"Phase depends strongly on fill level.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0373","hypothesis":"A rotating capillary reservoir should deliver liquid at fixed angular intervals through meniscus reset.","prediction":"A rotating capillary reservoir should deliver liquid at fixed angular intervals through meniscus reset.","test":"Measure delivery timing.","contrary_outcome":"Phase depends strongly on fill level.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0374","id":"S1-0374","volume":"900","title":"A compliant vane pair should infer flow shear from differential bending while rejecting uniform velocity changes.","prediction":"A compliant vane pair should infer flow shear from differential bending while rejecting uniform velocity changes.","test":"Calibrate shear and mean flow independently.","contrary":"Signals remain inseparable.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0374","hypothesis":"A compliant vane pair should infer flow shear from differential bending while rejecting uniform velocity changes.","prediction":"A compliant vane pair should infer flow shear from differential bending while rejecting uniform velocity changes.","test":"Calibrate shear and mean flow independently.","contrary_outcome":"Signals remain inseparable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0375","id":"S1-0375","volume":"900","title":"A sliding mass damper should adapt to structural softening by moving toward a lower-frequency configuration.","prediction":"A sliding mass damper should adapt to structural softening by moving toward a lower-frequency configuration.","test":"Measure position and vibration during stiffness changes.","contrary":"Adaptation moves in the wrong direction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0375","hypothesis":"A sliding mass damper should adapt to structural softening by moving toward a lower-frequency configuration.","prediction":"A sliding mass damper should adapt to structural softening by moving toward a lower-frequency configuration.","test":"Measure position and vibration during stiffness changes.","contrary_outcome":"Adaptation moves in the wrong direction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0376","id":"S1-0376","volume":"900","title":"A flexible spout should prevent droplet adhesion to its underside by curling during drainage.","prediction":"A flexible spout should prevent droplet adhesion to its underside by curling during drainage.","test":"Image final droplets.","contrary":"Residual adhesion remains unchanged.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0376","hypothesis":"A flexible spout should prevent droplet adhesion to its underside by curling during drainage.","prediction":"A flexible spout should prevent droplet adhesion to its underside by curling during drainage.","test":"Image final droplets.","contrary_outcome":"Residual adhesion remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0377","id":"S1-0377","volume":"900","title":"A slit diaphragm should provide a passive liquid pressure limiter through reversible petal opening.","prediction":"A slit diaphragm should provide a passive liquid pressure limiter through reversible petal opening.","test":"Measure pressure under increasing inflow.","contrary":"Pressure rises without limitation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0377","hypothesis":"A slit diaphragm should provide a passive liquid pressure limiter through reversible petal opening.","prediction":"A slit diaphragm should provide a passive liquid pressure limiter through reversible petal opening.","test":"Measure pressure under increasing inflow.","contrary_outcome":"Pressure rises without limitation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0378","id":"S1-0378","volume":"900","title":"A segmented compliant rail should reduce rolling noise by decorrelating contact impacts.","prediction":"A segmented compliant rail should reduce rolling noise by decorrelating contact impacts.","test":"Measure sound spectrum and rolling resistance.","contrary":"Noise reduction requires high rolling loss.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0378","hypothesis":"A segmented compliant rail should reduce rolling noise by decorrelating contact impacts.","prediction":"A segmented compliant rail should reduce rolling noise by decorrelating contact impacts.","test":"Measure sound spectrum and rolling resistance.","contrary_outcome":"Noise reduction requires high rolling loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0379","id":"S1-0379","volume":"900","title":"A floating bell should measure gas production through discrete buoyancy-triggered releases.","prediction":"A floating bell should measure gas production through discrete buoyancy-triggered releases.","test":"Deliver calibrated gas volumes.","contrary":"Release volume is irreproducible.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0379","hypothesis":"A floating bell should measure gas production through discrete buoyancy-triggered releases.","prediction":"A floating bell should measure gas production through discrete buoyancy-triggered releases.","test":"Deliver calibrated gas volumes.","contrary_outcome":"Release volume is irreproducible.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0379","hypothesis":"A floating bell should measure gas production through discrete buoyancy-triggered releases.","prediction":"A floating bell should measure gas production through discrete buoyancy-triggered releases.","test":"Deliver calibrated gas volumes.","contrary_outcome":"Release volume is irreproducible.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":37,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A floating bell measure gas production through discrete buoyancy-triggered releases. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0380","id":"S1-0380","volume":"900","title":"A tapered spring stack should protect a sensor through progressive contact engagement.","prediction":"A tapered spring stack should protect a sensor through progressive contact engagement.","test":"Measure sensor force under overload.","contrary":"Protection begins only after sensor overload.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0380","hypothesis":"A tapered spring stack should protect a sensor through progressive contact engagement.","prediction":"A tapered spring stack should protect a sensor through progressive contact engagement.","test":"Measure sensor force under overload.","contrary_outcome":"Protection begins only after sensor overload.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0381","id":"S1-0381","volume":"900","title":"A flexible cavity wall should amplify acoustic sensitivity to small liquid-level changes.","prediction":"A flexible cavity wall should amplify acoustic sensitivity to small liquid-level changes.","test":"Measure resonance versus fill height.","contrary":"Sensitivity equals rigid-wall controls.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0381","hypothesis":"A flexible cavity wall should amplify acoustic sensitivity to small liquid-level changes.","prediction":"A flexible cavity wall should amplify acoustic sensitivity to small liquid-level changes.","test":"Measure resonance versus fill height.","contrary_outcome":"Sensitivity equals rigid-wall controls.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0382","id":"S1-0382","volume":"900","title":"A passive rotating scoop should meter granular material independently of hopper head over a finite range.","prediction":"A passive rotating scoop should meter granular material independently of hopper head over a finite range.","test":"Weigh output per turn.","contrary":"Dose scales strongly with head.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0382","hypothesis":"A passive rotating scoop should meter granular material independently of hopper head over a finite range.","prediction":"A passive rotating scoop should meter granular material independently of hopper head over a finite range.","test":"Weigh output per turn.","contrary_outcome":"Dose scales strongly with head.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0383","id":"S1-0383","volume":"900","title":"A capillary fanout should distribute an initial sample equally despite unequal outlet resistance.","prediction":"A capillary fanout should distribute an initial sample equally despite unequal outlet resistance.","test":"Measure aliquot volumes.","contrary":"Resistance asymmetry dominates distribution.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0383","hypothesis":"A capillary fanout should distribute an initial sample equally despite unequal outlet resistance.","prediction":"A capillary fanout should distribute an initial sample equally despite unequal outlet resistance.","test":"Measure aliquot volumes.","contrary_outcome":"Resistance asymmetry dominates distribution.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0384","id":"S1-0384","volume":"900","title":"A soft landing foot should retain a low center of pressure during rebound.","prediction":"A soft landing foot should retain a low center of pressure during rebound.","test":"Measure pressure maps.","contrary":"Center shifts toward the tipping edge.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0384","hypothesis":"A soft landing foot should retain a low center of pressure during rebound.","prediction":"A soft landing foot should retain a low center of pressure during rebound.","test":"Measure pressure maps.","contrary_outcome":"Center shifts toward the tipping edge.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0385","id":"S1-0385","volume":"900","title":"A loosely constrained membrane should detect contact sliding direction through wrinkle propagation.","prediction":"A loosely constrained membrane should detect contact sliding direction through wrinkle propagation.","test":"Image wrinkles during known sliding.","contrary":"Propagation direction is ambiguous.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0385","hypothesis":"A loosely constrained membrane should detect contact sliding direction through wrinkle propagation.","prediction":"A loosely constrained membrane should detect contact sliding direction through wrinkle propagation.","test":"Image wrinkles during known sliding.","contrary_outcome":"Propagation direction is ambiguous.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0386","id":"S1-0386","volume":"900","title":"A drain with a compliant throat should resist clogging through pressure-induced aperture oscillation.","prediction":"A drain with a compliant throat should resist clogging through pressure-induced aperture oscillation.","test":"Measure inert-clog clearance.","contrary":"Aperture closes and worsens blockage.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0386","hypothesis":"A drain with a compliant throat should resist clogging through pressure-induced aperture oscillation.","prediction":"A drain with a compliant throat should resist clogging through pressure-induced aperture oscillation.","test":"Measure inert-clog clearance.","contrary_outcome":"Aperture closes and worsens blockage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0387","id":"S1-0387","volume":"900","title":"A spring-balanced optical flag should measure pressure difference while rejecting instrument rotation.","prediction":"A spring-balanced optical flag should measure pressure difference while rejecting instrument rotation.","test":"Calibrate across orientations.","contrary":"Gravity bias remains significant.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0387","hypothesis":"A spring-balanced optical flag should measure pressure difference while rejecting instrument rotation.","prediction":"A spring-balanced optical flag should measure pressure difference while rejecting instrument rotation.","test":"Calibrate across orientations.","contrary_outcome":"Gravity bias remains significant.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0388","id":"S1-0388","volume":"900","title":"A capillary end-stop should reduce overshoot of a small sliding carriage.","prediction":"A capillary end-stop should reduce overshoot of a small sliding carriage.","test":"Measure stopping distance and rebound.","contrary":"Fluid bridge breaks before useful damping.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0388","hypothesis":"A capillary end-stop should reduce overshoot of a small sliding carriage.","prediction":"A capillary end-stop should reduce overshoot of a small sliding carriage.","test":"Measure stopping distance and rebound.","contrary_outcome":"Fluid bridge breaks before useful damping.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0388","hypothesis":"A capillary end-stop should reduce overshoot of a small sliding carriage.","prediction":"A capillary end-stop should reduce overshoot of a small sliding carriage.","test":"Measure stopping distance and rebound.","contrary_outcome":"Fluid bridge breaks before useful damping.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":38,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A capillary end-stop reduce overshoot of a small sliding carriage. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0389","id":"S1-0389","volume":"900","title":"A pressure-driven floating baffle should preserve equal residence times in parallel channels.","prediction":"A pressure-driven floating baffle should preserve equal residence times in parallel channels.","test":"Measure tracer transit distributions.","contrary":"Residence-time imbalance persists.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0389","hypothesis":"A pressure-driven floating baffle should preserve equal residence times in parallel channels.","prediction":"A pressure-driven floating baffle should preserve equal residence times in parallel channels.","test":"Measure tracer transit distributions.","contrary_outcome":"Residence-time imbalance persists.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0390","id":"S1-0390","volume":"900","title":"A flexible cage around a rotating blade analogue should reduce near-wall force spikes through gap compliance.","prediction":"A flexible cage around a rotating blade analogue should reduce near-wall force spikes through gap compliance.","test":"Measure torque near controlled walls.","contrary":"Cage increases spikes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0390","hypothesis":"A flexible cage around a rotating blade analogue should reduce near-wall force spikes through gap compliance.","prediction":"A flexible cage around a rotating blade analogue should reduce near-wall force spikes through gap compliance.","test":"Measure torque near controlled walls.","contrary_outcome":"Cage increases spikes.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0391","id":"S1-0391","volume":"900","title":"A helical guide should make elastic recoil rotate a released soft tube predictably.","prediction":"A helical guide should make elastic recoil rotate a released soft tube predictably.","test":"Measure recoil angle.","contrary":"Rotation varies randomly.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0391","hypothesis":"A helical guide should make elastic recoil rotate a released soft tube predictably.","prediction":"A helical guide should make elastic recoil rotate a released soft tube predictably.","test":"Measure recoil angle.","contrary_outcome":"Rotation varies randomly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0392","id":"S1-0392","volume":"900","title":"A porous drain insert should prevent film bridging across an outlet after flow stops.","prediction":"A porous drain insert should prevent film bridging across an outlet after flow stops.","test":"Image final films.","contrary":"Bridges remain stable.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0392","hypothesis":"A porous drain insert should prevent film bridging across an outlet after flow stops.","prediction":"A porous drain insert should prevent film bridging across an outlet after flow stops.","test":"Image final films.","contrary_outcome":"Bridges remain stable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0393","id":"S1-0393","volume":"900","title":"A compliant diagonal brace should increase frame damping through reversible local buckling.","prediction":"A compliant diagonal brace should increase frame damping through reversible local buckling.","test":"Measure decay before and after buckling.","contrary":"Buckling reduces stability without useful damping.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0393","hypothesis":"A compliant diagonal brace should increase frame damping through reversible local buckling.","prediction":"A compliant diagonal brace should increase frame damping through reversible local buckling.","test":"Measure decay before and after buckling.","contrary_outcome":"Buckling reduces stability without useful damping.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0394","id":"S1-0394","volume":"900","title":"A gas-filled ring should estimate surrounding pressure through its circularity under known tether tension.","prediction":"A gas-filled ring should estimate surrounding pressure through its circularity under known tether tension.","test":"Image shape against calibrated pressure.","contrary":"Shape is not uniquely pressure-dependent.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0394","hypothesis":"A gas-filled ring should estimate surrounding pressure through its circularity under known tether tension.","prediction":"A gas-filled ring should estimate surrounding pressure through its circularity under known tether tension.","test":"Image shape against calibrated pressure.","contrary_outcome":"Shape is not uniquely pressure-dependent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0394","hypothesis":"A gas-filled ring should estimate surrounding pressure through its circularity under known tether tension.","prediction":"A gas-filled ring should estimate surrounding pressure through its circularity under known tether tension.","test":"Image shape against calibrated pressure.","contrary_outcome":"Shape is not uniquely pressure-dependent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":39,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A gas-filled ring estimate surrounding pressure through its circularity under known tether tension. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0395","id":"S1-0395","volume":"900","title":"A flexible pouring lip should compensate stream attachment as flow declines.","prediction":"A flexible pouring lip should compensate stream attachment as flow declines.","test":"Measure landing point.","contrary":"Landing point drifts as in rigid lips.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0395","hypothesis":"A flexible pouring lip should compensate stream attachment as flow declines.","prediction":"A flexible pouring lip should compensate stream attachment as flow declines.","test":"Measure landing point.","contrary_outcome":"Landing point drifts as in rigid lips.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0396","id":"S1-0396","volume":"900","title":"A free-spinning flow divider should homogenize outlet particle concentration without external power.","prediction":"A free-spinning flow divider should homogenize outlet particle concentration without external power.","test":"Count inert tracers.","contrary":"Concentration remains uneven.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0396","hypothesis":"A free-spinning flow divider should homogenize outlet particle concentration without external power.","prediction":"A free-spinning flow divider should homogenize outlet particle concentration without external power.","test":"Count inert tracers.","contrary_outcome":"Concentration remains uneven.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0397","id":"S1-0397","volume":"900","title":"A capillary reservoir should preserve dissolved-gas measurements by minimizing pressure transients during withdrawal.","prediction":"A capillary reservoir should preserve dissolved-gas measurements by minimizing pressure transients during withdrawal.","test":"Measure gas release against rigid controls.","contrary":"Compliance increases degassing.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0397","hypothesis":"A capillary reservoir should preserve dissolved-gas measurements by minimizing pressure transients during withdrawal.","prediction":"A capillary reservoir should preserve dissolved-gas measurements by minimizing pressure transients during withdrawal.","test":"Measure gas release against rigid controls.","contrary_outcome":"Compliance increases degassing.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0398","id":"S1-0398","volume":"900","title":"A two-contact spring switch should distinguish sustained overload from a short shock mechanically.","prediction":"A two-contact spring switch should distinguish sustained overload from a short shock mechanically.","test":"Apply controlled pulses.","contrary":"Both histories trigger identical states.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0398","hypothesis":"A two-contact spring switch should distinguish sustained overload from a short shock mechanically.","prediction":"A two-contact spring switch should distinguish sustained overload from a short shock mechanically.","test":"Apply controlled pulses.","contrary_outcome":"Both histories trigger identical states.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0399","id":"S1-0399","volume":"900","title":"A floating porous strip should collect droplets preferentially at its lowest-curvature end.","prediction":"A floating porous strip should collect droplets preferentially at its lowest-curvature end.","test":"Image collection distribution.","contrary":"Collection is spatially uniform.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0399","hypothesis":"A floating porous strip should collect droplets preferentially at its lowest-curvature end.","prediction":"A floating porous strip should collect droplets preferentially at its lowest-curvature end.","test":"Image collection distribution.","contrary_outcome":"Collection is spatially uniform.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0400","id":"S1-0400","volume":"900","title":"A compliant optical bench should maintain mirror alignment under uniform expansion through kinematic folding.","prediction":"A compliant optical bench should maintain mirror alignment under uniform expansion through kinematic folding.","test":"Measure beam pointing during heating.","contrary":"Pointing drift remains comparable.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0400","hypothesis":"A compliant optical bench should maintain mirror alignment under uniform expansion through kinematic folding.","prediction":"A compliant optical bench should maintain mirror alignment under uniform expansion through kinematic folding.","test":"Measure beam pointing during heating.","contrary_outcome":"Pointing drift remains comparable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0400","hypothesis":"A compliant optical bench should maintain mirror alignment under uniform expansion through kinematic folding.","prediction":"A compliant optical bench should maintain mirror alignment under uniform expansion through kinematic folding.","test":"Measure beam pointing during heating.","contrary_outcome":"Pointing drift remains comparable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":40,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A compliant optical bench maintain mirror alignment under uniform expansion through kinematic folding. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0401","id":"S1-0401","volume":"900","title":"A passive optical cavity should distinguish dust deposition from mirror motion through unequal changes in linewidth and resonance frequency.","prediction":"A passive optical cavity should distinguish dust deposition from mirror motion through unequal changes in linewidth and resonance frequency.","test":"Deposit calibrated inert dust.","contrary":"Perturbations remain inseparable.","layers":[1,2,3],"categories":["physical","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0401","hypothesis":"A passive optical cavity should distinguish dust deposition from mirror motion through unequal changes in linewidth and resonance frequency.","prediction":"A passive optical cavity should distinguish dust deposition from mirror motion through unequal changes in linewidth and resonance frequency.","test":"Deposit calibrated inert dust.","contrary_outcome":"Perturbations remain inseparable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0401","hypothesis":"A passive optical cavity should distinguish dust deposition from mirror motion through unequal changes in linewidth and resonance frequency.","prediction":"A passive optical cavity should distinguish dust deposition from mirror motion through unequal changes in linewidth and resonance frequency.","test":"Deposit calibrated inert dust.","contrary_outcome":"Perturbations remain inseparable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":41,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A passive optical cavity distinguish dust deposition from mirror motion through unequal changes in linewidth and resonance frequency. experimental mechanism"},"dossier":{"id":"S1-0401","title":"Dust versus displacement in an optical cavity","why_selected":"Two different observables may separate geometric path change from optical loss, but the proposal has a clear confounding test and could fail decisively.","sources":[{"title":"Dynamic response of a Fabry–Perot interferometer","url":"https://opg.optica.org/josab/abstract.cfm?uri=josab-16-4-523","access":"Publisher abstract read","finding":"The authors predict and measure cavity-field response to cavity-length and laser-frequency changes. This supports length sensitivity as background, but supplies no direct dust/displacement discrimination evidence."}],"design":"Use an enclosed low-power scanned optical cavity with a calibrated translation stage on one mirror. Introduce removable inert dust-coated witness surfaces at controlled positions without aerosolizing particles. Independently vary displacement and deposition, then test mixed conditions. Fit resonance center, linewidth, and contrast from the full scan rather than a single intensity reading. Use independently prepared witness samples and blind the mixed-condition labels during fitting.","endpoints":"Primary: misclassification rate between dust-only and displacement-only perturbations matched in peak-intensity effect. Secondary: displacement error under dust and sensitivity-matrix conditioning. Predefine a useful error target after measuring instrument noise, before testing mixed cases.","controls":"Clean witness exchange; laser-frequency reference; angular misalignment; source-power drift; temperature variation; deliberate scatter-free displacement. Dust can shift phase and alignment as well as loss, so linewidth is not assumed dust-specific.","conditional_analysis":"Locally let the observable vector be y=(resonance shift,linewidth change) and perturbations z=(displacement,dust load). If the calibrated Jacobian J has nonzero determinant, z is locally identifiable in the linear approximation: z=J^-1*y. With noise covariance Sigma, propagated covariance is J^-1*Sigma*(J^-1)^T. This is a conditional inversion result, not a theorem that dust and displacement yield independent signatures. A nearly singular J invalidates useful separation.","analysis_plan":"Estimate J from separate perturbations, evaluate singular values, then test held-out mixtures and report confusion matrices with uncertainty. Reject the proposal if angular or thermal controls recreate the dust signature or if held-out estimates are unstable.","limitations":"Unproved physical claim. Retrieved primary background treats cavity dynamics, not the proposed dust classifier. No physical data, classification success, or novelty established.","rank":4,"hypothesis":"A passive optical cavity should distinguish dust deposition from mirror motion through unequal changes in linewidth and resonance frequency.","status":"speculative; no physical proof; no physical data collected"},"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0402","id":"S1-0402","volume":"900","title":"A superconductivity-free magnetic pendulum should reveal conductor cracks through angular damping anisotropy.","prediction":"A superconductivity-free magnetic pendulum should reveal conductor cracks through angular damping anisotropy.","test":"Scan notched metal plates.","contrary":"Anisotropy does not track crack orientation.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0402","hypothesis":"A superconductivity-free magnetic pendulum should reveal conductor cracks through angular damping anisotropy.","prediction":"A superconductivity-free magnetic pendulum should reveal conductor cracks through angular damping anisotropy.","test":"Scan notched metal plates.","contrary_outcome":"Anisotropy does not track crack orientation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0403","id":"S1-0403","volume":"900","title":"A thermal pulse should locate a hidden void from the sign of delayed surface curvature.","prediction":"A thermal pulse should locate a hidden void from the sign of delayed surface curvature.","test":"Heat instrumented laminate coupons.","contrary":"Curvature sign is not void-specific.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0403","hypothesis":"A thermal pulse should locate a hidden void from the sign of delayed surface curvature.","prediction":"A thermal pulse should locate a hidden void from the sign of delayed surface curvature.","test":"Heat instrumented laminate coupons.","contrary_outcome":"Curvature sign is not void-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0404","id":"S1-0404","volume":"900","title":"A piezoelectric-free resonant beam should estimate attachment slip from amplitude-dependent phase lag.","prediction":"A piezoelectric-free resonant beam should estimate attachment slip from amplitude-dependent phase lag.","test":"Impose calibrated joint slip.","contrary":"Phase cannot distinguish slip from bulk damping.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0404","hypothesis":"A piezoelectric-free resonant beam should estimate attachment slip from amplitude-dependent phase lag.","prediction":"A piezoelectric-free resonant beam should estimate attachment slip from amplitude-dependent phase lag.","test":"Impose calibrated joint slip.","contrary_outcome":"Phase cannot distinguish slip from bulk damping.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0405","id":"S1-0405","volume":"900","title":"A wedged optical etalon should expose a nonuniform liquid film through spatial fringe curvature.","prediction":"A wedged optical etalon should expose a nonuniform liquid film through spatial fringe curvature.","test":"Compare known film profiles.","contrary":"Fringe curvature cannot resolve nonuniformity.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0405","hypothesis":"A wedged optical etalon should expose a nonuniform liquid film through spatial fringe curvature.","prediction":"A wedged optical etalon should expose a nonuniform liquid film through spatial fringe curvature.","test":"Compare known film profiles.","contrary_outcome":"Fringe curvature cannot resolve nonuniformity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0406","id":"S1-0406","volume":"900","title":"A passive microwave-free ring circuit should detect connector oxidation through nonlinear impedance harmonics.","prediction":"A passive microwave-free ring circuit should detect connector oxidation through nonlinear impedance harmonics.","test":"Measure low-voltage responses of aged contacts.","contrary":"Harmonics do not correlate with oxidation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0406","hypothesis":"A passive microwave-free ring circuit should detect connector oxidation through nonlinear impedance harmonics.","prediction":"A passive microwave-free ring circuit should detect connector oxidation through nonlinear impedance harmonics.","test":"Measure low-voltage responses of aged contacts.","contrary_outcome":"Harmonics do not correlate with oxidation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0407","id":"S1-0407","volume":"900","title":"A thermal mass reference should separate airflow changes from ambient-temperature drift in calorimetric sensing.","prediction":"A thermal mass reference should separate airflow changes from ambient-temperature drift in calorimetric sensing.","test":"Apply independent disturbances.","contrary":"Separation fails under combined disturbances.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0407","hypothesis":"A thermal mass reference should separate airflow changes from ambient-temperature drift in calorimetric sensing.","prediction":"A thermal mass reference should separate airflow changes from ambient-temperature drift in calorimetric sensing.","test":"Apply independent disturbances.","contrary_outcome":"Separation fails under combined disturbances.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0408","id":"S1-0408","volume":"900","title":"A magnetic suspension should reveal liquid elasticity through recoil after a finite rotation.","prediction":"A magnetic suspension should reveal liquid elasticity through recoil after a finite rotation.","test":"Test calibrated viscoelastic standards.","contrary":"Recoil is indistinguishable from inertia.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0408","hypothesis":"A magnetic suspension should reveal liquid elasticity through recoil after a finite rotation.","prediction":"A magnetic suspension should reveal liquid elasticity through recoil after a finite rotation.","test":"Test calibrated viscoelastic standards.","contrary_outcome":"Recoil is indistinguishable from inertia.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0409","id":"S1-0409","volume":"900","title":"A tensioned wire should estimate clamp stiffness from the spacing of higher modes.","prediction":"A tensioned wire should estimate clamp stiffness from the spacing of higher modes.","test":"Measure spectra across known clamp compliances.","contrary":"Mode spacing remains insensitive.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0409","hypothesis":"A tensioned wire should estimate clamp stiffness from the spacing of higher modes.","prediction":"A tensioned wire should estimate clamp stiffness from the spacing of higher modes.","test":"Measure spectra across known clamp compliances.","contrary_outcome":"Mode spacing remains insensitive.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0410","id":"S1-0410","volume":"900","title":"A differential interferometer should reject window bowing when reference and sample beams exchange paths.","prediction":"A differential interferometer should reject window bowing when reference and sample beams exchange paths.","test":"Measure pressure-induced optical error.","contrary":"Path exchange gives no rejection.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0410","hypothesis":"A differential interferometer should reject window bowing when reference and sample beams exchange paths.","prediction":"A differential interferometer should reject window bowing when reference and sample beams exchange paths.","test":"Measure pressure-induced optical error.","contrary_outcome":"Path exchange gives no rejection.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0411","id":"S1-0411","volume":"900","title":"A passive resonator network should locate a detached joint from which mode loses quality factor.","prediction":"A passive resonator network should locate a detached joint from which mode loses quality factor.","test":"Detach known joints.","contrary":"Different joints produce identical signatures.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0411","hypothesis":"A passive resonator network should locate a detached joint from which mode loses quality factor.","prediction":"A passive resonator network should locate a detached joint from which mode loses quality factor.","test":"Detach known joints.","contrary_outcome":"Different joints produce identical signatures.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0412","id":"S1-0412","volume":"900","title":"A conductive loop should detect mechanical wear through changing mutual inductance without electrical contact.","prediction":"A conductive loop should detect mechanical wear through changing mutual inductance without electrical contact.","test":"Remove known thicknesses.","contrary":"Inductance drift masks wear signal.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0412","hypothesis":"A conductive loop should detect mechanical wear through changing mutual inductance without electrical contact.","prediction":"A conductive loop should detect mechanical wear through changing mutual inductance without electrical contact.","test":"Remove known thicknesses.","contrary_outcome":"Inductance drift masks wear signal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0413","id":"S1-0413","volume":"900","title":"A phase-shifted heating pair should identify thermal contact resistance independently of sample conductivity.","prediction":"A phase-shifted heating pair should identify thermal contact resistance independently of sample conductivity.","test":"Measure surface temperature fields.","contrary":"Parameters remain nonidentifiable.","layers":[1,2,3],"categories":["energy","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0413","hypothesis":"A phase-shifted heating pair should identify thermal contact resistance independently of sample conductivity.","prediction":"A phase-shifted heating pair should identify thermal contact resistance independently of sample conductivity.","test":"Measure surface temperature fields.","contrary_outcome":"Parameters remain nonidentifiable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0413","hypothesis":"A phase-shifted heating pair should identify thermal contact resistance independently of sample conductivity.","prediction":"A phase-shifted heating pair should identify thermal contact resistance independently of sample conductivity.","test":"Measure surface temperature fields.","contrary_outcome":"Parameters remain nonidentifiable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":42,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A phase-shifted heating pair identify thermal contact resistance independently of sample conductivity. experimental mechanism"},"dossier":{"id":"S1-0413","title":"Phase-shifted heating for thermal-contact identifiability","why_selected":"The core uncertainty is parameter identifiability, which can be tested before expensive apparatus construction.","sources":[{"title":"Electrothermal static contact: inverse analysis and experimental approach","url":"https://www.tandfonline.com/doi/full/10.1080/17415970903036777","access":"Primary title/URL metadata; full page denied access","finding":"Related inverse contact-analysis work was located. Its inaccessible contents are not used as evidence that the proposed two-heater phase protocol succeeds."}],"design":"Clamp two benign solid coupons at controlled force and use two small resistive heaters with independent sinusoidal phase control. Measure surface temperature amplitudes/phases at several positions using calibrated thermistors or an infrared camera with emissivity controls. Vary interface resistance with measured spacer films and separately vary bulk thickness. Pilot frequencies should span the observed thermal diffusion time; no single frequency is assumed sufficient.","endpoints":"Primary: held-out error of inferred contact resistance when bulk conductivity is independently changed. Secondary: parameter covariance and smallest sensitivity singular value. Proposed benefit: narrower uncertainty than in-phase heating at equal total heat input.","controls":"Single heater; in-phase heating; bonded reference contact; known thermal resistance standard; repeated remounting; convection shielding; heater-power measurement. Check that temperature modulation stays in the linear-property regime.","conditional_analysis":"For a discretized linear heat model C*Tdot+K(k,R)*T=q(phi,t), local identifiability requires independent columns of the sensitivity matrix S=[dT/dk,dT/dR]. If S has full column rank, S^T*W*S is positive definite for positive-definite measurement weights W. This is proved by v^T*S^T*W*S*v=(S*v)^T*W*(S*v)>0 for nonzero v. Phase shifting may change S but does not guarantee full rank or good conditioning. No geometry-independent physical theorem is defensible here.","analysis_plan":"Run sensitivity calculations with measured geometry, report singular values versus frequency and phase, then lock the chosen protocol before blind standards. Fit competing boundary-loss models and report residuals. Reject the claimed separation if confidence regions remain elongated or standards fail recovery.","limitations":"Unproved physical protocol. Primary related source was metadata-only; no claim about its results. Proposed simulations, if later run, must be labeled synthetic, and cannot establish experimental validity.","rank":5,"hypothesis":"A phase-shifted heating pair should identify thermal contact resistance independently of sample conductivity.","status":"speculative; no physical proof; no physical data collected"},"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0414","id":"S1-0414","volume":"900","title":"A translating slit should estimate beam shape with fewer calibration assumptions than a rotating aperture.","prediction":"A translating slit should estimate beam shape with fewer calibration assumptions than a rotating aperture.","test":"Reconstruct known beams.","contrary":"Shape bias remains comparable.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0414","hypothesis":"A translating slit should estimate beam shape with fewer calibration assumptions than a rotating aperture.","prediction":"A translating slit should estimate beam shape with fewer calibration assumptions than a rotating aperture.","test":"Reconstruct known beams.","contrary_outcome":"Shape bias remains comparable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0415","id":"S1-0415","volume":"900","title":"A magnetic bead-free torsion balance should resolve gas drag through decay-envelope asymmetry.","prediction":"A magnetic bead-free torsion balance should resolve gas drag through decay-envelope asymmetry.","test":"Vary pressure in a sealed chamber.","contrary":"Support loss dominates asymmetry.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0415","hypothesis":"A magnetic bead-free torsion balance should resolve gas drag through decay-envelope asymmetry.","prediction":"A magnetic bead-free torsion balance should resolve gas drag through decay-envelope asymmetry.","test":"Vary pressure in a sealed chamber.","contrary_outcome":"Support loss dominates asymmetry.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0416","id":"S1-0416","volume":"900","title":"A coupled acoustic cavity pair should estimate leakage location from antisymmetric-mode damping.","prediction":"A coupled acoustic cavity pair should estimate leakage location from antisymmetric-mode damping.","test":"Open calibrated leaks.","contrary":"Location cannot be inferred uniquely.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0416","hypothesis":"A coupled acoustic cavity pair should estimate leakage location from antisymmetric-mode damping.","prediction":"A coupled acoustic cavity pair should estimate leakage location from antisymmetric-mode damping.","test":"Open calibrated leaks.","contrary_outcome":"Location cannot be inferred uniquely.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0417","id":"S1-0417","volume":"900","title":"A mechanically modulated capacitance should distinguish dielectric moisture from changing electrode spacing.","prediction":"A mechanically modulated capacitance should distinguish dielectric moisture from changing electrode spacing.","test":"Vary spacing and humidity independently.","contrary":"Responses remain confounded.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0417","hypothesis":"A mechanically modulated capacitance should distinguish dielectric moisture from changing electrode spacing.","prediction":"A mechanically modulated capacitance should distinguish dielectric moisture from changing electrode spacing.","test":"Vary spacing and humidity independently.","contrary_outcome":"Responses remain confounded.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0418","id":"S1-0418","volume":"900","title":"A laser-free shadow sensor should measure shaft wobble using opposing knife edges.","prediction":"A laser-free shadow sensor should measure shaft wobble using opposing knife edges.","test":"Compare with calibrated eccentric shafts.","contrary":"Shadow ratios cannot reject intensity drift.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0418","hypothesis":"A laser-free shadow sensor should measure shaft wobble using opposing knife edges.","prediction":"A laser-free shadow sensor should measure shaft wobble using opposing knife edges.","test":"Compare with calibrated eccentric shafts.","contrary_outcome":"Shadow ratios cannot reject intensity drift.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0419","id":"S1-0419","volume":"900","title":"A thermal bridge array should locate a point contact from transient arrival times.","prediction":"A thermal bridge array should locate a point contact from transient arrival times.","test":"Apply contacts at known positions.","contrary":"Arrival times are too diffuse to localize.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0419","hypothesis":"A thermal bridge array should locate a point contact from transient arrival times.","prediction":"A thermal bridge array should locate a point contact from transient arrival times.","test":"Apply contacts at known positions.","contrary_outcome":"Arrival times are too diffuse to localize.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0420","id":"S1-0420","volume":"900","title":"A transparent force chain analogue should identify granular arch failure before discharge through stress redistribution.","prediction":"A transparent force chain analogue should identify granular arch failure before discharge through stress redistribution.","test":"Image photoelastic disks.","contrary":"Redistribution occurs only after flow begins.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0420","hypothesis":"A transparent force chain analogue should identify granular arch failure before discharge through stress redistribution.","prediction":"A transparent force chain analogue should identify granular arch failure before discharge through stress redistribution.","test":"Image photoelastic disks.","contrary_outcome":"Redistribution occurs only after flow begins.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0421","id":"S1-0421","volume":"900","title":"An inductive ring should estimate bolt preload through reversible magnetoelastic response after temperature correction.","prediction":"An inductive ring should estimate bolt preload through reversible magnetoelastic response after temperature correction.","test":"Calibrate instrumented bolts.","contrary":"Residual hysteresis prevents preload inference.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0421","hypothesis":"An inductive ring should estimate bolt preload through reversible magnetoelastic response after temperature correction.","prediction":"An inductive ring should estimate bolt preload through reversible magnetoelastic response after temperature correction.","test":"Calibrate instrumented bolts.","contrary_outcome":"Residual hysteresis prevents preload inference.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0421","hypothesis":"An inductive ring should estimate bolt preload through reversible magnetoelastic response after temperature correction.","prediction":"An inductive ring should estimate bolt preload through reversible magnetoelastic response after temperature correction.","test":"Calibrate instrumented bolts.","contrary_outcome":"Residual hysteresis prevents preload inference.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":43,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"An inductive ring estimate bolt preload through reversible magnetoelastic response after temperature correction. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0422","id":"S1-0422","volume":"900","title":"A passive fluid manometer should reject acceleration through opposed folded columns.","prediction":"A passive fluid manometer should reject acceleration through opposed folded columns.","test":"Accelerate under fixed pressure difference.","contrary":"Acceleration remains a dominant error.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0422","hypothesis":"A passive fluid manometer should reject acceleration through opposed folded columns.","prediction":"A passive fluid manometer should reject acceleration through opposed folded columns.","test":"Accelerate under fixed pressure difference.","contrary_outcome":"Acceleration remains a dominant error.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0423","id":"S1-0423","volume":"900","title":"A resonant cavity should detect a moving internal boundary from transient energy transfer between modes.","prediction":"A resonant cavity should detect a moving internal boundary from transient energy transfer between modes.","test":"Translate a calibrated partition.","contrary":"Mode-energy transfer is indistinguishable from source drift.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0423","hypothesis":"A resonant cavity should detect a moving internal boundary from transient energy transfer between modes.","prediction":"A resonant cavity should detect a moving internal boundary from transient energy transfer between modes.","test":"Translate a calibrated partition.","contrary_outcome":"Mode-energy transfer is indistinguishable from source drift.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0424","id":"S1-0424","volume":"900","title":"A mechanically chopped thermal signal should reveal coating delamination at lower heat input than steady heating.","prediction":"A mechanically chopped thermal signal should reveal coating delamination at lower heat input than steady heating.","test":"Compare detection thresholds.","contrary":"Modulation offers no sensitivity benefit.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0424","hypothesis":"A mechanically chopped thermal signal should reveal coating delamination at lower heat input than steady heating.","prediction":"A mechanically chopped thermal signal should reveal coating delamination at lower heat input than steady heating.","test":"Compare detection thresholds.","contrary_outcome":"Modulation offers no sensitivity benefit.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0425","id":"S1-0425","volume":"900","title":"A vibrating fork should estimate gas composition from independent inertia and damping observables.","prediction":"A vibrating fork should estimate gas composition from independent inertia and damping observables.","test":"Test known inert gas mixtures.","contrary":"Composition remains underdetermined.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0425","hypothesis":"A vibrating fork should estimate gas composition from independent inertia and damping observables.","prediction":"A vibrating fork should estimate gas composition from independent inertia and damping observables.","test":"Test known inert gas mixtures.","contrary_outcome":"Composition remains underdetermined.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0426","id":"S1-0426","volume":"900","title":"A passive optical scale should encode absolute position through unequal marker intervals robust to one missing marker.","prediction":"A passive optical scale should encode absolute position through unequal marker intervals robust to one missing marker.","test":"Delete controlled markers.","contrary":"Position reconstruction becomes ambiguous.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0426","hypothesis":"A passive optical scale should encode absolute position through unequal marker intervals robust to one missing marker.","prediction":"A passive optical scale should encode absolute position through unequal marker intervals robust to one missing marker.","test":"Delete controlled markers.","contrary_outcome":"Position reconstruction becomes ambiguous.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0427","id":"S1-0427","volume":"900","title":"A torsion balance should measure surface-tension gradients through rotation of a floating blade.","prediction":"A torsion balance should measure surface-tension gradients through rotation of a floating blade.","test":"Apply known gradients.","contrary":"Bulk flow explains all rotation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0427","hypothesis":"A torsion balance should measure surface-tension gradients through rotation of a floating blade.","prediction":"A torsion balance should measure surface-tension gradients through rotation of a floating blade.","test":"Apply known gradients.","contrary_outcome":"Bulk flow explains all rotation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0428","id":"S1-0428","volume":"900","title":"A capacitive guard should reduce fringing-field bias when liquid level approaches a vessel wall.","prediction":"A capacitive guard should reduce fringing-field bias when liquid level approaches a vessel wall.","test":"Calibrate known levels.","contrary":"Guard does not reduce bias.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0428","hypothesis":"A capacitive guard should reduce fringing-field bias when liquid level approaches a vessel wall.","prediction":"A capacitive guard should reduce fringing-field bias when liquid level approaches a vessel wall.","test":"Calibrate known levels.","contrary_outcome":"Guard does not reduce bias.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0429","id":"S1-0429","volume":"900","title":"A contact acoustic probe should distinguish loose from bonded layers through drive-amplitude dependence.","prediction":"A contact acoustic probe should distinguish loose from bonded layers through drive-amplitude dependence.","test":"Test controlled laminates.","contrary":"Amplitude dependence is not bond-specific.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0429","hypothesis":"A contact acoustic probe should distinguish loose from bonded layers through drive-amplitude dependence.","prediction":"A contact acoustic probe should distinguish loose from bonded layers through drive-amplitude dependence.","test":"Test controlled laminates.","contrary_outcome":"Amplitude dependence is not bond-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0430","id":"S1-0430","volume":"900","title":"A rotating thermal reflector should separate emissivity change from true temperature change using paired views.","prediction":"A rotating thermal reflector should separate emissivity change from true temperature change using paired views.","test":"Compare reference targets.","contrary":"Emissivity and temperature remain confounded.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0430","hypothesis":"A rotating thermal reflector should separate emissivity change from true temperature change using paired views.","prediction":"A rotating thermal reflector should separate emissivity change from true temperature change using paired views.","test":"Compare reference targets.","contrary_outcome":"Emissivity and temperature remain confounded.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0431","id":"S1-0431","volume":"900","title":"A membrane resonator should infer deposited particle location from three frequency shifts.","prediction":"A membrane resonator should infer deposited particle location from three frequency shifts.","test":"Place calibrated inert particles.","contrary":"Different locations remain indistinguishable.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0431","hypothesis":"A membrane resonator should infer deposited particle location from three frequency shifts.","prediction":"A membrane resonator should infer deposited particle location from three frequency shifts.","test":"Place calibrated inert particles.","contrary_outcome":"Different locations remain indistinguishable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0432","id":"S1-0432","volume":"900","title":"A differential pressure bridge should detect filter clogging while rejecting supply-pressure variation.","prediction":"A differential pressure bridge should detect filter clogging while rejecting supply-pressure variation.","test":"Vary clogging and supply independently.","contrary":"Supply changes dominate output.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0432","hypothesis":"A differential pressure bridge should detect filter clogging while rejecting supply-pressure variation.","prediction":"A differential pressure bridge should detect filter clogging while rejecting supply-pressure variation.","test":"Vary clogging and supply independently.","contrary_outcome":"Supply changes dominate output.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0433","id":"S1-0433","volume":"900","title":"A passive optical ring should reveal torsion through polarization change without responding equally to bending.","prediction":"A passive optical ring should reveal torsion through polarization change without responding equally to bending.","test":"Apply calibrated deformations.","contrary":"Bending cross-sensitivity remains equal.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0433","hypothesis":"A passive optical ring should reveal torsion through polarization change without responding equally to bending.","prediction":"A passive optical ring should reveal torsion through polarization change without responding equally to bending.","test":"Apply calibrated deformations.","contrary_outcome":"Bending cross-sensitivity remains equal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0434","id":"S1-0434","volume":"900","title":"A floating torsional disk should measure interfacial viscosity independently of bulk viscosity using frequency variation.","prediction":"A floating torsional disk should measure interfacial viscosity independently of bulk viscosity using frequency variation.","test":"Test known interfaces.","contrary":"Bulk contribution cannot be separated.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0434","hypothesis":"A floating torsional disk should measure interfacial viscosity independently of bulk viscosity using frequency variation.","prediction":"A floating torsional disk should measure interfacial viscosity independently of bulk viscosity using frequency variation.","test":"Test known interfaces.","contrary_outcome":"Bulk contribution cannot be separated.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0434","hypothesis":"A floating torsional disk should measure interfacial viscosity independently of bulk viscosity using frequency variation.","prediction":"A floating torsional disk should measure interfacial viscosity independently of bulk viscosity using frequency variation.","test":"Test known interfaces.","contrary_outcome":"Bulk contribution cannot be separated.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":44,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A floating torsional disk measure interfacial viscosity independently of bulk viscosity using frequency variation. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0435","id":"S1-0435","volume":"900","title":"A mechanically scanned aperture should quantify diffuse scattering without camera calibration.","prediction":"A mechanically scanned aperture should quantify diffuse scattering without camera calibration.","test":"Measure standards with known scattering.","contrary":"Aperture reconstruction remains biased.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0435","hypothesis":"A mechanically scanned aperture should quantify diffuse scattering without camera calibration.","prediction":"A mechanically scanned aperture should quantify diffuse scattering without camera calibration.","test":"Measure standards with known scattering.","contrary_outcome":"Aperture reconstruction remains biased.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0436","id":"S1-0436","volume":"900","title":"A heat-pulse sensor should estimate local contact area from early-time temperature response.","prediction":"A heat-pulse sensor should estimate local contact area from early-time temperature response.","test":"Apply known contact footprints.","contrary":"Early response depends only on total force.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0436","hypothesis":"A heat-pulse sensor should estimate local contact area from early-time temperature response.","prediction":"A heat-pulse sensor should estimate local contact area from early-time temperature response.","test":"Apply known contact footprints.","contrary_outcome":"Early response depends only on total force.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0437","id":"S1-0437","volume":"900","title":"A magnetic flux guide should amplify gap changes while rejecting uniform external field drift.","prediction":"A magnetic flux guide should amplify gap changes while rejecting uniform external field drift.","test":"Measure controlled gaps and external fields.","contrary":"Common-mode rejection fails.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0437","hypothesis":"A magnetic flux guide should amplify gap changes while rejecting uniform external field drift.","prediction":"A magnetic flux guide should amplify gap changes while rejecting uniform external field drift.","test":"Measure controlled gaps and external fields.","contrary_outcome":"Common-mode rejection fails.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0438","id":"S1-0438","volume":"900","title":"A resonant bar should distinguish uniform thinning from a localized notch through mode-shift ratios.","prediction":"A resonant bar should distinguish uniform thinning from a localized notch through mode-shift ratios.","test":"Machine known defects.","contrary":"Ratios overlap within uncertainty.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0438","hypothesis":"A resonant bar should distinguish uniform thinning from a localized notch through mode-shift ratios.","prediction":"A resonant bar should distinguish uniform thinning from a localized notch through mode-shift ratios.","test":"Machine known defects.","contrary_outcome":"Ratios overlap within uncertainty.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0439","id":"S1-0439","volume":"900","title":"A passive fluid oscillator should measure viscosity through onset pressure rather than oscillation frequency.","prediction":"A passive fluid oscillator should measure viscosity through onset pressure rather than oscillation frequency.","test":"Test calibration fluids.","contrary":"Threshold is dominated by surface tension.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0439","hypothesis":"A passive fluid oscillator should measure viscosity through onset pressure rather than oscillation frequency.","prediction":"A passive fluid oscillator should measure viscosity through onset pressure rather than oscillation frequency.","test":"Test calibration fluids.","contrary_outcome":"Threshold is dominated by surface tension.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0440","id":"S1-0440","volume":"900","title":"A differential optical lever should measure membrane slope while rejecting support translation.","prediction":"A differential optical lever should measure membrane slope while rejecting support translation.","test":"Move and tilt supports independently.","contrary":"Translation creates equivalent slope signals.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0440","hypothesis":"A differential optical lever should measure membrane slope while rejecting support translation.","prediction":"A differential optical lever should measure membrane slope while rejecting support translation.","test":"Move and tilt supports independently.","contrary_outcome":"Translation creates equivalent slope signals.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0441","id":"S1-0441","volume":"900","title":"A low-voltage impedance probe should detect a trapped gas layer behind a wet wall.","prediction":"A low-voltage impedance probe should detect a trapped gas layer behind a wet wall.","test":"Introduce controlled gaps.","contrary":"Electrode polarization masks the layer.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0441","hypothesis":"A low-voltage impedance probe should detect a trapped gas layer behind a wet wall.","prediction":"A low-voltage impedance probe should detect a trapped gas layer behind a wet wall.","test":"Introduce controlled gaps.","contrary_outcome":"Electrode polarization masks the layer.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0442","id":"S1-0442","volume":"900","title":"A spring-driven scan should map surface roughness through velocity fluctuation without a powered stage.","prediction":"A spring-driven scan should map surface roughness through velocity fluctuation without a powered stage.","test":"Scan calibrated roughness artifacts.","contrary":"Drive variation dominates signal.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0442","hypothesis":"A spring-driven scan should map surface roughness through velocity fluctuation without a powered stage.","prediction":"A spring-driven scan should map surface roughness through velocity fluctuation without a powered stage.","test":"Scan calibrated roughness artifacts.","contrary_outcome":"Drive variation dominates signal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0443","id":"S1-0443","volume":"900","title":"A thermal resonance should identify partial contact between nominally touching plates.","prediction":"A thermal resonance should identify partial contact between nominally touching plates.","test":"Measure response over controlled contact fractions.","contrary":"Response cannot resolve partial contact.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0443","hypothesis":"A thermal resonance should identify partial contact between nominally touching plates.","prediction":"A thermal resonance should identify partial contact between nominally touching plates.","test":"Measure response over controlled contact fractions.","contrary_outcome":"Response cannot resolve partial contact.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0444","id":"S1-0444","volume":"900","title":"A passive diffraction pattern should report biaxial strain from two nonparallel spot trajectories.","prediction":"A passive diffraction pattern should report biaxial strain from two nonparallel spot trajectories.","test":"Apply known strain tensors.","contrary":"Tensor reconstruction is ill-conditioned.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0444","hypothesis":"A passive diffraction pattern should report biaxial strain from two nonparallel spot trajectories.","prediction":"A passive diffraction pattern should report biaxial strain from two nonparallel spot trajectories.","test":"Apply known strain tensors.","contrary_outcome":"Tensor reconstruction is ill-conditioned.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0445","id":"S1-0445","volume":"900","title":"A dual-cavity acoustic sensor should reject temperature drift through opposite geometric responses.","prediction":"A dual-cavity acoustic sensor should reject temperature drift through opposite geometric responses.","test":"Measure under pressure and temperature variation.","contrary":"Cancellation also removes pressure sensitivity.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0445","hypothesis":"A dual-cavity acoustic sensor should reject temperature drift through opposite geometric responses.","prediction":"A dual-cavity acoustic sensor should reject temperature drift through opposite geometric responses.","test":"Measure under pressure and temperature variation.","contrary_outcome":"Cancellation also removes pressure sensitivity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0446","id":"S1-0446","volume":"900","title":"A suspended conductor should sense nearby rotation through eddy-current torque without tracking translation.","prediction":"A suspended conductor should sense nearby rotation through eddy-current torque without tracking translation.","test":"Apply independent target motions.","contrary":"Translation produces comparable torque.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0446","hypothesis":"A suspended conductor should sense nearby rotation through eddy-current torque without tracking translation.","prediction":"A suspended conductor should sense nearby rotation through eddy-current torque without tracking translation.","test":"Apply independent target motions.","contrary_outcome":"Translation produces comparable torque.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0447","id":"S1-0447","volume":"900","title":"A passive liquid lens should measure acceleration magnitude from focal astigmatism.","prediction":"A passive liquid lens should measure acceleration magnitude from focal astigmatism.","test":"Apply known acceleration directions.","contrary":"Astigmatism is dominated by contact-line hysteresis.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0447","hypothesis":"A passive liquid lens should measure acceleration magnitude from focal astigmatism.","prediction":"A passive liquid lens should measure acceleration magnitude from focal astigmatism.","test":"Apply known acceleration directions.","contrary_outcome":"Astigmatism is dominated by contact-line hysteresis.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0447","hypothesis":"A passive liquid lens should measure acceleration magnitude from focal astigmatism.","prediction":"A passive liquid lens should measure acceleration magnitude from focal astigmatism.","test":"Apply known acceleration directions.","contrary_outcome":"Astigmatism is dominated by contact-line hysteresis.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":45,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A passive liquid lens measure acceleration magnitude from focal astigmatism. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0448","id":"S1-0448","volume":"900","title":"A torsional cable should reveal internal strand breakage through asymmetric wave echoes.","prediction":"A torsional cable should reveal internal strand breakage through asymmetric wave echoes.","test":"Create controlled strand defects.","contrary":"Echo asymmetry does not identify breakage.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0448","hypothesis":"A torsional cable should reveal internal strand breakage through asymmetric wave echoes.","prediction":"A torsional cable should reveal internal strand breakage through asymmetric wave echoes.","test":"Create controlled strand defects.","contrary_outcome":"Echo asymmetry does not identify breakage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0449","id":"S1-0449","volume":"900","title":"A patterned thermal contact should increase identifiability of anisotropic conductivity.","prediction":"A patterned thermal contact should increase identifiability of anisotropic conductivity.","test":"Fit measured temperature fields.","contrary":"Anisotropy estimates remain degenerate.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0449","hypothesis":"A patterned thermal contact should increase identifiability of anisotropic conductivity.","prediction":"A patterned thermal contact should increase identifiability of anisotropic conductivity.","test":"Fit measured temperature fields.","contrary_outcome":"Anisotropy estimates remain degenerate.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0450","id":"S1-0450","volume":"900","title":"A double shadow edge should estimate droplet diameter while rejecting lateral trajectory variation.","prediction":"A double shadow edge should estimate droplet diameter while rejecting lateral trajectory variation.","test":"Pass known droplets.","contrary":"Trajectory bias remains large.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0450","hypothesis":"A double shadow edge should estimate droplet diameter while rejecting lateral trajectory variation.","prediction":"A double shadow edge should estimate droplet diameter while rejecting lateral trajectory variation.","test":"Pass known droplets.","contrary_outcome":"Trajectory bias remains large.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0451","id":"S1-0451","volume":"900","title":"An acoustic pulse should distinguish foam compression from foam wetting through separate arrival and attenuation changes.","prediction":"An acoustic pulse should distinguish foam compression from foam wetting through separate arrival and attenuation changes.","test":"Control both variables.","contrary":"Changes remain confounded.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0451","hypothesis":"An acoustic pulse should distinguish foam compression from foam wetting through separate arrival and attenuation changes.","prediction":"An acoustic pulse should distinguish foam compression from foam wetting through separate arrival and attenuation changes.","test":"Control both variables.","contrary_outcome":"Changes remain confounded.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0452","id":"S1-0452","volume":"900","title":"A balanced magnetic gradiometer should measure ferrous wear debris while rejecting uniform machine fields.","prediction":"A balanced magnetic gradiometer should measure ferrous wear debris while rejecting uniform machine fields.","test":"Add calibrated particles.","contrary":"Background fields overwhelm debris response.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0452","hypothesis":"A balanced magnetic gradiometer should measure ferrous wear debris while rejecting uniform machine fields.","prediction":"A balanced magnetic gradiometer should measure ferrous wear debris while rejecting uniform machine fields.","test":"Add calibrated particles.","contrary_outcome":"Background fields overwhelm debris response.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0453","id":"S1-0453","volume":"900","title":"A vibrating membrane should detect pinhole growth through mode-specific damping before visible tearing.","prediction":"A vibrating membrane should detect pinhole growth through mode-specific damping before visible tearing.","test":"Enlarge controlled pinholes.","contrary":"Damping changes are below drift.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0453","hypothesis":"A vibrating membrane should detect pinhole growth through mode-specific damping before visible tearing.","prediction":"A vibrating membrane should detect pinhole growth through mode-specific damping before visible tearing.","test":"Enlarge controlled pinholes.","contrary_outcome":"Damping changes are below drift.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0454","id":"S1-0454","volume":"900","title":"A passive optical fiducial should retain displacement calibration after uniform stretching through a length ratio.","prediction":"A passive optical fiducial should retain displacement calibration after uniform stretching through a length ratio.","test":"Stretch calibrated patterns.","contrary":"Ratio does not preserve calibration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0454","hypothesis":"A passive optical fiducial should retain displacement calibration after uniform stretching through a length ratio.","prediction":"A passive optical fiducial should retain displacement calibration after uniform stretching through a length ratio.","test":"Stretch calibrated patterns.","contrary_outcome":"Ratio does not preserve calibration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0455","id":"S1-0455","volume":"900","title":"A pressure-pulse reflectometer should localize soft obstructions by nonlinear echo timing.","prediction":"A pressure-pulse reflectometer should localize soft obstructions by nonlinear echo timing.","test":"Place controlled compliant plugs.","contrary":"Echo timing cannot separate location and compliance.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0455","hypothesis":"A pressure-pulse reflectometer should localize soft obstructions by nonlinear echo timing.","prediction":"A pressure-pulse reflectometer should localize soft obstructions by nonlinear echo timing.","test":"Place controlled compliant plugs.","contrary_outcome":"Echo timing cannot separate location and compliance.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0456","id":"S1-0456","volume":"900","title":"A thermal diffuser should make heat-flux measurement less sensitive to heater footprint.","prediction":"A thermal diffuser should make heat-flux measurement less sensitive to heater footprint.","test":"Vary equal-power footprints.","contrary":"Reading remains footprint-dependent.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0456","hypothesis":"A thermal diffuser should make heat-flux measurement less sensitive to heater footprint.","prediction":"A thermal diffuser should make heat-flux measurement less sensitive to heater footprint.","test":"Vary equal-power footprints.","contrary_outcome":"Reading remains footprint-dependent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0457","id":"S1-0457","volume":"900","title":"A mechanically switched reference resistor should expose thermoelectric offsets in slow impedance measurement.","prediction":"A mechanically switched reference resistor should expose thermoelectric offsets in slow impedance measurement.","test":"Reverse contact sequence.","contrary":"Offsets cannot be distinguished from switching artifacts.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0457","hypothesis":"A mechanically switched reference resistor should expose thermoelectric offsets in slow impedance measurement.","prediction":"A mechanically switched reference resistor should expose thermoelectric offsets in slow impedance measurement.","test":"Reverse contact sequence.","contrary_outcome":"Offsets cannot be distinguished from switching artifacts.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0458","id":"S1-0458","volume":"900","title":"A resonant coil should estimate fluid density through movable-core buoyancy without direct fluid electrical contact.","prediction":"A resonant coil should estimate fluid density through movable-core buoyancy without direct fluid electrical contact.","test":"Test known densities.","contrary":"Stiction prevents useful calibration.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0458","hypothesis":"A resonant coil should estimate fluid density through movable-core buoyancy without direct fluid electrical contact.","prediction":"A resonant coil should estimate fluid density through movable-core buoyancy without direct fluid electrical contact.","test":"Test known densities.","contrary_outcome":"Stiction prevents useful calibration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0459","id":"S1-0459","volume":"900","title":"A spatially chirped grating should locate a crack through the wavelength range losing diffraction coherence.","prediction":"A spatially chirped grating should locate a crack through the wavelength range losing diffraction coherence.","test":"Introduce known cracks.","contrary":"Coherence loss is nonlocal and ambiguous.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0459","hypothesis":"A spatially chirped grating should locate a crack through the wavelength range losing diffraction coherence.","prediction":"A spatially chirped grating should locate a crack through the wavelength range losing diffraction coherence.","test":"Introduce known cracks.","contrary_outcome":"Coherence loss is nonlocal and ambiguous.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0459","hypothesis":"A spatially chirped grating should locate a crack through the wavelength range losing diffraction coherence.","prediction":"A spatially chirped grating should locate a crack through the wavelength range losing diffraction coherence.","test":"Introduce known cracks.","contrary_outcome":"Coherence loss is nonlocal and ambiguous.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":46,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A spatially chirped grating locate a crack through the wavelength range losing diffraction coherence. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0460","id":"S1-0460","volume":"900","title":"A gas-column resonance should measure container volume despite uncertain neck shape using two filling states.","prediction":"A gas-column resonance should measure container volume despite uncertain neck shape using two filling states.","test":"Compare calibrated vessels.","contrary":"Neck uncertainty remains dominant.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0460","hypothesis":"A gas-column resonance should measure container volume despite uncertain neck shape using two filling states.","prediction":"A gas-column resonance should measure container volume despite uncertain neck shape using two filling states.","test":"Compare calibrated vessels.","contrary_outcome":"Neck uncertainty remains dominant.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0461","id":"S1-0461","volume":"900","title":"A compliant optical shutter should estimate pressure rise time from maximum opening rather than final displacement.","prediction":"A compliant optical shutter should estimate pressure rise time from maximum opening rather than final displacement.","test":"Apply matched-peak pulses.","contrary":"Maximum opening cannot resolve rise time.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0461","hypothesis":"A compliant optical shutter should estimate pressure rise time from maximum opening rather than final displacement.","prediction":"A compliant optical shutter should estimate pressure rise time from maximum opening rather than final displacement.","test":"Apply matched-peak pulses.","contrary_outcome":"Maximum opening cannot resolve rise time.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0462","id":"S1-0462","volume":"900","title":"A passive bridge circuit should detect reversible contact micro-slip through resistance noise spectra.","prediction":"A passive bridge circuit should detect reversible contact micro-slip through resistance noise spectra.","test":"Apply calibrated tangential load.","contrary":"Noise reflects external interference only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0462","hypothesis":"A passive bridge circuit should detect reversible contact micro-slip through resistance noise spectra.","prediction":"A passive bridge circuit should detect reversible contact micro-slip through resistance noise spectra.","test":"Apply calibrated tangential load.","contrary_outcome":"Noise reflects external interference only.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0463","id":"S1-0463","volume":"900","title":"A thermal contact probe should distinguish a thin coating from a thick low-conductivity substrate through two pulse durations.","prediction":"A thermal contact probe should distinguish a thin coating from a thick low-conductivity substrate through two pulse durations.","test":"Test known layered standards.","contrary":"Responses overlap.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0463","hypothesis":"A thermal contact probe should distinguish a thin coating from a thick low-conductivity substrate through two pulse durations.","prediction":"A thermal contact probe should distinguish a thin coating from a thick low-conductivity substrate through two pulse durations.","test":"Test known layered standards.","contrary_outcome":"Responses overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0464","id":"S1-0464","volume":"900","title":"A vibrating ring should measure anisotropic support stiffness from standing-wave orientation.","prediction":"A vibrating ring should measure anisotropic support stiffness from standing-wave orientation.","test":"Adjust support stiffness directions.","contrary":"Orientation fails to track anisotropy.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0464","hypothesis":"A vibrating ring should measure anisotropic support stiffness from standing-wave orientation.","prediction":"A vibrating ring should measure anisotropic support stiffness from standing-wave orientation.","test":"Adjust support stiffness directions.","contrary_outcome":"Orientation fails to track anisotropy.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0465","id":"S1-0465","volume":"900","title":"A capillary optical path should measure dissolved-gas loss through bubble-induced phase steps.","prediction":"A capillary optical path should measure dissolved-gas loss through bubble-induced phase steps.","test":"Degas known liquid volumes.","contrary":"Phase steps cannot quantify gas loss.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0465","hypothesis":"A capillary optical path should measure dissolved-gas loss through bubble-induced phase steps.","prediction":"A capillary optical path should measure dissolved-gas loss through bubble-induced phase steps.","test":"Degas known liquid volumes.","contrary_outcome":"Phase steps cannot quantify gas loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0466","id":"S1-0466","volume":"900","title":"A balanced pendulum pair should reject base tilt while detecting local magnetic-gradient torque.","prediction":"A balanced pendulum pair should reject base tilt while detecting local magnetic-gradient torque.","test":"Apply separate disturbances.","contrary":"Tilt leakage exceeds target torque.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0466","hypothesis":"A balanced pendulum pair should reject base tilt while detecting local magnetic-gradient torque.","prediction":"A balanced pendulum pair should reject base tilt while detecting local magnetic-gradient torque.","test":"Apply separate disturbances.","contrary_outcome":"Tilt leakage exceeds target torque.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0467","id":"S1-0467","volume":"900","title":"A differential acoustic echo should reveal slow creep at a joint through changing reflection phase.","prediction":"A differential acoustic echo should reveal slow creep at a joint through changing reflection phase.","test":"Measure loaded joints over time.","contrary":"Phase drift is dominated by temperature.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0467","hypothesis":"A differential acoustic echo should reveal slow creep at a joint through changing reflection phase.","prediction":"A differential acoustic echo should reveal slow creep at a joint through changing reflection phase.","test":"Measure loaded joints over time.","contrary_outcome":"Phase drift is dominated by temperature.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0467","hypothesis":"A differential acoustic echo should reveal slow creep at a joint through changing reflection phase.","prediction":"A differential acoustic echo should reveal slow creep at a joint through changing reflection phase.","test":"Measure loaded joints over time.","contrary_outcome":"Phase drift is dominated by temperature.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":47,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A differential acoustic echo reveal slow creep at a joint through changing reflection phase. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0468","id":"S1-0468","volume":"900","title":"A porous thermal sensor should detect local drying from a change in cooling time rather than equilibrium temperature.","prediction":"A porous thermal sensor should detect local drying from a change in cooling time rather than equilibrium temperature.","test":"Measure known moisture states.","contrary":"Time constants are nonmonotonic.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0468","hypothesis":"A porous thermal sensor should detect local drying from a change in cooling time rather than equilibrium temperature.","prediction":"A porous thermal sensor should detect local drying from a change in cooling time rather than equilibrium temperature.","test":"Measure known moisture states.","contrary_outcome":"Time constants are nonmonotonic.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0469","id":"S1-0469","volume":"900","title":"A passive optical moire pair should magnify minute rotation while preserving translation discrimination.","prediction":"A passive optical moire pair should magnify minute rotation while preserving translation discrimination.","test":"Apply calibrated motions.","contrary":"Translation generates indistinguishable fringe changes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0469","hypothesis":"A passive optical moire pair should magnify minute rotation while preserving translation discrimination.","prediction":"A passive optical moire pair should magnify minute rotation while preserving translation discrimination.","test":"Apply calibrated motions.","contrary_outcome":"Translation generates indistinguishable fringe changes.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0470","id":"S1-0470","volume":"900","title":"A spring-loaded ultrasonic reflector should measure contact force from echo spacing.","prediction":"A spring-loaded ultrasonic reflector should measure contact force from echo spacing.","test":"Apply known loads.","contrary":"Reflector hysteresis prevents force calibration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0470","hypothesis":"A spring-loaded ultrasonic reflector should measure contact force from echo spacing.","prediction":"A spring-loaded ultrasonic reflector should measure contact force from echo spacing.","test":"Apply known loads.","contrary_outcome":"Reflector hysteresis prevents force calibration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0471","id":"S1-0471","volume":"900","title":"A thermal wedge should separate lateral from through-thickness conductivity through asymmetric heating.","prediction":"A thermal wedge should separate lateral from through-thickness conductivity through asymmetric heating.","test":"Compare anisotropic standards.","contrary":"Both conductivities remain correlated in fits.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0471","hypothesis":"A thermal wedge should separate lateral from through-thickness conductivity through asymmetric heating.","prediction":"A thermal wedge should separate lateral from through-thickness conductivity through asymmetric heating.","test":"Compare anisotropic standards.","contrary_outcome":"Both conductivities remain correlated in fits.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0472","id":"S1-0472","volume":"900","title":"A resonant tuning pair should detect asymmetric mass deposition by beat-frequency splitting.","prediction":"A resonant tuning pair should detect asymmetric mass deposition by beat-frequency splitting.","test":"Deposit known masses.","contrary":"Splitting is insensitive to deposition asymmetry.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0472","hypothesis":"A resonant tuning pair should detect asymmetric mass deposition by beat-frequency splitting.","prediction":"A resonant tuning pair should detect asymmetric mass deposition by beat-frequency splitting.","test":"Deposit known masses.","contrary_outcome":"Splitting is insensitive to deposition asymmetry.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0473","id":"S1-0473","volume":"900","title":"A fluidic Wheatstone bridge should distinguish viscosity drift from outlet blockage using two pressure ratios.","prediction":"A fluidic Wheatstone bridge should distinguish viscosity drift from outlet blockage using two pressure ratios.","test":"Vary both independently.","contrary":"Ratios remain degenerate.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0473","hypothesis":"A fluidic Wheatstone bridge should distinguish viscosity drift from outlet blockage using two pressure ratios.","prediction":"A fluidic Wheatstone bridge should distinguish viscosity drift from outlet blockage using two pressure ratios.","test":"Vary both independently.","contrary_outcome":"Ratios remain degenerate.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0474","id":"S1-0474","volume":"900","title":"A shadowgraph should reveal subvisible capillary waves through a moving reference edge.","prediction":"A shadowgraph should reveal subvisible capillary waves through a moving reference edge.","test":"Compare with interferometric profiles.","contrary":"Edge motion adds more noise than signal.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0474","hypothesis":"A shadowgraph should reveal subvisible capillary waves through a moving reference edge.","prediction":"A shadowgraph should reveal subvisible capillary waves through a moving reference edge.","test":"Compare with interferometric profiles.","contrary_outcome":"Edge motion adds more noise than signal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0475","id":"S1-0475","volume":"900","title":"A mechanically scanned magnet should locate buried conductive cracks by the drag-force gradient.","prediction":"A mechanically scanned magnet should locate buried conductive cracks by the drag-force gradient.","test":"Scan controlled notches.","contrary":"Gradient does not localize defects.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0475","hypothesis":"A mechanically scanned magnet should locate buried conductive cracks by the drag-force gradient.","prediction":"A mechanically scanned magnet should locate buried conductive cracks by the drag-force gradient.","test":"Scan controlled notches.","contrary_outcome":"Gradient does not localize defects.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0476","id":"S1-0476","volume":"900","title":"A thermal-wave phase map should estimate coating thickness despite unknown heater intensity.","prediction":"A thermal-wave phase map should estimate coating thickness despite unknown heater intensity.","test":"Measure standards at multiple frequencies.","contrary":"Thickness remains intensity-dependent.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0476","hypothesis":"A thermal-wave phase map should estimate coating thickness despite unknown heater intensity.","prediction":"A thermal-wave phase map should estimate coating thickness despite unknown heater intensity.","test":"Measure standards at multiple frequencies.","contrary_outcome":"Thickness remains intensity-dependent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0477","id":"S1-0477","volume":"900","title":"A passive acoustic lens should improve leak localization by focusing airborne sound onto one sensor.","prediction":"A passive acoustic lens should improve leak localization by focusing airborne sound onto one sensor.","test":"Locate controlled leaks.","contrary":"Focus does not reduce angular uncertainty.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0477","hypothesis":"A passive acoustic lens should improve leak localization by focusing airborne sound onto one sensor.","prediction":"A passive acoustic lens should improve leak localization by focusing airborne sound onto one sensor.","test":"Locate controlled leaks.","contrary_outcome":"Focus does not reduce angular uncertainty.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0478","id":"S1-0478","volume":"900","title":"A flexural resonance ratio should identify loss of clamp contact area independently of beam mass.","prediction":"A flexural resonance ratio should identify loss of clamp contact area independently of beam mass.","test":"Vary contact and added mass separately.","contrary":"Parameter estimates remain inseparable.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0478","hypothesis":"A flexural resonance ratio should identify loss of clamp contact area independently of beam mass.","prediction":"A flexural resonance ratio should identify loss of clamp contact area independently of beam mass.","test":"Vary contact and added mass separately.","contrary_outcome":"Parameter estimates remain inseparable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0479","id":"S1-0479","volume":"900","title":"A paired liquid-column sensor should estimate pressure while compensating evaporation loss.","prediction":"A paired liquid-column sensor should estimate pressure while compensating evaporation loss.","test":"Measure long-term calibration against reference.","contrary":"Evaporation compensation fails.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0479","hypothesis":"A paired liquid-column sensor should estimate pressure while compensating evaporation loss.","prediction":"A paired liquid-column sensor should estimate pressure while compensating evaporation loss.","test":"Measure long-term calibration against reference.","contrary_outcome":"Evaporation compensation fails.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0479","hypothesis":"A paired liquid-column sensor should estimate pressure while compensating evaporation loss.","prediction":"A paired liquid-column sensor should estimate pressure while compensating evaporation loss.","test":"Measure long-term calibration against reference.","contrary_outcome":"Evaporation compensation fails.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":48,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A paired liquid-column sensor estimate pressure while compensating evaporation loss. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0480","id":"S1-0480","volume":"900","title":"A patterned mirror should expose local curvature errors through unequal reflected-grid spacing.","prediction":"A patterned mirror should expose local curvature errors through unequal reflected-grid spacing.","test":"Measure calibrated warped mirrors.","contrary":"Spacing cannot distinguish curvature from alignment.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0480","hypothesis":"A patterned mirror should expose local curvature errors through unequal reflected-grid spacing.","prediction":"A patterned mirror should expose local curvature errors through unequal reflected-grid spacing.","test":"Measure calibrated warped mirrors.","contrary_outcome":"Spacing cannot distinguish curvature from alignment.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0481","id":"S1-0481","volume":"900","title":"A passive resonant thermometer should reject external pressure through an internal reference beam.","prediction":"A passive resonant thermometer should reject external pressure through an internal reference beam.","test":"Measure pressure-temperature grid.","contrary":"Residual pressure error remains large.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0481","hypothesis":"A passive resonant thermometer should reject external pressure through an internal reference beam.","prediction":"A passive resonant thermometer should reject external pressure through an internal reference beam.","test":"Measure pressure-temperature grid.","contrary_outcome":"Residual pressure error remains large.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0482","id":"S1-0482","volume":"900","title":"A gas-pulse calorimeter should estimate heat-transfer coefficient from decay after an isolated compression.","prediction":"A gas-pulse calorimeter should estimate heat-transfer coefficient from decay after an isolated compression.","test":"Compare known flow conditions.","contrary":"Compression artifacts dominate decay.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0482","hypothesis":"A gas-pulse calorimeter should estimate heat-transfer coefficient from decay after an isolated compression.","prediction":"A gas-pulse calorimeter should estimate heat-transfer coefficient from decay after an isolated compression.","test":"Compare known flow conditions.","contrary_outcome":"Compression artifacts dominate decay.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0483","id":"S1-0483","volume":"900","title":"A magnetic clutch should reveal incipient misalignment through sidebands before torque loss.","prediction":"A magnetic clutch should reveal incipient misalignment through sidebands before torque loss.","test":"Impose known offsets.","contrary":"Sidebands appear only after substantial slip.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0483","hypothesis":"A magnetic clutch should reveal incipient misalignment through sidebands before torque loss.","prediction":"A magnetic clutch should reveal incipient misalignment through sidebands before torque loss.","test":"Impose known offsets.","contrary_outcome":"Sidebands appear only after substantial slip.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0484","id":"S1-0484","volume":"900","title":"A differential refractometer should distinguish concentration change from bubble contamination by temporal intermittency.","prediction":"A differential refractometer should distinguish concentration change from bubble contamination by temporal intermittency.","test":"Introduce controlled bubbles.","contrary":"Bubble artifacts mimic concentration drift.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0484","hypothesis":"A differential refractometer should distinguish concentration change from bubble contamination by temporal intermittency.","prediction":"A differential refractometer should distinguish concentration change from bubble contamination by temporal intermittency.","test":"Introduce controlled bubbles.","contrary_outcome":"Bubble artifacts mimic concentration drift.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0485","id":"S1-0485","volume":"900","title":"A membrane-mounted reflector should measure low-force contact through optical path change with reduced support creep.","prediction":"A membrane-mounted reflector should measure low-force contact through optical path change with reduced support creep.","test":"Compare rigidly supported controls.","contrary":"Creep remains comparable.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0485","hypothesis":"A membrane-mounted reflector should measure low-force contact through optical path change with reduced support creep.","prediction":"A membrane-mounted reflector should measure low-force contact through optical path change with reduced support creep.","test":"Compare rigidly supported controls.","contrary_outcome":"Creep remains comparable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0486","id":"S1-0486","volume":"900","title":"A thermally modulated cavity should separate gas leakage from permeation using transient scaling.","prediction":"A thermally modulated cavity should separate gas leakage from permeation using transient scaling.","test":"Measure calibrated leaks and permeable films.","contrary":"Scaling distributions overlap.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0486","hypothesis":"A thermally modulated cavity should separate gas leakage from permeation using transient scaling.","prediction":"A thermally modulated cavity should separate gas leakage from permeation using transient scaling.","test":"Measure calibrated leaks and permeable films.","contrary_outcome":"Scaling distributions overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0487","id":"S1-0487","volume":"900","title":"A passive torsion indicator should measure screw loosening from angular resonance without referencing screw-head position.","prediction":"A passive torsion indicator should measure screw loosening from angular resonance without referencing screw-head position.","test":"Loosen known increments.","contrary":"Resonance does not track preload loss.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0487","hypothesis":"A passive torsion indicator should measure screw loosening from angular resonance without referencing screw-head position.","prediction":"A passive torsion indicator should measure screw loosening from angular resonance without referencing screw-head position.","test":"Loosen known increments.","contrary_outcome":"Resonance does not track preload loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0487","hypothesis":"A passive torsion indicator should measure screw loosening from angular resonance without referencing screw-head position.","prediction":"A passive torsion indicator should measure screw loosening from angular resonance without referencing screw-head position.","test":"Loosen known increments.","contrary_outcome":"Resonance does not track preload loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":49,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A passive torsion indicator measure screw loosening from angular resonance without referencing screw-head position. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0488","id":"S1-0488","volume":"900","title":"A coupled fluid column should detect partial freezing through split resonance onset.","prediction":"A coupled fluid column should detect partial freezing through split resonance onset.","test":"Freeze controlled water volumes.","contrary":"Splitting appears only after complete blockage.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0488","hypothesis":"A coupled fluid column should detect partial freezing through split resonance onset.","prediction":"A coupled fluid column should detect partial freezing through split resonance onset.","test":"Freeze controlled water volumes.","contrary_outcome":"Splitting appears only after complete blockage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0489","id":"S1-0489","volume":"900","title":"A scanning slit should quantify rolling-shutter distortion in an optical sensor without electronic timing access.","prediction":"A scanning slit should quantify rolling-shutter distortion in an optical sensor without electronic timing access.","test":"Image known mechanical motion.","contrary":"Reconstruction fails against timing reference.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0489","hypothesis":"A scanning slit should quantify rolling-shutter distortion in an optical sensor without electronic timing access.","prediction":"A scanning slit should quantify rolling-shutter distortion in an optical sensor without electronic timing access.","test":"Image known mechanical motion.","contrary_outcome":"Reconstruction fails against timing reference.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0490","id":"S1-0490","volume":"900","title":"A compliant magnetic target should amplify small pressure differences into a detectable gap change.","prediction":"A compliant magnetic target should amplify small pressure differences into a detectable gap change.","test":"Measure pressure and gap.","contrary":"Magnetic attraction destabilizes calibration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0490","hypothesis":"A compliant magnetic target should amplify small pressure differences into a detectable gap change.","prediction":"A compliant magnetic target should amplify small pressure differences into a detectable gap change.","test":"Measure pressure and gap.","contrary_outcome":"Magnetic attraction destabilizes calibration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0491","id":"S1-0491","volume":"900","title":"A thermal bridge should distinguish an air gap from a low-density solid through pressure dependence.","prediction":"A thermal bridge should distinguish an air gap from a low-density solid through pressure dependence.","test":"Vary chamber pressure.","contrary":"Responses remain indistinguishable.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0491","hypothesis":"A thermal bridge should distinguish an air gap from a low-density solid through pressure dependence.","prediction":"A thermal bridge should distinguish an air gap from a low-density solid through pressure dependence.","test":"Vary chamber pressure.","contrary_outcome":"Responses remain indistinguishable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0492","id":"S1-0492","volume":"900","title":"A passive acoustic scatterer should reveal flow direction through unequal upstream and downstream echo changes.","prediction":"A passive acoustic scatterer should reveal flow direction through unequal upstream and downstream echo changes.","test":"Reverse calibrated flows.","contrary":"Echo asymmetry does not reverse.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0492","hypothesis":"A passive acoustic scatterer should reveal flow direction through unequal upstream and downstream echo changes.","prediction":"A passive acoustic scatterer should reveal flow direction through unequal upstream and downstream echo changes.","test":"Reverse calibrated flows.","contrary_outcome":"Echo asymmetry does not reverse.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0493","id":"S1-0493","volume":"900","title":"A spring-supported optical prism should measure jerk through transient angle overshoot.","prediction":"A spring-supported optical prism should measure jerk through transient angle overshoot.","test":"Apply known acceleration ramps.","contrary":"Overshoot follows acceleration alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0493","hypothesis":"A spring-supported optical prism should measure jerk through transient angle overshoot.","prediction":"A spring-supported optical prism should measure jerk through transient angle overshoot.","test":"Apply known acceleration ramps.","contrary_outcome":"Overshoot follows acceleration alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0494","id":"S1-0494","volume":"900","title":"A resonant fluid pouch should estimate gas fraction from two acoustic modes.","prediction":"A resonant fluid pouch should estimate gas fraction from two acoustic modes.","test":"Test known mixtures.","contrary":"Gas distribution prevents unique inference.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0494","hypothesis":"A resonant fluid pouch should estimate gas fraction from two acoustic modes.","prediction":"A resonant fluid pouch should estimate gas fraction from two acoustic modes.","test":"Test known mixtures.","contrary_outcome":"Gas distribution prevents unique inference.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0495","id":"S1-0495","volume":"900","title":"A differential contact thermometer should detect local heat generation while rejecting uniform ambient drift.","prediction":"A differential contact thermometer should detect local heat generation while rejecting uniform ambient drift.","test":"Apply localized and uniform heating.","contrary":"Ambient rejection is inadequate.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0495","hypothesis":"A differential contact thermometer should detect local heat generation while rejecting uniform ambient drift.","prediction":"A differential contact thermometer should detect local heat generation while rejecting uniform ambient drift.","test":"Apply localized and uniform heating.","contrary_outcome":"Ambient rejection is inadequate.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0496","id":"S1-0496","volume":"900","title":"A patterned elastic substrate should reveal adhesive-free contact area through colorless diffraction contrast.","prediction":"A patterned elastic substrate should reveal adhesive-free contact area through colorless diffraction contrast.","test":"Load known shapes.","contrary":"Contrast fails to track true contact.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0496","hypothesis":"A patterned elastic substrate should reveal adhesive-free contact area through colorless diffraction contrast.","prediction":"A patterned elastic substrate should reveal adhesive-free contact area through colorless diffraction contrast.","test":"Load known shapes.","contrary_outcome":"Contrast fails to track true contact.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0497","id":"S1-0497","volume":"900","title":"A passive inductive bridge should detect anisotropic metal thinning through rotation-dependent impedance.","prediction":"A passive inductive bridge should detect anisotropic metal thinning through rotation-dependent impedance.","test":"Machine controlled thickness patterns.","contrary":"Rotation dependence lacks thickness information.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0497","hypothesis":"A passive inductive bridge should detect anisotropic metal thinning through rotation-dependent impedance.","prediction":"A passive inductive bridge should detect anisotropic metal thinning through rotation-dependent impedance.","test":"Machine controlled thickness patterns.","contrary_outcome":"Rotation dependence lacks thickness information.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0498","id":"S1-0498","volume":"900","title":"A thermal pulse pair should identify heat capacity separately from thermal resistance at a small joint.","prediction":"A thermal pulse pair should identify heat capacity separately from thermal resistance at a small joint.","test":"Fit standards with known parameters.","contrary":"Fits remain nonidentifiable.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0498","hypothesis":"A thermal pulse pair should identify heat capacity separately from thermal resistance at a small joint.","prediction":"A thermal pulse pair should identify heat capacity separately from thermal resistance at a small joint.","test":"Fit standards with known parameters.","contrary_outcome":"Fits remain nonidentifiable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0498","hypothesis":"A thermal pulse pair should identify heat capacity separately from thermal resistance at a small joint.","prediction":"A thermal pulse pair should identify heat capacity separately from thermal resistance at a small joint.","test":"Fit standards with known parameters.","contrary_outcome":"Fits remain nonidentifiable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":50,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A thermal pulse pair identify heat capacity separately from thermal resistance at a small joint. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0499","id":"S1-0499","volume":"900","title":"A folded optical reference path should reduce air-index drift in displacement metrology.","prediction":"A folded optical reference path should reduce air-index drift in displacement metrology.","test":"Compare against an open straight path.","contrary":"Drift is unchanged.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0499","hypothesis":"A folded optical reference path should reduce air-index drift in displacement metrology.","prediction":"A folded optical reference path should reduce air-index drift in displacement metrology.","test":"Compare against an open straight path.","contrary_outcome":"Drift is unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0500","id":"S1-0500","volume":"900","title":"A mechanically gated microphone should reject steady fan noise while preserving impulsive leak events.","prediction":"A mechanically gated microphone should reject steady fan noise while preserving impulsive leak events.","test":"Test calibrated acoustic events.","contrary":"Gating removes desired events equally.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0500","hypothesis":"A mechanically gated microphone should reject steady fan noise while preserving impulsive leak events.","prediction":"A mechanically gated microphone should reject steady fan noise while preserving impulsive leak events.","test":"Test calibrated acoustic events.","contrary_outcome":"Gating removes desired events equally.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0501","id":"S1-0501","volume":"900","title":"A hanging thermal flap should oscillate under steady heating through delayed self-shading.","prediction":"A hanging thermal flap should oscillate under steady heating through delayed self-shading.","test":"Measure motion under constant illumination.","contrary":"Only transient motion occurs.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0501","hypothesis":"A hanging thermal flap should oscillate under steady heating through delayed self-shading.","prediction":"A hanging thermal flap should oscillate under steady heating through delayed self-shading.","test":"Measure motion under constant illumination.","contrary_outcome":"Only transient motion occurs.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0501","hypothesis":"A hanging thermal flap should oscillate under steady heating through delayed self-shading.","prediction":"A hanging thermal flap should oscillate under steady heating through delayed self-shading.","test":"Measure motion under constant illumination.","contrary_outcome":"Only transient motion occurs.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":51,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A hanging thermal flap oscillate under steady heating through delayed self-shading. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0502","id":"S1-0502","volume":"900","title":"A phase-change pocket should buffer contact force during slow thermal expansion.","prediction":"A phase-change pocket should buffer contact force during slow thermal expansion.","test":"Measure force-temperature cycles.","contrary":"Force rises as in a solid spacer.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0502","hypothesis":"A phase-change pocket should buffer contact force during slow thermal expansion.","prediction":"A phase-change pocket should buffer contact force during slow thermal expansion.","test":"Measure force-temperature cycles.","contrary_outcome":"Force rises as in a solid spacer.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0503","id":"S1-0503","volume":"900","title":"A radiative shield should shed condensate faster when its support tilts under droplet weight.","prediction":"A radiative shield should shed condensate faster when its support tilts under droplet weight.","test":"Measure clearing time.","contrary":"Tilt does not improve clearing.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0503","hypothesis":"A radiative shield should shed condensate faster when its support tilts under droplet weight.","prediction":"A radiative shield should shed condensate faster when its support tilts under droplet weight.","test":"Measure clearing time.","contrary_outcome":"Tilt does not improve clearing.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0504","id":"S1-0504","volume":"900","title":"A sealed air loop should circulate liquid under alternating boundary temperatures without net pressure input.","prediction":"A sealed air loop should circulate liquid under alternating boundary temperatures without net pressure input.","test":"Track tracers.","contrary":"No sustained circulation develops.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0504","hypothesis":"A sealed air loop should circulate liquid under alternating boundary temperatures without net pressure input.","prediction":"A sealed air loop should circulate liquid under alternating boundary temperatures without net pressure input.","test":"Track tracers.","contrary_outcome":"No sustained circulation develops.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0505","id":"S1-0505","volume":"900","title":"A thermally expanding spiral should open a vent before nearby insulation reaches its softening temperature.","prediction":"A thermally expanding spiral should open a vent before nearby insulation reaches its softening temperature.","test":"Measure opening and temperature.","contrary":"Opening occurs too late.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0505","hypothesis":"A thermally expanding spiral should open a vent before nearby insulation reaches its softening temperature.","prediction":"A thermally expanding spiral should open a vent before nearby insulation reaches its softening temperature.","test":"Measure opening and temperature.","contrary_outcome":"Opening occurs too late.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0506","id":"S1-0506","volume":"900","title":"A liquid-filled thermal switch should resist false triggering from short hot pulses.","prediction":"A liquid-filled thermal switch should resist false triggering from short hot pulses.","test":"Apply equal-peak heat pulses.","contrary":"Pulse duration does not affect triggering.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0506","hypothesis":"A liquid-filled thermal switch should resist false triggering from short hot pulses.","prediction":"A liquid-filled thermal switch should resist false triggering from short hot pulses.","test":"Apply equal-peak heat pulses.","contrary_outcome":"Pulse duration does not affect triggering.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0507","id":"S1-0507","volume":"900","title":"A reflective folded screen should adjust its projected area as temperature increases.","prediction":"A reflective folded screen should adjust its projected area as temperature increases.","test":"Measure geometry and absorbed power.","contrary":"Feedback increases heating.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0507","hypothesis":"A reflective folded screen should adjust its projected area as temperature increases.","prediction":"A reflective folded screen should adjust its projected area as temperature increases.","test":"Measure geometry and absorbed power.","contrary_outcome":"Feedback increases heating.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0508","id":"S1-0508","volume":"900","title":"A gravity-assisted heat spreader should redirect heat toward a newly cooled edge through fluid redistribution.","prediction":"A gravity-assisted heat spreader should redirect heat toward a newly cooled edge through fluid redistribution.","test":"Map temperature and liquid position.","contrary":"Redistribution does not improve spreading.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0508","hypothesis":"A gravity-assisted heat spreader should redirect heat toward a newly cooled edge through fluid redistribution.","prediction":"A gravity-assisted heat spreader should redirect heat toward a newly cooled edge through fluid redistribution.","test":"Map temperature and liquid position.","contrary_outcome":"Redistribution does not improve spreading.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0509","id":"S1-0509","volume":"900","title":"A compliant ice sleeve should release from a rod through differential radial expansion during warming.","prediction":"A compliant ice sleeve should release from a rod through differential radial expansion during warming.","test":"Measure release force.","contrary":"Warming tightens the sleeve.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0509","hypothesis":"A compliant ice sleeve should release from a rod through differential radial expansion during warming.","prediction":"A compliant ice sleeve should release from a rod through differential radial expansion during warming.","test":"Measure release force.","contrary_outcome":"Warming tightens the sleeve.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0510","id":"S1-0510","volume":"900","title":"A porous evaporative fin should avoid salt accumulation at its root through a sacrificial outer reservoir.","prediction":"A porous evaporative fin should avoid salt accumulation at its root through a sacrificial outer reservoir.","test":"Map salt after repeated cycles.","contrary":"Root deposition persists.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0510","hypothesis":"A porous evaporative fin should avoid salt accumulation at its root through a sacrificial outer reservoir.","prediction":"A porous evaporative fin should avoid salt accumulation at its root through a sacrificial outer reservoir.","test":"Map salt after repeated cycles.","contrary_outcome":"Root deposition persists.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0511","id":"S1-0511","volume":"900","title":"A low-temperature thermal ratchet should advance only when a moving shade creates a spatial lag.","prediction":"A low-temperature thermal ratchet should advance only when a moving shade creates a spatial lag.","test":"Track steps under controlled heating.","contrary":"Motion follows uncontrolled convection.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0511","hypothesis":"A low-temperature thermal ratchet should advance only when a moving shade creates a spatial lag.","prediction":"A low-temperature thermal ratchet should advance only when a moving shade creates a spatial lag.","test":"Track steps under controlled heating.","contrary_outcome":"Motion follows uncontrolled convection.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0512","id":"S1-0512","volume":"900","title":"A capillary thermal diode should reverse its preferred direction after mechanical inversion of its reservoir.","prediction":"A capillary thermal diode should reverse its preferred direction after mechanical inversion of its reservoir.","test":"Measure bidirectional conductance.","contrary":"Directionality does not reverse.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0512","hypothesis":"A capillary thermal diode should reverse its preferred direction after mechanical inversion of its reservoir.","prediction":"A capillary thermal diode should reverse its preferred direction after mechanical inversion of its reservoir.","test":"Measure bidirectional conductance.","contrary_outcome":"Directionality does not reverse.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0512","hypothesis":"A capillary thermal diode should reverse its preferred direction after mechanical inversion of its reservoir.","prediction":"A capillary thermal diode should reverse its preferred direction after mechanical inversion of its reservoir.","test":"Measure bidirectional conductance.","contrary_outcome":"Directionality does not reverse.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":52,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A capillary thermal diode reverse its preferred direction after mechanical inversion of its reservoir. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0513","id":"S1-0513","volume":"900","title":"A bimetal-free polymer coil should compensate a lens mount's focus drift through geometric leverage.","prediction":"A bimetal-free polymer coil should compensate a lens mount's focus drift through geometric leverage.","test":"Measure focus-temperature response.","contrary":"Compensation worsens drift.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0513","hypothesis":"A bimetal-free polymer coil should compensate a lens mount's focus drift through geometric leverage.","prediction":"A bimetal-free polymer coil should compensate a lens mount's focus drift through geometric leverage.","test":"Measure focus-temperature response.","contrary_outcome":"Compensation worsens drift.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0514","id":"S1-0514","volume":"900","title":"A vapor pocket should reduce freeze-induced pressure in a closed water channel through local expansion storage.","prediction":"A vapor pocket should reduce freeze-induced pressure in a closed water channel through local expansion storage.","test":"Measure freezing pressure.","contrary":"Pocket does not lower peak pressure.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0514","hypothesis":"A vapor pocket should reduce freeze-induced pressure in a closed water channel through local expansion storage.","prediction":"A vapor pocket should reduce freeze-induced pressure in a closed water channel through local expansion storage.","test":"Measure freezing pressure.","contrary_outcome":"Pocket does not lower peak pressure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0515","id":"S1-0515","volume":"900","title":"A thermal contact should switch sharply when an expanding ring closes a radial clearance.","prediction":"A thermal contact should switch sharply when an expanding ring closes a radial clearance.","test":"Measure conductance and gap.","contrary":"Conductance changes only gradually.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0515","hypothesis":"A thermal contact should switch sharply when an expanding ring closes a radial clearance.","prediction":"A thermal contact should switch sharply when an expanding ring closes a radial clearance.","test":"Measure conductance and gap.","contrary_outcome":"Conductance changes only gradually.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0516","id":"S1-0516","volume":"900","title":"A hanging wick should regulate evaporation by lifting its wet end as mass increases.","prediction":"A hanging wick should regulate evaporation by lifting its wet end as mass increases.","test":"Measure height and evaporation rate.","contrary":"Feedback destabilizes wetting.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0516","hypothesis":"A hanging wick should regulate evaporation by lifting its wet end as mass increases.","prediction":"A hanging wick should regulate evaporation by lifting its wet end as mass increases.","test":"Measure height and evaporation rate.","contrary_outcome":"Feedback destabilizes wetting.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0517","id":"S1-0517","volume":"900","title":"A radiative cavity should estimate surface emissivity from cooling-rate ratios at two orientations.","prediction":"A radiative cavity should estimate surface emissivity from cooling-rate ratios at two orientations.","test":"Compare known coatings.","contrary":"Ratios remain dominated by convection.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0517","hypothesis":"A radiative cavity should estimate surface emissivity from cooling-rate ratios at two orientations.","prediction":"A radiative cavity should estimate surface emissivity from cooling-rate ratios at two orientations.","test":"Compare known coatings.","contrary_outcome":"Ratios remain dominated by convection.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0518","id":"S1-0518","volume":"900","title":"A thermal hinge should reject uniform heating while responding to a lateral temperature gradient.","prediction":"A thermal hinge should reject uniform heating while responding to a lateral temperature gradient.","test":"Apply calibrated temperature fields.","contrary":"Uniform heating causes comparable motion.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0518","hypothesis":"A thermal hinge should reject uniform heating while responding to a lateral temperature gradient.","prediction":"A thermal hinge should reject uniform heating while responding to a lateral temperature gradient.","test":"Apply calibrated temperature fields.","contrary_outcome":"Uniform heating causes comparable motion.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0519","id":"S1-0519","volume":"900","title":"A passive heat shutter should retain its open state through brief cooling interruptions.","prediction":"A passive heat shutter should retain its open state through brief cooling interruptions.","test":"Measure state versus interruption duration.","contrary":"State resets immediately.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0519","hypothesis":"A passive heat shutter should retain its open state through brief cooling interruptions.","prediction":"A passive heat shutter should retain its open state through brief cooling interruptions.","test":"Measure state versus interruption duration.","contrary_outcome":"State resets immediately.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0520","id":"S1-0520","volume":"900","title":"An air-filled corrugation should delay frost bridging between neighboring cold fins.","prediction":"An air-filled corrugation should delay frost bridging between neighboring cold fins.","test":"Image frost growth.","contrary":"Bridging time is unchanged.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0520","hypothesis":"An air-filled corrugation should delay frost bridging between neighboring cold fins.","prediction":"An air-filled corrugation should delay frost bridging between neighboring cold fins.","test":"Image frost growth.","contrary_outcome":"Bridging time is unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0521","id":"S1-0521","volume":"900","title":"A compliant evaporator wall should detach vapor bubbles before coalescence.","prediction":"A compliant evaporator wall should detach vapor bubbles before coalescence.","test":"Image benign boiling conditions.","contrary":"Wall motion promotes coalescence.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0521","hypothesis":"A compliant evaporator wall should detach vapor bubbles before coalescence.","prediction":"A compliant evaporator wall should detach vapor bubbles before coalescence.","test":"Image benign boiling conditions.","contrary_outcome":"Wall motion promotes coalescence.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0522","id":"S1-0522","volume":"900","title":"A thermally isolated reference tab should expose airflow-induced bias in surface-temperature measurements.","prediction":"A thermally isolated reference tab should expose airflow-induced bias in surface-temperature measurements.","test":"Compare paired tabs under flow.","contrary":"Bias remains unidentifiable.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0522","hypothesis":"A thermally isolated reference tab should expose airflow-induced bias in surface-temperature measurements.","prediction":"A thermally isolated reference tab should expose airflow-induced bias in surface-temperature measurements.","test":"Compare paired tabs under flow.","contrary_outcome":"Bias remains unidentifiable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0523","id":"S1-0523","volume":"900","title":"A liquid thermal reservoir should level itself as its contents expand, preserving a fixed optical path.","prediction":"A liquid thermal reservoir should level itself as its contents expand, preserving a fixed optical path.","test":"Measure path length during heating.","contrary":"Path changes as in rigid cells.","layers":[1,2],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0523","hypothesis":"A liquid thermal reservoir should level itself as its contents expand, preserving a fixed optical path.","prediction":"A liquid thermal reservoir should level itself as its contents expand, preserving a fixed optical path.","test":"Measure path length during heating.","contrary_outcome":"Path changes as in rigid cells.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0523","hypothesis":"A liquid thermal reservoir should level itself as its contents expand, preserving a fixed optical path.","prediction":"A liquid thermal reservoir should level itself as its contents expand, preserving a fixed optical path.","test":"Measure path length during heating.","contrary_outcome":"Path changes as in rigid cells.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":53,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A liquid thermal reservoir level itself as its contents expand, preserving a fixed optical path. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0524","id":"S1-0524","volume":"900","title":"A folded conductive foil should reduce thermal-stress concentration at a rigid interface.","prediction":"A folded conductive foil should reduce thermal-stress concentration at a rigid interface.","test":"Map strain during heating.","contrary":"Concentration persists at attachment.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0524","hypothesis":"A folded conductive foil should reduce thermal-stress concentration at a rigid interface.","prediction":"A folded conductive foil should reduce thermal-stress concentration at a rigid interface.","test":"Map strain during heating.","contrary_outcome":"Concentration persists at attachment.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0525","id":"S1-0525","volume":"900","title":"A passive louver should close under radiant heating while remaining open under warm airflow.","prediction":"A passive louver should close under radiant heating while remaining open under warm airflow.","test":"Apply separate calibrated heat sources.","contrary":"Both sources produce identical closure.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0525","hypothesis":"A passive louver should close under radiant heating while remaining open under warm airflow.","prediction":"A passive louver should close under radiant heating while remaining open under warm airflow.","test":"Apply separate calibrated heat sources.","contrary_outcome":"Both sources produce identical closure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0526","id":"S1-0526","volume":"900","title":"A capillary-fed cold plate should redistribute coolant toward a local hotspot through evaporation pressure.","prediction":"A capillary-fed cold plate should redistribute coolant toward a local hotspot through evaporation pressure.","test":"Map flow and temperature.","contrary":"Hotspot receives no additional supply.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0526","hypothesis":"A capillary-fed cold plate should redistribute coolant toward a local hotspot through evaporation pressure.","prediction":"A capillary-fed cold plate should redistribute coolant toward a local hotspot through evaporation pressure.","test":"Map flow and temperature.","contrary_outcome":"Hotspot receives no additional supply.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0527","id":"S1-0527","volume":"900","title":"A thermally responsive clamp should release after accumulated heat exposure rather than peak temperature.","prediction":"A thermally responsive clamp should release after accumulated heat exposure rather than peak temperature.","test":"Apply matched-peak thermal histories.","contrary":"Release ignores duration.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0527","hypothesis":"A thermally responsive clamp should release after accumulated heat exposure rather than peak temperature.","prediction":"A thermally responsive clamp should release after accumulated heat exposure rather than peak temperature.","test":"Apply matched-peak thermal histories.","contrary_outcome":"Release ignores duration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0528","id":"S1-0528","volume":"900","title":"A hollow thermal spacer should reduce directional expansion through opposing wall curvature.","prediction":"A hollow thermal spacer should reduce directional expansion through opposing wall curvature.","test":"Measure three-axis expansion.","contrary":"Compensation fails.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0528","hypothesis":"A hollow thermal spacer should reduce directional expansion through opposing wall curvature.","prediction":"A hollow thermal spacer should reduce directional expansion through opposing wall curvature.","test":"Measure three-axis expansion.","contrary_outcome":"Compensation fails.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0529","id":"S1-0529","volume":"900","title":"A porous outer sleeve should reduce thermal shock in a glass analogue by spreading liquid contact temporally.","prediction":"A porous outer sleeve should reduce thermal shock in a glass analogue by spreading liquid contact temporally.","test":"Measure temperature gradients and cracking.","contrary":"Sleeve sharpens gradients.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0529","hypothesis":"A porous outer sleeve should reduce thermal shock in a glass analogue by spreading liquid contact temporally.","prediction":"A porous outer sleeve should reduce thermal shock in a glass analogue by spreading liquid contact temporally.","test":"Measure temperature gradients and cracking.","contrary_outcome":"Sleeve sharpens gradients.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0530","id":"S1-0530","volume":"900","title":"A floating thermal blanket should vent accumulated vapor through load-triggered openings.","prediction":"A floating thermal blanket should vent accumulated vapor through load-triggered openings.","test":"Measure pressure and heat loss.","contrary":"Venting causes continuous excessive heat loss.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0530","hypothesis":"A floating thermal blanket should vent accumulated vapor through load-triggered openings.","prediction":"A floating thermal blanket should vent accumulated vapor through load-triggered openings.","test":"Measure pressure and heat loss.","contrary_outcome":"Venting causes continuous excessive heat loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0531","id":"S1-0531","volume":"900","title":"A reversible ice plug should provide a repeatable pressure-release threshold in a benign closed loop.","prediction":"A reversible ice plug should provide a repeatable pressure-release threshold in a benign closed loop.","test":"Cycle controlled freezing and thawing.","contrary":"Threshold drifts unpredictably.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0531","hypothesis":"A reversible ice plug should provide a repeatable pressure-release threshold in a benign closed loop.","prediction":"A reversible ice plug should provide a repeatable pressure-release threshold in a benign closed loop.","test":"Cycle controlled freezing and thawing.","contrary_outcome":"Threshold drifts unpredictably.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0532","id":"S1-0532","volume":"900","title":"A thermal cam should linearize a strongly nonlinear temperature-to-displacement response.","prediction":"A thermal cam should linearize a strongly nonlinear temperature-to-displacement response.","test":"Measure calibrated motion.","contrary":"Linearity does not improve.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0532","hypothesis":"A thermal cam should linearize a strongly nonlinear temperature-to-displacement response.","prediction":"A thermal cam should linearize a strongly nonlinear temperature-to-displacement response.","test":"Measure calibrated motion.","contrary_outcome":"Linearity does not improve.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0533","id":"S1-0533","volume":"900","title":"A liquid droplet array should equalize substrate temperature through preferential evaporation at hotspots.","prediction":"A liquid droplet array should equalize substrate temperature through preferential evaporation at hotspots.","test":"Map thermal uniformity.","contrary":"Droplets increase nonuniformity.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0533","hypothesis":"A liquid droplet array should equalize substrate temperature through preferential evaporation at hotspots.","prediction":"A liquid droplet array should equalize substrate temperature through preferential evaporation at hotspots.","test":"Map thermal uniformity.","contrary_outcome":"Droplets increase nonuniformity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0534","id":"S1-0534","volume":"900","title":"A passive solar concentrator should defocus when its support thermally bends.","prediction":"A passive solar concentrator should defocus when its support thermally bends.","test":"Measure focal intensity versus temperature.","contrary":"Heating sharpens focus instead.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0534","hypothesis":"A passive solar concentrator should defocus when its support thermally bends.","prediction":"A passive solar concentrator should defocus when its support thermally bends.","test":"Measure focal intensity versus temperature.","contrary_outcome":"Heating sharpens focus instead.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0535","id":"S1-0535","volume":"900","title":"A sealed gas cushion should prevent condensation droplets from bridging a cold mechanical gap.","prediction":"A sealed gas cushion should prevent condensation droplets from bridging a cold mechanical gap.","test":"Image repeated cooling.","contrary":"Bridges form at unchanged frequency.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0535","hypothesis":"A sealed gas cushion should prevent condensation droplets from bridging a cold mechanical gap.","prediction":"A sealed gas cushion should prevent condensation droplets from bridging a cold mechanical gap.","test":"Image repeated cooling.","contrary_outcome":"Bridges form at unchanged frequency.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0536","id":"S1-0536","volume":"900","title":"A thermal contact ring should maintain pressure during unequal heating through sliding segments.","prediction":"A thermal contact ring should maintain pressure during unequal heating through sliding segments.","test":"Measure contact-force distribution.","contrary":"Segments jam and localize force.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0536","hypothesis":"A thermal contact ring should maintain pressure during unequal heating through sliding segments.","prediction":"A thermal contact ring should maintain pressure during unequal heating through sliding segments.","test":"Measure contact-force distribution.","contrary_outcome":"Segments jam and localize force.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0537","id":"S1-0537","volume":"900","title":"A capillary-fed membrane should cool uniformly despite partial inlet obstruction.","prediction":"A capillary-fed membrane should cool uniformly despite partial inlet obstruction.","test":"Map temperature under controlled blockage.","contrary":"Hotspots track blocked regions.","layers":[1,2],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0537","hypothesis":"A capillary-fed membrane should cool uniformly despite partial inlet obstruction.","prediction":"A capillary-fed membrane should cool uniformly despite partial inlet obstruction.","test":"Map temperature under controlled blockage.","contrary_outcome":"Hotspots track blocked regions.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0537","hypothesis":"A capillary-fed membrane should cool uniformly despite partial inlet obstruction.","prediction":"A capillary-fed membrane should cool uniformly despite partial inlet obstruction.","test":"Map temperature under controlled blockage.","contrary_outcome":"Hotspots track blocked regions.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":54,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A capillary-fed membrane cool uniformly despite partial inlet obstruction. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0538","id":"S1-0538","volume":"900","title":"A folded thermal resistor should make heat leakage less sensitive to assembly compression.","prediction":"A folded thermal resistor should make heat leakage less sensitive to assembly compression.","test":"Measure conductance versus preload.","contrary":"Conductance remains preload-sensitive.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0538","hypothesis":"A folded thermal resistor should make heat leakage less sensitive to assembly compression.","prediction":"A folded thermal resistor should make heat leakage less sensitive to assembly compression.","test":"Measure conductance versus preload.","contrary_outcome":"Conductance remains preload-sensitive.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0539","id":"S1-0539","volume":"900","title":"A thermal expansion latch should provide a visible indication of lost cooling flow.","prediction":"A thermal expansion latch should provide a visible indication of lost cooling flow.","test":"Stop flow under fixed heating.","contrary":"Latch cannot distinguish flow loss from ambient warming.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0539","hypothesis":"A thermal expansion latch should provide a visible indication of lost cooling flow.","prediction":"A thermal expansion latch should provide a visible indication of lost cooling flow.","test":"Stop flow under fixed heating.","contrary_outcome":"Latch cannot distinguish flow loss from ambient warming.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0540","id":"S1-0540","volume":"900","title":"A radiative fin should reject dust by thermally driven curvature cycles.","prediction":"A radiative fin should reject dust by thermally driven curvature cycles.","test":"Weigh inert dust before and after cycles.","contrary":"Dust remains attached.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0540","hypothesis":"A radiative fin should reject dust by thermally driven curvature cycles.","prediction":"A radiative fin should reject dust by thermally driven curvature cycles.","test":"Weigh inert dust before and after cycles.","contrary_outcome":"Dust remains attached.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0541","id":"S1-0541","volume":"900","title":"A liquid-filled bellows should compensate density changes in a buoyancy instrument.","prediction":"A liquid-filled bellows should compensate density changes in a buoyancy instrument.","test":"Measure calibration across temperature.","contrary":"Thermal drift remains unchanged.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0541","hypothesis":"A liquid-filled bellows should compensate density changes in a buoyancy instrument.","prediction":"A liquid-filled bellows should compensate density changes in a buoyancy instrument.","test":"Measure calibration across temperature.","contrary_outcome":"Thermal drift remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0542","id":"S1-0542","volume":"900","title":"A capillary condenser should retain drainage during orientation changes through a moving collection wick.","prediction":"A capillary condenser should retain drainage during orientation changes through a moving collection wick.","test":"Measure condensate removal.","contrary":"Wick fails under inversion.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0542","hypothesis":"A capillary condenser should retain drainage during orientation changes through a moving collection wick.","prediction":"A capillary condenser should retain drainage during orientation changes through a moving collection wick.","test":"Measure condensate removal.","contrary_outcome":"Wick fails under inversion.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0543","id":"S1-0543","volume":"900","title":"A passive thermal oscillator should entrain two mechanically coupled shutters into opposite phases.","prediction":"A passive thermal oscillator should entrain two mechanically coupled shutters into opposite phases.","test":"Measure phase under steady heating.","contrary":"Shutters settle or synchronize in phase.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0543","hypothesis":"A passive thermal oscillator should entrain two mechanically coupled shutters into opposite phases.","prediction":"A passive thermal oscillator should entrain two mechanically coupled shutters into opposite phases.","test":"Measure phase under steady heating.","contrary_outcome":"Shutters settle or synchronize in phase.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0544","id":"S1-0544","volume":"900","title":"A heat-sensitive compliant mount should unload a joint before creep accelerates.","prediction":"A heat-sensitive compliant mount should unload a joint before creep accelerates.","test":"Measure force and deformation.","contrary":"Unloading begins after substantial creep.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0544","hypothesis":"A heat-sensitive compliant mount should unload a joint before creep accelerates.","prediction":"A heat-sensitive compliant mount should unload a joint before creep accelerates.","test":"Measure force and deformation.","contrary_outcome":"Unloading begins after substantial creep.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0545","id":"S1-0545","volume":"900","title":"A layered thermal shield should reduce temperature cycling through a delayed ventilation path.","prediction":"A layered thermal shield should reduce temperature cycling through a delayed ventilation path.","test":"Measure cycle amplitude and mean temperature.","contrary":"Amplitude reduction causes unacceptable mean heating.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0545","hypothesis":"A layered thermal shield should reduce temperature cycling through a delayed ventilation path.","prediction":"A layered thermal shield should reduce temperature cycling through a delayed ventilation path.","test":"Measure cycle amplitude and mean temperature.","contrary_outcome":"Amplitude reduction causes unacceptable mean heating.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0545","hypothesis":"A layered thermal shield should reduce temperature cycling through a delayed ventilation path.","prediction":"A layered thermal shield should reduce temperature cycling through a delayed ventilation path.","test":"Measure cycle amplitude and mean temperature.","contrary_outcome":"Amplitude reduction causes unacceptable mean heating.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":55,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A layered thermal shield reduce temperature cycling through a delayed ventilation path. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0546","id":"S1-0546","volume":"900","title":"A thermally actuated ring should tighten a seal during cooling when leakage would otherwise increase.","prediction":"A thermally actuated ring should tighten a seal during cooling when leakage would otherwise increase.","test":"Measure leak-temperature curves.","contrary":"Ring worsens cold leakage.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0546","hypothesis":"A thermally actuated ring should tighten a seal during cooling when leakage would otherwise increase.","prediction":"A thermally actuated ring should tighten a seal during cooling when leakage would otherwise increase.","test":"Measure leak-temperature curves.","contrary_outcome":"Ring worsens cold leakage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0547","id":"S1-0547","volume":"900","title":"A capillary heat spreader should resist orientation-dependent dryout through distributed return paths.","prediction":"A capillary heat spreader should resist orientation-dependent dryout through distributed return paths.","test":"Measure dryout over angles.","contrary":"Distributed paths add no robustness.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0547","hypothesis":"A capillary heat spreader should resist orientation-dependent dryout through distributed return paths.","prediction":"A capillary heat spreader should resist orientation-dependent dryout through distributed return paths.","test":"Measure dryout over angles.","contrary_outcome":"Distributed paths add no robustness.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0548","id":"S1-0548","volume":"900","title":"A gas-filled thermal switch should reveal loss of hermeticity through changed actuation temperature.","prediction":"A gas-filled thermal switch should reveal loss of hermeticity through changed actuation temperature.","test":"Introduce calibrated leaks.","contrary":"Actuation drift is not leak-specific.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0548","hypothesis":"A gas-filled thermal switch should reveal loss of hermeticity through changed actuation temperature.","prediction":"A gas-filled thermal switch should reveal loss of hermeticity through changed actuation temperature.","test":"Introduce calibrated leaks.","contrary_outcome":"Actuation drift is not leak-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0549","id":"S1-0549","volume":"900","title":"A folded reflector should reduce hot-spot formation during partial shading.","prediction":"A folded reflector should reduce hot-spot formation during partial shading.","test":"Map absorbed heat.","contrary":"Shading creates equally severe hotspots.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0549","hypothesis":"A folded reflector should reduce hot-spot formation during partial shading.","prediction":"A folded reflector should reduce hot-spot formation during partial shading.","test":"Map absorbed heat.","contrary_outcome":"Shading creates equally severe hotspots.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0550","id":"S1-0550","volume":"900","title":"A thermal diaphragm should turn a temperature ramp into a finite-volume liquid pulse.","prediction":"A thermal diaphragm should turn a temperature ramp into a finite-volume liquid pulse.","test":"Measure expelled volume versus ramp duration.","contrary":"Volume keeps growing with duration.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0550","hypothesis":"A thermal diaphragm should turn a temperature ramp into a finite-volume liquid pulse.","prediction":"A thermal diaphragm should turn a temperature ramp into a finite-volume liquid pulse.","test":"Measure expelled volume versus ramp duration.","contrary_outcome":"Volume keeps growing with duration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0551","id":"S1-0551","volume":"900","title":"A compliant thermal bridge should disengage during overload heating and reengage after cooling.","prediction":"A compliant thermal bridge should disengage during overload heating and reengage after cooling.","test":"Measure conductance through cycles.","contrary":"Switching is irreversible.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0551","hypothesis":"A compliant thermal bridge should disengage during overload heating and reengage after cooling.","prediction":"A compliant thermal bridge should disengage during overload heating and reengage after cooling.","test":"Measure conductance through cycles.","contrary_outcome":"Switching is irreversible.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0552","id":"S1-0552","volume":"900","title":"A capillary anti-icing channel should drain meltwater before it refreezes across a joint.","prediction":"A capillary anti-icing channel should drain meltwater before it refreezes across a joint.","test":"Image controlled freeze-thaw cycles.","contrary":"Ice bridges recur.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0552","hypothesis":"A capillary anti-icing channel should drain meltwater before it refreezes across a joint.","prediction":"A capillary anti-icing channel should drain meltwater before it refreezes across a joint.","test":"Image controlled freeze-thaw cycles.","contrary_outcome":"Ice bridges recur.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0553","id":"S1-0553","volume":"900","title":"A convection chimney should self-throttle when airflow bends a flexible outlet lip.","prediction":"A convection chimney should self-throttle when airflow bends a flexible outlet lip.","test":"Measure flow versus heating power.","contrary":"Flow remains unregulated.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0553","hypothesis":"A convection chimney should self-throttle when airflow bends a flexible outlet lip.","prediction":"A convection chimney should self-throttle when airflow bends a flexible outlet lip.","test":"Measure flow versus heating power.","contrary_outcome":"Flow remains unregulated.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0554","id":"S1-0554","volume":"900","title":"A two-reservoir thermal timer should distinguish repeated short heating pulses from one continuous pulse.","prediction":"A two-reservoir thermal timer should distinguish repeated short heating pulses from one continuous pulse.","test":"Apply equal-energy histories.","contrary":"Final states are identical.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0554","hypothesis":"A two-reservoir thermal timer should distinguish repeated short heating pulses from one continuous pulse.","prediction":"A two-reservoir thermal timer should distinguish repeated short heating pulses from one continuous pulse.","test":"Apply equal-energy histories.","contrary_outcome":"Final states are identical.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0555","id":"S1-0555","volume":"900","title":"A soft thermal lens mount should preserve centering through asymmetric temperature gradients.","prediction":"A soft thermal lens mount should preserve centering through asymmetric temperature gradients.","test":"Measure optical axis drift.","contrary":"Centering error remains comparable.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0555","hypothesis":"A soft thermal lens mount should preserve centering through asymmetric temperature gradients.","prediction":"A soft thermal lens mount should preserve centering through asymmetric temperature gradients.","test":"Measure optical axis drift.","contrary_outcome":"Centering error remains comparable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0556","id":"S1-0556","volume":"900","title":"A porous radiative screen should lower surface temperature without strongly impeding convective drying.","prediction":"A porous radiative screen should lower surface temperature without strongly impeding convective drying.","test":"Measure drying and temperature.","contrary":"Cooling requires substantial drying penalty.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0556","hypothesis":"A porous radiative screen should lower surface temperature without strongly impeding convective drying.","prediction":"A porous radiative screen should lower surface temperature without strongly impeding convective drying.","test":"Measure drying and temperature.","contrary_outcome":"Cooling requires substantial drying penalty.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0557","id":"S1-0557","volume":"900","title":"A thermal bridge with a sliding overlap should maintain conductance during structural expansion.","prediction":"A thermal bridge with a sliding overlap should maintain conductance during structural expansion.","test":"Measure conductance versus extension.","contrary":"Overlap contact resistance dominates drift.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0557","hypothesis":"A thermal bridge with a sliding overlap should maintain conductance during structural expansion.","prediction":"A thermal bridge with a sliding overlap should maintain conductance during structural expansion.","test":"Measure conductance versus extension.","contrary_outcome":"Overlap contact resistance dominates drift.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0557","hypothesis":"A thermal bridge with a sliding overlap should maintain conductance during structural expansion.","prediction":"A thermal bridge with a sliding overlap should maintain conductance during structural expansion.","test":"Measure conductance versus extension.","contrary_outcome":"Overlap contact resistance dominates drift.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":56,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A thermal bridge with a sliding overlap maintain conductance during structural expansion. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0558","id":"S1-0558","volume":"900","title":"A floating evaporator should reduce sensitivity to reservoir depth by holding its wetting front near the surface.","prediction":"A floating evaporator should reduce sensitivity to reservoir depth by holding its wetting front near the surface.","test":"Measure evaporation over depths.","contrary":"Rate remains depth-dependent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0558","hypothesis":"A floating evaporator should reduce sensitivity to reservoir depth by holding its wetting front near the surface.","prediction":"A floating evaporator should reduce sensitivity to reservoir depth by holding its wetting front near the surface.","test":"Measure evaporation over depths.","contrary_outcome":"Rate remains depth-dependent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0559","id":"S1-0559","volume":"900","title":"A passive thermal valve should produce a reproducible oscillation period dominated by reservoir heat capacity.","prediction":"A passive thermal valve should produce a reproducible oscillation period dominated by reservoir heat capacity.","test":"Vary known capacity.","contrary":"Period does not follow capacity.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0559","hypothesis":"A passive thermal valve should produce a reproducible oscillation period dominated by reservoir heat capacity.","prediction":"A passive thermal valve should produce a reproducible oscillation period dominated by reservoir heat capacity.","test":"Vary known capacity.","contrary_outcome":"Period does not follow capacity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0560","id":"S1-0560","volume":"900","title":"A heat-driven flexure should reject vibration through a rate-selective mechanical linkage.","prediction":"A heat-driven flexure should reject vibration through a rate-selective mechanical linkage.","test":"Apply heat and vibration independently.","contrary":"Vibration triggers equivalent motion.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0560","hypothesis":"A heat-driven flexure should reject vibration through a rate-selective mechanical linkage.","prediction":"A heat-driven flexure should reject vibration through a rate-selective mechanical linkage.","test":"Apply heat and vibration independently.","contrary_outcome":"Vibration triggers equivalent motion.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0561","id":"S1-0561","volume":"900","title":"A granular thermal contact should recover conductance after vibration through self-compaction.","prediction":"A granular thermal contact should recover conductance after vibration through self-compaction.","test":"Measure conductance before and after shaking.","contrary":"Compaction increases variability.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0561","hypothesis":"A granular thermal contact should recover conductance after vibration through self-compaction.","prediction":"A granular thermal contact should recover conductance after vibration through self-compaction.","test":"Measure conductance before and after shaking.","contrary_outcome":"Compaction increases variability.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0562","id":"S1-0562","volume":"900","title":"A narrow liquid moat should prevent dry thermal contact from spreading into a surrounding wet region.","prediction":"A narrow liquid moat should prevent dry thermal contact from spreading into a surrounding wet region.","test":"Map wetting during heating.","contrary":"Moat accelerates spreading.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0562","hypothesis":"A narrow liquid moat should prevent dry thermal contact from spreading into a surrounding wet region.","prediction":"A narrow liquid moat should prevent dry thermal contact from spreading into a surrounding wet region.","test":"Map wetting during heating.","contrary_outcome":"Moat accelerates spreading.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0563","id":"S1-0563","volume":"900","title":"A thermal snap disk should encode maximum temperature through a second irreversible mechanical flag.","prediction":"A thermal snap disk should encode maximum temperature through a second irreversible mechanical flag.","test":"Apply known peaks.","contrary":"Flag depends mostly on heating rate.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0563","hypothesis":"A thermal snap disk should encode maximum temperature through a second irreversible mechanical flag.","prediction":"A thermal snap disk should encode maximum temperature through a second irreversible mechanical flag.","test":"Apply known peaks.","contrary_outcome":"Flag depends mostly on heating rate.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0564","id":"S1-0564","volume":"900","title":"A passive condensate trap should open only after liquid weight exceeds vapor-pressure force.","prediction":"A passive condensate trap should open only after liquid weight exceeds vapor-pressure force.","test":"Measure release thresholds.","contrary":"Pressure dominates unpredictably.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0564","hypothesis":"A passive condensate trap should open only after liquid weight exceeds vapor-pressure force.","prediction":"A passive condensate trap should open only after liquid weight exceeds vapor-pressure force.","test":"Measure release thresholds.","contrary_outcome":"Pressure dominates unpredictably.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0565","id":"S1-0565","volume":"900","title":"A flexible radiative panel should reduce wind loading by curling while preserving mean heat rejection.","prediction":"A flexible radiative panel should reduce wind loading by curling while preserving mean heat rejection.","test":"Measure torque and cooling.","contrary":"Curling eliminates useful heat rejection.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0565","hypothesis":"A flexible radiative panel should reduce wind loading by curling while preserving mean heat rejection.","prediction":"A flexible radiative panel should reduce wind loading by curling while preserving mean heat rejection.","test":"Measure torque and cooling.","contrary_outcome":"Curling eliminates useful heat rejection.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0566","id":"S1-0566","volume":"900","title":"A thermal mass gradient should guide the direction of a propagating snap in a heated strip.","prediction":"A thermal mass gradient should guide the direction of a propagating snap in a heated strip.","test":"Image snap progression.","contrary":"Direction is random.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0566","hypothesis":"A thermal mass gradient should guide the direction of a propagating snap in a heated strip.","prediction":"A thermal mass gradient should guide the direction of a propagating snap in a heated strip.","test":"Image snap progression.","contrary_outcome":"Direction is random.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0567","id":"S1-0567","volume":"900","title":"A liquid-backed heat shield should redistribute thickness toward an impinging hot spot.","prediction":"A liquid-backed heat shield should redistribute thickness toward an impinging hot spot.","test":"Measure liquid profile and temperature.","contrary":"Liquid moves away and worsens heating.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0567","hypothesis":"A liquid-backed heat shield should redistribute thickness toward an impinging hot spot.","prediction":"A liquid-backed heat shield should redistribute thickness toward an impinging hot spot.","test":"Measure liquid profile and temperature.","contrary_outcome":"Liquid moves away and worsens heating.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0568","id":"S1-0568","volume":"900","title":"A capillary vent should prevent pressure buildup during thermal cycling without continuous liquid loss.","prediction":"A capillary vent should prevent pressure buildup during thermal cycling without continuous liquid loss.","test":"Measure pressure and mass.","contrary":"Pressure control requires substantial liquid leakage.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0568","hypothesis":"A capillary vent should prevent pressure buildup during thermal cycling without continuous liquid loss.","prediction":"A capillary vent should prevent pressure buildup during thermal cycling without continuous liquid loss.","test":"Measure pressure and mass.","contrary_outcome":"Pressure control requires substantial liquid leakage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0568","hypothesis":"A capillary vent should prevent pressure buildup during thermal cycling without continuous liquid loss.","prediction":"A capillary vent should prevent pressure buildup during thermal cycling without continuous liquid loss.","test":"Measure pressure and mass.","contrary_outcome":"Pressure control requires substantial liquid leakage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":57,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A capillary vent prevent pressure buildup during thermal cycling without continuous liquid loss. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0569","id":"S1-0569","volume":"900","title":"A bowed thermal fin should change orientation to avoid neighboring-fin contact during expansion.","prediction":"A bowed thermal fin should change orientation to avoid neighboring-fin contact during expansion.","test":"Measure gap versus temperature.","contrary":"Fin collision persists.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0569","hypothesis":"A bowed thermal fin should change orientation to avoid neighboring-fin contact during expansion.","prediction":"A bowed thermal fin should change orientation to avoid neighboring-fin contact during expansion.","test":"Measure gap versus temperature.","contrary_outcome":"Fin collision persists.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0570","id":"S1-0570","volume":"900","title":"A passive heat indicator should separate cumulative exposure from a brief peak using two mechanical thresholds.","prediction":"A passive heat indicator should separate cumulative exposure from a brief peak using two mechanical thresholds.","test":"Apply controlled histories.","contrary":"Threshold states remain ambiguous.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0570","hypothesis":"A passive heat indicator should separate cumulative exposure from a brief peak using two mechanical thresholds.","prediction":"A passive heat indicator should separate cumulative exposure from a brief peak using two mechanical thresholds.","test":"Apply controlled histories.","contrary_outcome":"Threshold states remain ambiguous.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0571","id":"S1-0571","volume":"900","title":"A corrugated thermal strap should retain conductance after repeated sharp bending.","prediction":"A corrugated thermal strap should retain conductance after repeated sharp bending.","test":"Measure conductance and fatigue.","contrary":"Conductance degrades as in flat straps.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0571","hypothesis":"A corrugated thermal strap should retain conductance after repeated sharp bending.","prediction":"A corrugated thermal strap should retain conductance after repeated sharp bending.","test":"Measure conductance and fatigue.","contrary_outcome":"Conductance degrades as in flat straps.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0572","id":"S1-0572","volume":"900","title":"A liquid-column thermal compensator should cancel a spring's temperature coefficient over a bounded range.","prediction":"A liquid-column thermal compensator should cancel a spring's temperature coefficient over a bounded range.","test":"Measure stiffness versus temperature.","contrary":"Compensation does not improve stability.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0572","hypothesis":"A liquid-column thermal compensator should cancel a spring's temperature coefficient over a bounded range.","prediction":"A liquid-column thermal compensator should cancel a spring's temperature coefficient over a bounded range.","test":"Measure stiffness versus temperature.","contrary_outcome":"Compensation does not improve stability.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0573","id":"S1-0573","volume":"900","title":"A radiative baffle should suppress thermal cross-talk between adjacent sensors without blocking their views.","prediction":"A radiative baffle should suppress thermal cross-talk between adjacent sensors without blocking their views.","test":"Measure mutual heating and optical throughput.","contrary":"Cross-talk reduction requires view loss.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0573","hypothesis":"A radiative baffle should suppress thermal cross-talk between adjacent sensors without blocking their views.","prediction":"A radiative baffle should suppress thermal cross-talk between adjacent sensors without blocking their views.","test":"Measure mutual heating and optical throughput.","contrary_outcome":"Cross-talk reduction requires view loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0574","id":"S1-0574","volume":"900","title":"A capillary-fed thermal fuse analogue should reset when cooling draws liquid back into a contact gap.","prediction":"A capillary-fed thermal fuse analogue should reset when cooling draws liquid back into a contact gap.","test":"Cycle benign temperature excursions.","contrary":"Reset fails or drifts.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0574","hypothesis":"A capillary-fed thermal fuse analogue should reset when cooling draws liquid back into a contact gap.","prediction":"A capillary-fed thermal fuse analogue should reset when cooling draws liquid back into a contact gap.","test":"Cycle benign temperature excursions.","contrary_outcome":"Reset fails or drifts.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0575","id":"S1-0575","volume":"900","title":"A vented insulating shell should reduce internal moisture accumulation through temperature-driven breathing.","prediction":"A vented insulating shell should reduce internal moisture accumulation through temperature-driven breathing.","test":"Measure humidity cycles.","contrary":"Breathing increases moisture retention.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0575","hypothesis":"A vented insulating shell should reduce internal moisture accumulation through temperature-driven breathing.","prediction":"A vented insulating shell should reduce internal moisture accumulation through temperature-driven breathing.","test":"Measure humidity cycles.","contrary_outcome":"Breathing increases moisture retention.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0576","id":"S1-0576","volume":"900","title":"A thermal-contact pattern should force condensation away from a measurement window.","prediction":"A thermal-contact pattern should force condensation away from a measurement window.","test":"Image dew nucleation.","contrary":"Window fogging remains unchanged.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0576","hypothesis":"A thermal-contact pattern should force condensation away from a measurement window.","prediction":"A thermal-contact pattern should force condensation away from a measurement window.","test":"Image dew nucleation.","contrary_outcome":"Window fogging remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0577","id":"S1-0577","volume":"900","title":"A passive heater shunt should route power thermally toward a cold region through contact closure.","prediction":"A passive heater shunt should route power thermally toward a cold region through contact closure.","test":"Map temperature fields.","contrary":"Closure routes heat to the hotter region.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0577","hypothesis":"A passive heater shunt should route power thermally toward a cold region through contact closure.","prediction":"A passive heater shunt should route power thermally toward a cold region through contact closure.","test":"Map temperature fields.","contrary_outcome":"Closure routes heat to the hotter region.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0577","hypothesis":"A passive heater shunt should route power thermally toward a cold region through contact closure.","prediction":"A passive heater shunt should route power thermally toward a cold region through contact closure.","test":"Map temperature fields.","contrary_outcome":"Closure routes heat to the hotter region.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":58,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A passive heater shunt route power thermally toward a cold region through contact closure. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0578","id":"S1-0578","volume":"900","title":"A low-expansion frame should amplify fluid thermal expansion into a readable displacement.","prediction":"A low-expansion frame should amplify fluid thermal expansion into a readable displacement.","test":"Calibrate temperature and displacement.","contrary":"Hysteresis exceeds useful sensitivity.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0578","hypothesis":"A low-expansion frame should amplify fluid thermal expansion into a readable displacement.","prediction":"A low-expansion frame should amplify fluid thermal expansion into a readable displacement.","test":"Calibrate temperature and displacement.","contrary_outcome":"Hysteresis exceeds useful sensitivity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0579","id":"S1-0579","volume":"900","title":"A porous boiling surface should resist vapor blanketing when lateral vents connect isolated pores.","prediction":"A porous boiling surface should resist vapor blanketing when lateral vents connect isolated pores.","test":"Image vapor coverage.","contrary":"Vents promote blanketing.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0579","hypothesis":"A porous boiling surface should resist vapor blanketing when lateral vents connect isolated pores.","prediction":"A porous boiling surface should resist vapor blanketing when lateral vents connect isolated pores.","test":"Image vapor coverage.","contrary_outcome":"Vents promote blanketing.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0580","id":"S1-0580","volume":"900","title":"A thermal flexure pair should maintain equal preload despite one-sided heating.","prediction":"A thermal flexure pair should maintain equal preload despite one-sided heating.","test":"Measure paired forces.","contrary":"Forces diverge as in rigid mounts.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0580","hypothesis":"A thermal flexure pair should maintain equal preload despite one-sided heating.","prediction":"A thermal flexure pair should maintain equal preload despite one-sided heating.","test":"Measure paired forces.","contrary_outcome":"Forces diverge as in rigid mounts.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0581","id":"S1-0581","volume":"900","title":"A capillary heat reservoir should preserve a local temperature plateau after heating stops.","prediction":"A capillary heat reservoir should preserve a local temperature plateau after heating stops.","test":"Measure cooling curves.","contrary":"No plateau exceeds a dry control.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0581","hypothesis":"A capillary heat reservoir should preserve a local temperature plateau after heating stops.","prediction":"A capillary heat reservoir should preserve a local temperature plateau after heating stops.","test":"Measure cooling curves.","contrary_outcome":"No plateau exceeds a dry control.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0582","id":"S1-0582","volume":"900","title":"A flexible insulation seam should close under cooling and open under heating.","prediction":"A flexible insulation seam should close under cooling and open under heating.","test":"Measure seam gap.","contrary":"Motion has the wrong sign.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0582","hypothesis":"A flexible insulation seam should close under cooling and open under heating.","prediction":"A flexible insulation seam should close under cooling and open under heating.","test":"Measure seam gap.","contrary_outcome":"Motion has the wrong sign.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0583","id":"S1-0583","volume":"900","title":"A radiative flap should limit overheating even when its actuator partially fails.","prediction":"A radiative flap should limit overheating even when its actuator partially fails.","test":"Disable one linkage and measure temperature.","contrary":"Failure defeats protection.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0583","hypothesis":"A radiative flap should limit overheating even when its actuator partially fails.","prediction":"A radiative flap should limit overheating even when its actuator partially fails.","test":"Disable one linkage and measure temperature.","contrary_outcome":"Failure defeats protection.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0584","id":"S1-0584","volume":"900","title":"A thermal gradient should move a constrained gas bubble to a repeatable equilibrium position.","prediction":"A thermal gradient should move a constrained gas bubble to a repeatable equilibrium position.","test":"Image position under known gradients.","contrary":"Bubble drifts without equilibrium.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0584","hypothesis":"A thermal gradient should move a constrained gas bubble to a repeatable equilibrium position.","prediction":"A thermal gradient should move a constrained gas bubble to a repeatable equilibrium position.","test":"Image position under known gradients.","contrary_outcome":"Bubble drifts without equilibrium.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0585","id":"S1-0585","volume":"900","title":"A passive condensation pump should deliver liquid upward through repeated thermal cycling.","prediction":"A passive condensation pump should deliver liquid upward through repeated thermal cycling.","test":"Measure net transported mass.","contrary":"Transport vanishes after initial priming.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0585","hypothesis":"A passive condensation pump should deliver liquid upward through repeated thermal cycling.","prediction":"A passive condensation pump should deliver liquid upward through repeated thermal cycling.","test":"Measure net transported mass.","contrary_outcome":"Transport vanishes after initial priming.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0586","id":"S1-0586","volume":"900","title":"A thermal spacer with evacuated longitudinal slots should reduce convection-induced calibration drift in a vertical balance.","prediction":"A thermal spacer with evacuated longitudinal slots should reduce convection-induced calibration drift in a vertical balance.","test":"Measure drift with slots sealed and vented.","contrary":"Evacuation provides no improvement.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0586","hypothesis":"A thermal spacer with evacuated longitudinal slots should reduce convection-induced calibration drift in a vertical balance.","prediction":"A thermal spacer with evacuated longitudinal slots should reduce convection-induced calibration drift in a vertical balance.","test":"Measure drift with slots sealed and vented.","contrary_outcome":"Evacuation provides no improvement.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0587","id":"S1-0587","volume":"900","title":"A compliant coolant channel should squeeze retained liquid toward a drying hotspot.","prediction":"A compliant coolant channel should squeeze retained liquid toward a drying hotspot.","test":"Image flow during localized heating.","contrary":"Liquid retreats from hotspot.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0587","hypothesis":"A compliant coolant channel should squeeze retained liquid toward a drying hotspot.","prediction":"A compliant coolant channel should squeeze retained liquid toward a drying hotspot.","test":"Image flow during localized heating.","contrary_outcome":"Liquid retreats from hotspot.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0588","id":"S1-0588","volume":"900","title":"A thermal reference cavity should expose radiative bias in an airflow thermometer.","prediction":"A thermal reference cavity should expose radiative bias in an airflow thermometer.","test":"Apply controlled radiation.","contrary":"Bias cannot be reconstructed.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0588","hypothesis":"A thermal reference cavity should expose radiative bias in an airflow thermometer.","prediction":"A thermal reference cavity should expose radiative bias in an airflow thermometer.","test":"Apply controlled radiation.","contrary_outcome":"Bias cannot be reconstructed.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0589","id":"S1-0589","volume":"900","title":"A liquid-cooled hinge should change damping less with temperature when its expansion volume is vented.","prediction":"A liquid-cooled hinge should change damping less with temperature when its expansion volume is vented.","test":"Measure damping-temperature curves.","contrary":"Venting gives no compensation.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0589","hypothesis":"A liquid-cooled hinge should change damping less with temperature when its expansion volume is vented.","prediction":"A liquid-cooled hinge should change damping less with temperature when its expansion volume is vented.","test":"Measure damping-temperature curves.","contrary_outcome":"Venting gives no compensation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0589","hypothesis":"A liquid-cooled hinge should change damping less with temperature when its expansion volume is vented.","prediction":"A liquid-cooled hinge should change damping less with temperature when its expansion volume is vented.","test":"Measure damping-temperature curves.","contrary_outcome":"Venting gives no compensation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":59,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A liquid-cooled hinge change damping less with temperature when its expansion volume is vented. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0590","id":"S1-0590","volume":"900","title":"A passive dew shutter should reopen faster when its wetting surface is mechanically strained.","prediction":"A passive dew shutter should reopen faster when its wetting surface is mechanically strained.","test":"Measure reopening after condensation.","contrary":"Strain does not accelerate drying.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0590","hypothesis":"A passive dew shutter should reopen faster when its wetting surface is mechanically strained.","prediction":"A passive dew shutter should reopen faster when its wetting surface is mechanically strained.","test":"Measure reopening after condensation.","contrary_outcome":"Strain does not accelerate drying.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0591","id":"S1-0591","volume":"900","title":"A thermal pulse should reveal loss of contact in a bolted stack through an asymmetric cooling tail.","prediction":"A thermal pulse should reveal loss of contact in a bolted stack through an asymmetric cooling tail.","test":"Control contact area.","contrary":"Tail is not contact-specific.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0591","hypothesis":"A thermal pulse should reveal loss of contact in a bolted stack through an asymmetric cooling tail.","prediction":"A thermal pulse should reveal loss of contact in a bolted stack through an asymmetric cooling tail.","test":"Control contact area.","contrary_outcome":"Tail is not contact-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0592","id":"S1-0592","volume":"900","title":"A curved heat spreader should reduce edge hotspots by guiding buoyant internal flow.","prediction":"A curved heat spreader should reduce edge hotspots by guiding buoyant internal flow.","test":"Map temperature and flow.","contrary":"Curvature worsens nonuniformity.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0592","hypothesis":"A curved heat spreader should reduce edge hotspots by guiding buoyant internal flow.","prediction":"A curved heat spreader should reduce edge hotspots by guiding buoyant internal flow.","test":"Map temperature and flow.","contrary_outcome":"Curvature worsens nonuniformity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0593","id":"S1-0593","volume":"900","title":"A thermally contracting braid should maintain seal pressure during cryogen-free moderate cooling.","prediction":"A thermally contracting braid should maintain seal pressure during cryogen-free moderate cooling.","test":"Measure contact force.","contrary":"Pressure still falls.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0593","hypothesis":"A thermally contracting braid should maintain seal pressure during cryogen-free moderate cooling.","prediction":"A thermally contracting braid should maintain seal pressure during cryogen-free moderate cooling.","test":"Measure contact force.","contrary_outcome":"Pressure still falls.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0594","id":"S1-0594","volume":"900","title":"A capillary collector should distinguish condensation from splash through delayed reservoir filling.","prediction":"A capillary collector should distinguish condensation from splash through delayed reservoir filling.","test":"Apply matched deposited volumes.","contrary":"Filling histories overlap.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0594","hypothesis":"A capillary collector should distinguish condensation from splash through delayed reservoir filling.","prediction":"A capillary collector should distinguish condensation from splash through delayed reservoir filling.","test":"Apply matched deposited volumes.","contrary_outcome":"Filling histories overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0595","id":"S1-0595","volume":"900","title":"A compliant radiator mount should reduce thermal fatigue by permitting reversible lateral slip.","prediction":"A compliant radiator mount should reduce thermal fatigue by permitting reversible lateral slip.","test":"Measure strain and fatigue life.","contrary":"Slip adds no lifetime benefit.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0595","hypothesis":"A compliant radiator mount should reduce thermal fatigue by permitting reversible lateral slip.","prediction":"A compliant radiator mount should reduce thermal fatigue by permitting reversible lateral slip.","test":"Measure strain and fatigue life.","contrary_outcome":"Slip adds no lifetime benefit.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0595","hypothesis":"A compliant radiator mount should reduce thermal fatigue by permitting reversible lateral slip.","prediction":"A compliant radiator mount should reduce thermal fatigue by permitting reversible lateral slip.","test":"Measure strain and fatigue life.","contrary_outcome":"Slip adds no lifetime benefit.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":60,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A compliant radiator mount reduce thermal fatigue by permitting reversible lateral slip. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0596","id":"S1-0596","volume":"900","title":"A passive thermal delay should prevent a valve reacting to short temperature spikes.","prediction":"A passive thermal delay should prevent a valve reacting to short temperature spikes.","test":"Measure switching against pulse width.","contrary":"Short spikes still trigger it.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0596","hypothesis":"A passive thermal delay should prevent a valve reacting to short temperature spikes.","prediction":"A passive thermal delay should prevent a valve reacting to short temperature spikes.","test":"Measure switching against pulse width.","contrary_outcome":"Short spikes still trigger it.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0597","id":"S1-0597","volume":"900","title":"A liquid thermal ballast should suppress rapid temperature swings without greatly delaying slow tracking.","prediction":"A liquid thermal ballast should suppress rapid temperature swings without greatly delaying slow tracking.","test":"Measure transfer function.","contrary":"Timescale separation is insufficient.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0597","hypothesis":"A liquid thermal ballast should suppress rapid temperature swings without greatly delaying slow tracking.","prediction":"A liquid thermal ballast should suppress rapid temperature swings without greatly delaying slow tracking.","test":"Measure transfer function.","contrary_outcome":"Timescale separation is insufficient.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0598","id":"S1-0598","volume":"900","title":"A reflective groove should make frost detachment easier through localized warming of its base.","prediction":"A reflective groove should make frost detachment easier through localized warming of its base.","test":"Measure thaw energy.","contrary":"Detachment energy remains unchanged.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0598","hypothesis":"A reflective groove should make frost detachment easier through localized warming of its base.","prediction":"A reflective groove should make frost detachment easier through localized warming of its base.","test":"Measure thaw energy.","contrary_outcome":"Detachment energy remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0599","id":"S1-0599","volume":"900","title":"A thermal pressure chamber should drive a small mechanical counter only once per full heating cycle.","prediction":"A thermal pressure chamber should drive a small mechanical counter only once per full heating cycle.","test":"Count strokes.","contrary":"Partial cycles cause false counts.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0599","hypothesis":"A thermal pressure chamber should drive a small mechanical counter only once per full heating cycle.","prediction":"A thermal pressure chamber should drive a small mechanical counter only once per full heating cycle.","test":"Count strokes.","contrary_outcome":"Partial cycles cause false counts.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0600","id":"S1-0600","volume":"900","title":"A folded evaporative wick should reduce dryout after mechanical shock by retaining liquid in protected folds.","prediction":"A folded evaporative wick should reduce dryout after mechanical shock by retaining liquid in protected folds.","test":"Measure recovery after impacts.","contrary":"Protected folds do not improve recovery.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0600","hypothesis":"A folded evaporative wick should reduce dryout after mechanical shock by retaining liquid in protected folds.","prediction":"A folded evaporative wick should reduce dryout after mechanical shock by retaining liquid in protected folds.","test":"Measure recovery after impacts.","contrary_outcome":"Protected folds do not improve recovery.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0601","id":"S1-0601","volume":"900","title":"A granular funnel should avoid arching when its outlet boundary rotates independently under grain load.","prediction":"A granular funnel should avoid arching when its outlet boundary rotates independently under grain load.","test":"Count clogs.","contrary":"Rotation provides no reduction.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0601","hypothesis":"A granular funnel should avoid arching when its outlet boundary rotates independently under grain load.","prediction":"A granular funnel should avoid arching when its outlet boundary rotates independently under grain load.","test":"Count clogs.","contrary_outcome":"Rotation provides no reduction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0602","id":"S1-0602","volume":"900","title":"A resonant side branch should suppress one acoustic mode without increasing neighboring peaks.","prediction":"A resonant side branch should suppress one acoustic mode without increasing neighboring peaks.","test":"Measure full spectrum.","contrary":"Suppression transfers energy into larger neighboring peaks.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0602","hypothesis":"A resonant side branch should suppress one acoustic mode without increasing neighboring peaks.","prediction":"A resonant side branch should suppress one acoustic mode without increasing neighboring peaks.","test":"Measure full spectrum.","contrary_outcome":"Suppression transfers energy into larger neighboring peaks.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0603","id":"S1-0603","volume":"900","title":"A loosely packed bead column should preserve impact direction through asymmetric force-chain scars.","prediction":"A loosely packed bead column should preserve impact direction through asymmetric force-chain scars.","test":"Inspect post-impact contact marks.","contrary":"Scars cannot distinguish direction.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0603","hypothesis":"A loosely packed bead column should preserve impact direction through asymmetric force-chain scars.","prediction":"A loosely packed bead column should preserve impact direction through asymmetric force-chain scars.","test":"Inspect post-impact contact marks.","contrary_outcome":"Scars cannot distinguish direction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0603","hypothesis":"A loosely packed bead column should preserve impact direction through asymmetric force-chain scars.","prediction":"A loosely packed bead column should preserve impact direction through asymmetric force-chain scars.","test":"Inspect post-impact contact marks.","contrary_outcome":"Scars cannot distinguish direction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":61,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A loosely packed bead column preserve impact direction through asymmetric force-chain scars. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0604","id":"S1-0604","volume":"900","title":"A compliant acoustic horn should widen its useful bandwidth through wall-mode coupling.","prediction":"A compliant acoustic horn should widen its useful bandwidth through wall-mode coupling.","test":"Measure impedance and output.","contrary":"Coupling creates only narrow resonances.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0604","hypothesis":"A compliant acoustic horn should widen its useful bandwidth through wall-mode coupling.","prediction":"A compliant acoustic horn should widen its useful bandwidth through wall-mode coupling.","test":"Measure impedance and output.","contrary_outcome":"Coupling creates only narrow resonances.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0605","id":"S1-0605","volume":"900","title":"A granular damper should regain performance after settling when its enclosure periodically changes volume.","prediction":"A granular damper should regain performance after settling when its enclosure periodically changes volume.","test":"Measure damping across cycles.","contrary":"Volume changes do not restore damping.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0605","hypothesis":"A granular damper should regain performance after settling when its enclosure periodically changes volume.","prediction":"A granular damper should regain performance after settling when its enclosure periodically changes volume.","test":"Measure damping across cycles.","contrary_outcome":"Volume changes do not restore damping.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0606","id":"S1-0606","volume":"900","title":"A staggered resonator array should trap an acoustic pulse longer than a uniform array of equal mass.","prediction":"A staggered resonator array should trap an acoustic pulse longer than a uniform array of equal mass.","test":"Measure dwell time.","contrary":"Delay is unchanged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0606","hypothesis":"A staggered resonator array should trap an acoustic pulse longer than a uniform array of equal mass.","prediction":"A staggered resonator array should trap an acoustic pulse longer than a uniform array of equal mass.","test":"Measure dwell time.","contrary_outcome":"Delay is unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0607","id":"S1-0607","volume":"900","title":"A sloped granular bed should stabilize a rolling object through local rearrangement.","prediction":"A sloped granular bed should stabilize a rolling object through local rearrangement.","test":"Measure recovery after displacement.","contrary":"Rearrangement destabilizes it.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0607","hypothesis":"A sloped granular bed should stabilize a rolling object through local rearrangement.","prediction":"A sloped granular bed should stabilize a rolling object through local rearrangement.","test":"Measure recovery after displacement.","contrary_outcome":"Rearrangement destabilizes it.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0608","id":"S1-0608","volume":"900","title":"A flexible reed should distinguish gas leakage from broadband vibration through self-excited oscillation onset.","prediction":"A flexible reed should distinguish gas leakage from broadband vibration through self-excited oscillation onset.","test":"Test both disturbances.","contrary":"Vibration triggers identical oscillation.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0608","hypothesis":"A flexible reed should distinguish gas leakage from broadband vibration through self-excited oscillation onset.","prediction":"A flexible reed should distinguish gas leakage from broadband vibration through self-excited oscillation onset.","test":"Test both disturbances.","contrary_outcome":"Vibration triggers identical oscillation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0609","id":"S1-0609","volume":"900","title":"A tapered granular channel should separate friction coefficients without separating particle size.","prediction":"A tapered granular channel should separate friction coefficients without separating particle size.","test":"Track equal-sized test particles.","contrary":"Sorting follows incidental size differences.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0609","hypothesis":"A tapered granular channel should separate friction coefficients without separating particle size.","prediction":"A tapered granular channel should separate friction coefficients without separating particle size.","test":"Track equal-sized test particles.","contrary_outcome":"Sorting follows incidental size differences.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0610","id":"S1-0610","volume":"900","title":"A coupled cavity should make leakage audible only above a chosen pressure threshold.","prediction":"A coupled cavity should make leakage audible only above a chosen pressure threshold.","test":"Measure sound and leakage.","contrary":"Sound onset is not pressure-selective.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0610","hypothesis":"A coupled cavity should make leakage audible only above a chosen pressure threshold.","prediction":"A coupled cavity should make leakage audible only above a chosen pressure threshold.","test":"Measure sound and leakage.","contrary_outcome":"Sound onset is not pressure-selective.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0611","id":"S1-0611","volume":"900","title":"A rolling drum should mix segregated granular layers faster when its axis precesses slowly.","prediction":"A rolling drum should mix segregated granular layers faster when its axis precesses slowly.","test":"Measure concentration variance.","contrary":"Precession adds no mixing benefit.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0611","hypothesis":"A rolling drum should mix segregated granular layers faster when its axis precesses slowly.","prediction":"A rolling drum should mix segregated granular layers faster when its axis precesses slowly.","test":"Measure concentration variance.","contrary_outcome":"Precession adds no mixing benefit.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0612","id":"S1-0612","volume":"900","title":"A membrane acoustic absorber should retain performance after one cavity floods through isolated backing cells.","prediction":"A membrane acoustic absorber should retain performance after one cavity floods through isolated backing cells.","test":"Flood selected cells.","contrary":"Absorption collapses globally.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0612","hypothesis":"A membrane acoustic absorber should retain performance after one cavity floods through isolated backing cells.","prediction":"A membrane acoustic absorber should retain performance after one cavity floods through isolated backing cells.","test":"Flood selected cells.","contrary_outcome":"Absorption collapses globally.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0613","id":"S1-0613","volume":"900","title":"A compliant hopper wall should expose impending blockage through a measurable displacement plateau.","prediction":"A compliant hopper wall should expose impending blockage through a measurable displacement plateau.","test":"Record wall motion before clogs.","contrary":"No consistent precursor appears.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0613","hypothesis":"A compliant hopper wall should expose impending blockage through a measurable displacement plateau.","prediction":"A compliant hopper wall should expose impending blockage through a measurable displacement plateau.","test":"Record wall motion before clogs.","contrary_outcome":"No consistent precursor appears.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0614","id":"S1-0614","volume":"900","title":"A spiral acoustic path should compress pulse duration through controlled frequency-dependent delay.","prediction":"A spiral acoustic path should compress pulse duration through controlled frequency-dependent delay.","test":"Measure input/output pulses.","contrary":"Pulse broadens instead.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0614","hypothesis":"A spiral acoustic path should compress pulse duration through controlled frequency-dependent delay.","prediction":"A spiral acoustic path should compress pulse duration through controlled frequency-dependent delay.","test":"Measure input/output pulses.","contrary_outcome":"Pulse broadens instead.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0614","hypothesis":"A spiral acoustic path should compress pulse duration through controlled frequency-dependent delay.","prediction":"A spiral acoustic path should compress pulse duration through controlled frequency-dependent delay.","test":"Measure input/output pulses.","contrary_outcome":"Pulse broadens instead.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":62,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A spiral acoustic path compress pulse duration through controlled frequency-dependent delay. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0615","id":"S1-0615","volume":"900","title":"A granular cushion should distribute impact farther when confinement relaxes after initial compression.","prediction":"A granular cushion should distribute impact farther when confinement relaxes after initial compression.","test":"Map forces.","contrary":"Relaxation localizes force.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0615","hypothesis":"A granular cushion should distribute impact farther when confinement relaxes after initial compression.","prediction":"A granular cushion should distribute impact farther when confinement relaxes after initial compression.","test":"Map forces.","contrary_outcome":"Relaxation localizes force.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0616","id":"S1-0616","volume":"900","title":"A flexible cavity neck should regulate acoustic resonance against changing gas density.","prediction":"A flexible cavity neck should regulate acoustic resonance against changing gas density.","test":"Measure resonance across inert gases.","contrary":"Resonance shifts as in rigid necks.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0616","hypothesis":"A flexible cavity neck should regulate acoustic resonance against changing gas density.","prediction":"A flexible cavity neck should regulate acoustic resonance against changing gas density.","test":"Measure resonance across inert gases.","contrary_outcome":"Resonance shifts as in rigid necks.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0617","id":"S1-0617","volume":"900","title":"A rocking sieve should separate particles by shape at equal volume through orientation-dependent passage.","prediction":"A rocking sieve should separate particles by shape at equal volume through orientation-dependent passage.","test":"Measure output shapes.","contrary":"Shape selectivity is absent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0617","hypothesis":"A rocking sieve should separate particles by shape at equal volume through orientation-dependent passage.","prediction":"A rocking sieve should separate particles by shape at equal volume through orientation-dependent passage.","test":"Measure output shapes.","contrary_outcome":"Shape selectivity is absent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0618","id":"S1-0618","volume":"900","title":"A porous acoustic backing should reveal pore flooding through an abrupt change in phase delay.","prediction":"A porous acoustic backing should reveal pore flooding through an abrupt change in phase delay.","test":"Wet pores progressively and measure transmission.","contrary":"Phase changes only smoothly with bulk mass.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0618","hypothesis":"A porous acoustic backing should reveal pore flooding through an abrupt change in phase delay.","prediction":"A porous acoustic backing should reveal pore flooding through an abrupt change in phase delay.","test":"Wet pores progressively and measure transmission.","contrary_outcome":"Phase changes only smoothly with bulk mass.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0619","id":"S1-0619","volume":"900","title":"A granular rotor should resist reverse rotation through dilation against an asymmetric enclosure.","prediction":"A granular rotor should resist reverse rotation through dilation against an asymmetric enclosure.","test":"Measure directional torque.","contrary":"Torque is symmetric.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0619","hypothesis":"A granular rotor should resist reverse rotation through dilation against an asymmetric enclosure.","prediction":"A granular rotor should resist reverse rotation through dilation against an asymmetric enclosure.","test":"Measure directional torque.","contrary_outcome":"Torque is symmetric.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0620","id":"S1-0620","volume":"900","title":"A side-coupled bubble should reveal acoustic pressure amplitude through nonlinear resonance shift.","prediction":"A side-coupled bubble should reveal acoustic pressure amplitude through nonlinear resonance shift.","test":"Calibrate safe pressure levels.","contrary":"Shift follows temperature instead.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0620","hypothesis":"A side-coupled bubble should reveal acoustic pressure amplitude through nonlinear resonance shift.","prediction":"A side-coupled bubble should reveal acoustic pressure amplitude through nonlinear resonance shift.","test":"Calibrate safe pressure levels.","contrary_outcome":"Shift follows temperature instead.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0621","id":"S1-0621","volume":"900","title":"A funnel insert should prevent rat-holing by forcing periodic exchange between wall and core grains.","prediction":"A funnel insert should prevent rat-holing by forcing periodic exchange between wall and core grains.","test":"Image tracers.","contrary":"Core bypass persists.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0621","hypothesis":"A funnel insert should prevent rat-holing by forcing periodic exchange between wall and core grains.","prediction":"A funnel insert should prevent rat-holing by forcing periodic exchange between wall and core grains.","test":"Image tracers.","contrary_outcome":"Core bypass persists.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0622","id":"S1-0622","volume":"900","title":"A flexible acoustic reflector should self-align toward maximum pressure under a standing wave.","prediction":"A flexible acoustic reflector should self-align toward maximum pressure under a standing wave.","test":"Track angle.","contrary":"No stable pressure-aligned orientation emerges.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0622","hypothesis":"A flexible acoustic reflector should self-align toward maximum pressure under a standing wave.","prediction":"A flexible acoustic reflector should self-align toward maximum pressure under a standing wave.","test":"Track angle.","contrary_outcome":"No stable pressure-aligned orientation emerges.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0623","id":"S1-0623","volume":"900","title":"A granular pouch should retain object shape after release when internal partitions limit relaxation.","prediction":"A granular pouch should retain object shape after release when internal partitions limit relaxation.","test":"Scan retained geometry.","contrary":"Partitions do not improve retention.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0623","hypothesis":"A granular pouch should retain object shape after release when internal partitions limit relaxation.","prediction":"A granular pouch should retain object shape after release when internal partitions limit relaxation.","test":"Scan retained geometry.","contrary_outcome":"Partitions do not improve retention.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0624","id":"S1-0624","volume":"900","title":"A split acoustic duct should reject common-source noise while passing a localized side-branch signal.","prediction":"A split acoustic duct should reject common-source noise while passing a localized side-branch signal.","test":"Measure transfer paths.","contrary":"Desired signal is rejected equally.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0624","hypothesis":"A split acoustic duct should reject common-source noise while passing a localized side-branch signal.","prediction":"A split acoustic duct should reject common-source noise while passing a localized side-branch signal.","test":"Measure transfer paths.","contrary_outcome":"Desired signal is rejected equally.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0625","id":"S1-0625","volume":"900","title":"A shallow particle bed should reveal vibration polarization through anisotropic surface ripples.","prediction":"A shallow particle bed should reveal vibration polarization through anisotropic surface ripples.","test":"Apply calibrated motions.","contrary":"Ripples do not track polarization.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0625","hypothesis":"A shallow particle bed should reveal vibration polarization through anisotropic surface ripples.","prediction":"A shallow particle bed should reveal vibration polarization through anisotropic surface ripples.","test":"Apply calibrated motions.","contrary_outcome":"Ripples do not track polarization.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0626","id":"S1-0626","volume":"900","title":"A cavity with a floating floor should maintain resonance as liquid level changes.","prediction":"A cavity with a floating floor should maintain resonance as liquid level changes.","test":"Measure spectra over filling.","contrary":"Resonance drifts as in fixed floors.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0626","hypothesis":"A cavity with a floating floor should maintain resonance as liquid level changes.","prediction":"A cavity with a floating floor should maintain resonance as liquid level changes.","test":"Measure spectra over filling.","contrary_outcome":"Resonance drifts as in fixed floors.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0627","id":"S1-0627","volume":"900","title":"A grain-filled compliant tube should stiffen under bending through local jamming.","prediction":"A grain-filled compliant tube should stiffen under bending through local jamming.","test":"Measure stiffness versus curvature.","contrary":"Stiffness remains constant or decreases.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0627","hypothesis":"A grain-filled compliant tube should stiffen under bending through local jamming.","prediction":"A grain-filled compliant tube should stiffen under bending through local jamming.","test":"Measure stiffness versus curvature.","contrary_outcome":"Stiffness remains constant or decreases.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0627","hypothesis":"A grain-filled compliant tube should stiffen under bending through local jamming.","prediction":"A grain-filled compliant tube should stiffen under bending through local jamming.","test":"Measure stiffness versus curvature.","contrary_outcome":"Stiffness remains constant or decreases.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":63,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A grain-filled compliant tube stiffen under bending through local jamming. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0628","id":"S1-0628","volume":"900","title":"A passive acoustic valve should open under a narrow frequency band through resonant flap motion.","prediction":"A passive acoustic valve should open under a narrow frequency band through resonant flap motion.","test":"Sweep equal-amplitude tones.","contrary":"Opening is broadband or absent.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0628","hypothesis":"A passive acoustic valve should open under a narrow frequency band through resonant flap motion.","prediction":"A passive acoustic valve should open under a narrow frequency band through resonant flap motion.","test":"Sweep equal-amplitude tones.","contrary_outcome":"Opening is broadband or absent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0629","id":"S1-0629","volume":"900","title":"A hopper with a movable central rod should clear arches using gravitational settling alone.","prediction":"A hopper with a movable central rod should clear arches using gravitational settling alone.","test":"Count clogs and rod motion.","contrary":"Rod stalls inside clogs.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0629","hypothesis":"A hopper with a movable central rod should clear arches using gravitational settling alone.","prediction":"A hopper with a movable central rod should clear arches using gravitational settling alone.","test":"Count clogs and rod motion.","contrary_outcome":"Rod stalls inside clogs.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0630","id":"S1-0630","volume":"900","title":"A corrugated acoustic screen should reduce transmitted impulses more than steady low-level tones.","prediction":"A corrugated acoustic screen should reduce transmitted impulses more than steady low-level tones.","test":"Measure amplitude-dependent transmission.","contrary":"Transmission is amplitude-independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0630","hypothesis":"A corrugated acoustic screen should reduce transmitted impulses more than steady low-level tones.","prediction":"A corrugated acoustic screen should reduce transmitted impulses more than steady low-level tones.","test":"Measure amplitude-dependent transmission.","contrary_outcome":"Transmission is amplitude-independent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0631","id":"S1-0631","volume":"900","title":"A vibrated granular bed should carry a buried object upward only when its rocking resonance is excited.","prediction":"A vibrated granular bed should carry a buried object upward only when its rocking resonance is excited.","test":"Track depth versus frequency.","contrary":"Rise is unrelated to object resonance.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0631","hypothesis":"A vibrated granular bed should carry a buried object upward only when its rocking resonance is excited.","prediction":"A vibrated granular bed should carry a buried object upward only when its rocking resonance is excited.","test":"Track depth versus frequency.","contrary_outcome":"Rise is unrelated to object resonance.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0632","id":"S1-0632","volume":"900","title":"A compliant cavity divider should produce a measurable avoided crossing between acoustic and mechanical modes.","prediction":"A compliant cavity divider should produce a measurable avoided crossing between acoustic and mechanical modes.","test":"Sweep stiffness.","contrary":"Modes cross without coupling.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0632","hypothesis":"A compliant cavity divider should produce a measurable avoided crossing between acoustic and mechanical modes.","prediction":"A compliant cavity divider should produce a measurable avoided crossing between acoustic and mechanical modes.","test":"Sweep stiffness.","contrary_outcome":"Modes cross without coupling.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0633","id":"S1-0633","volume":"900","title":"A pocketed chute should reduce grain impact velocity without reducing throughput proportionally.","prediction":"A pocketed chute should reduce grain impact velocity without reducing throughput proportionally.","test":"Measure speed and mass flow.","contrary":"Speed reduction requires equal throughput loss.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0633","hypothesis":"A pocketed chute should reduce grain impact velocity without reducing throughput proportionally.","prediction":"A pocketed chute should reduce grain impact velocity without reducing throughput proportionally.","test":"Measure speed and mass flow.","contrary_outcome":"Speed reduction requires equal throughput loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0634","id":"S1-0634","volume":"900","title":"A ring acoustic resonator should localize a small blockage through mode-orientation rotation.","prediction":"A ring acoustic resonator should localize a small blockage through mode-orientation rotation.","test":"Place known obstructions.","contrary":"Mode orientation is ambiguous.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0634","hypothesis":"A ring acoustic resonator should localize a small blockage through mode-orientation rotation.","prediction":"A ring acoustic resonator should localize a small blockage through mode-orientation rotation.","test":"Place known obstructions.","contrary_outcome":"Mode orientation is ambiguous.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0635","id":"S1-0635","volume":"900","title":"A rolling granular sleeve should reduce wear on a sliding rod through particle recirculation.","prediction":"A rolling granular sleeve should reduce wear on a sliding rod through particle recirculation.","test":"Measure wear and particle motion.","contrary":"Particles abrade the rod more strongly.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0635","hypothesis":"A rolling granular sleeve should reduce wear on a sliding rod through particle recirculation.","prediction":"A rolling granular sleeve should reduce wear on a sliding rod through particle recirculation.","test":"Measure wear and particle motion.","contrary_outcome":"Particles abrade the rod more strongly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0636","id":"S1-0636","volume":"900","title":"A flexible Helmholtz neck should reduce resonance drift caused by partial mouth obstruction.","prediction":"A flexible Helmholtz neck should reduce resonance drift caused by partial mouth obstruction.","test":"Measure spectra during blockage.","contrary":"Drift is unchanged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0636","hypothesis":"A flexible Helmholtz neck should reduce resonance drift caused by partial mouth obstruction.","prediction":"A flexible Helmholtz neck should reduce resonance drift caused by partial mouth obstruction.","test":"Measure spectra during blockage.","contrary_outcome":"Drift is unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0637","id":"S1-0637","volume":"900","title":"A granular conveyor should reverse its preferred direction when vibration crosses a geometric slip threshold.","prediction":"A granular conveyor should reverse its preferred direction when vibration crosses a geometric slip threshold.","test":"Measure net transport.","contrary":"Direction remains unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0637","hypothesis":"A granular conveyor should reverse its preferred direction when vibration crosses a geometric slip threshold.","prediction":"A granular conveyor should reverse its preferred direction when vibration crosses a geometric slip threshold.","test":"Measure net transport.","contrary_outcome":"Direction remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0638","id":"S1-0638","volume":"900","title":"A cavity array should identify which cell is wet from the disappearance of one localized mode.","prediction":"A cavity array should identify which cell is wet from the disappearance of one localized mode.","test":"Wet known cells.","contrary":"Modes shift globally without localization.","layers":[1,2],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0638","hypothesis":"A cavity array should identify which cell is wet from the disappearance of one localized mode.","prediction":"A cavity array should identify which cell is wet from the disappearance of one localized mode.","test":"Wet known cells.","contrary_outcome":"Modes shift globally without localization.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0638","hypothesis":"A cavity array should identify which cell is wet from the disappearance of one localized mode.","prediction":"A cavity array should identify which cell is wet from the disappearance of one localized mode.","test":"Wet known cells.","contrary_outcome":"Modes shift globally without localization.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":64,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A cavity array identify which cell is wet from the disappearance of one localized mode. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0639","id":"S1-0639","volume":"900","title":"A loose particle liner should reduce impact ringing by transferring energy into many collision times.","prediction":"A loose particle liner should reduce impact ringing by transferring energy into many collision times.","test":"Measure decay envelope.","contrary":"Ringing duration is unchanged.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0639","hypothesis":"A loose particle liner should reduce impact ringing by transferring energy into many collision times.","prediction":"A loose particle liner should reduce impact ringing by transferring energy into many collision times.","test":"Measure decay envelope.","contrary_outcome":"Ringing duration is unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0640","id":"S1-0640","volume":"900","title":"A tapered acoustic guide should reduce echo ambiguity in liquid-level measurement.","prediction":"A tapered acoustic guide should reduce echo ambiguity in liquid-level measurement.","test":"Measure false echoes.","contrary":"Taper adds ambiguous reflections.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0640","hypothesis":"A tapered acoustic guide should reduce echo ambiguity in liquid-level measurement.","prediction":"A tapered acoustic guide should reduce echo ambiguity in liquid-level measurement.","test":"Measure false echoes.","contrary_outcome":"Taper adds ambiguous reflections.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0641","id":"S1-0641","volume":"900","title":"A granular-filled arch should carry higher load after controlled pre-shaking through denser force networks.","prediction":"A granular-filled arch should carry higher load after controlled pre-shaking through denser force networks.","test":"Measure failure load.","contrary":"Pre-shaking weakens it.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0641","hypothesis":"A granular-filled arch should carry higher load after controlled pre-shaking through denser force networks.","prediction":"A granular-filled arch should carry higher load after controlled pre-shaking through denser force networks.","test":"Measure failure load.","contrary_outcome":"Pre-shaking weakens it.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0642","id":"S1-0642","volume":"900","title":"A membrane-covered acoustic hole should reject airflow noise while preserving cavity resonance.","prediction":"A membrane-covered acoustic hole should reject airflow noise while preserving cavity resonance.","test":"Measure noise and resonance.","contrary":"Noise suppression erases resonance.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0642","hypothesis":"A membrane-covered acoustic hole should reject airflow noise while preserving cavity resonance.","prediction":"A membrane-covered acoustic hole should reject airflow noise while preserving cavity resonance.","test":"Measure noise and resonance.","contrary_outcome":"Noise suppression erases resonance.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0643","id":"S1-0643","volume":"900","title":"A slotted grain chute should release trapped air and stabilize mass discharge.","prediction":"A slotted grain chute should release trapped air and stabilize mass discharge.","test":"Measure flow variance.","contrary":"Venting has no effect.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0643","hypothesis":"A slotted grain chute should release trapped air and stabilize mass discharge.","prediction":"A slotted grain chute should release trapped air and stabilize mass discharge.","test":"Measure flow variance.","contrary_outcome":"Venting has no effect.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0644","id":"S1-0644","volume":"900","title":"A mechanically stretched acoustic cavity should vary resonance continuously without opening leakage paths.","prediction":"A mechanically stretched acoustic cavity should vary resonance continuously without opening leakage paths.","test":"Measure spectra and leakage.","contrary":"Tuning causes dominant leakage loss.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0644","hypothesis":"A mechanically stretched acoustic cavity should vary resonance continuously without opening leakage paths.","prediction":"A mechanically stretched acoustic cavity should vary resonance continuously without opening leakage paths.","test":"Measure spectra and leakage.","contrary_outcome":"Tuning causes dominant leakage loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0645","id":"S1-0645","volume":"900","title":"A soft particle bed should cushion repeated impacts better when particles exchange positions between hits.","prediction":"A soft particle bed should cushion repeated impacts better when particles exchange positions between hits.","test":"Track rearrangement and force.","contrary":"Exchange does not sustain cushioning.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0645","hypothesis":"A soft particle bed should cushion repeated impacts better when particles exchange positions between hits.","prediction":"A soft particle bed should cushion repeated impacts better when particles exchange positions between hits.","test":"Track rearrangement and force.","contrary_outcome":"Exchange does not sustain cushioning.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0646","id":"S1-0646","volume":"900","title":"A curved waveguide should separate closely spaced acoustic modes through polarization-selective bends.","prediction":"A curved waveguide should separate closely spaced acoustic modes through polarization-selective bends.","test":"Measure modal transmission.","contrary":"Modes remain inseparable.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0646","hypothesis":"A curved waveguide should separate closely spaced acoustic modes through polarization-selective bends.","prediction":"A curved waveguide should separate closely spaced acoustic modes through polarization-selective bends.","test":"Measure modal transmission.","contrary_outcome":"Modes remain inseparable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0646","hypothesis":"A curved waveguide should separate closely spaced acoustic modes through polarization-selective bends.","prediction":"A curved waveguide should separate closely spaced acoustic modes through polarization-selective bends.","test":"Measure modal transmission.","contrary_outcome":"Modes remain inseparable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":65,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A curved waveguide separate closely spaced acoustic modes through polarization-selective bends. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0647","id":"S1-0647","volume":"900","title":"A rotating hopper floor should reduce composition segregation by recirculating slow wall particles.","prediction":"A rotating hopper floor should reduce composition segregation by recirculating slow wall particles.","test":"Map mixture composition.","contrary":"Segregation worsens.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0647","hypothesis":"A rotating hopper floor should reduce composition segregation by recirculating slow wall particles.","prediction":"A rotating hopper floor should reduce composition segregation by recirculating slow wall particles.","test":"Map mixture composition.","contrary_outcome":"Segregation worsens.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0648","id":"S1-0648","volume":"900","title":"A passive acoustic shutter should close during a loud impulse and reopen for quiet sound.","prediction":"A passive acoustic shutter should close during a loud impulse and reopen for quiet sound.","test":"Measure time-resolved transmission.","contrary":"Closure arrives after the impulse.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0648","hypothesis":"A passive acoustic shutter should close during a loud impulse and reopen for quiet sound.","prediction":"A passive acoustic shutter should close during a loud impulse and reopen for quiet sound.","test":"Measure time-resolved transmission.","contrary_outcome":"Closure arrives after the impulse.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0649","id":"S1-0649","volume":"900","title":"A confined grain layer should exhibit a reproducible stiffness jump when its free volume crosses a threshold.","prediction":"A confined grain layer should exhibit a reproducible stiffness jump when its free volume crosses a threshold.","test":"Measure modulus versus gap.","contrary":"Stiffness changes only smoothly.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0649","hypothesis":"A confined grain layer should exhibit a reproducible stiffness jump when its free volume crosses a threshold.","prediction":"A confined grain layer should exhibit a reproducible stiffness jump when its free volume crosses a threshold.","test":"Measure modulus versus gap.","contrary_outcome":"Stiffness changes only smoothly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0650","id":"S1-0650","volume":"900","title":"A paired cavity sensor should identify gas flow direction through unequal resonance damping.","prediction":"A paired cavity sensor should identify gas flow direction through unequal resonance damping.","test":"Reverse controlled flow.","contrary":"Damping asymmetry does not reverse.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0650","hypothesis":"A paired cavity sensor should identify gas flow direction through unequal resonance damping.","prediction":"A paired cavity sensor should identify gas flow direction through unequal resonance damping.","test":"Reverse controlled flow.","contrary_outcome":"Damping asymmetry does not reverse.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0651","id":"S1-0651","volume":"900","title":"A flexible granular scoop should reduce discharge surges through load-dependent aperture closure.","prediction":"A flexible granular scoop should reduce discharge surges through load-dependent aperture closure.","test":"Measure mass-flow variance.","contrary":"Closure increases surging.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0651","hypothesis":"A flexible granular scoop should reduce discharge surges through load-dependent aperture closure.","prediction":"A flexible granular scoop should reduce discharge surges through load-dependent aperture closure.","test":"Measure mass-flow variance.","contrary_outcome":"Closure increases surging.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0652","id":"S1-0652","volume":"900","title":"A liquid-loaded acoustic membrane should detect tiny tilt through mode splitting.","prediction":"A liquid-loaded acoustic membrane should detect tiny tilt through mode splitting.","test":"Calibrate tilt.","contrary":"Splitting is dominated by tension drift.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0652","hypothesis":"A liquid-loaded acoustic membrane should detect tiny tilt through mode splitting.","prediction":"A liquid-loaded acoustic membrane should detect tiny tilt through mode splitting.","test":"Calibrate tilt.","contrary_outcome":"Splitting is dominated by tension drift.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0653","id":"S1-0653","volume":"900","title":"A prestrained granular mesh should retain permeability during compression through lateral grain escape channels.","prediction":"A prestrained granular mesh should retain permeability during compression through lateral grain escape channels.","test":"Measure pressure drop.","contrary":"Permeability collapses equally.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0653","hypothesis":"A prestrained granular mesh should retain permeability during compression through lateral grain escape channels.","prediction":"A prestrained granular mesh should retain permeability during compression through lateral grain escape channels.","test":"Measure pressure drop.","contrary_outcome":"Permeability collapses equally.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0654","id":"S1-0654","volume":"900","title":"A corrugated cavity wall should convert acoustic energy into reversible frictional slip.","prediction":"A corrugated cavity wall should convert acoustic energy into reversible frictional slip.","test":"Measure wall motion and absorption.","contrary":"Slip contributes no measurable absorption.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0654","hypothesis":"A corrugated cavity wall should convert acoustic energy into reversible frictional slip.","prediction":"A corrugated cavity wall should convert acoustic energy into reversible frictional slip.","test":"Measure wall motion and absorption.","contrary_outcome":"Slip contributes no measurable absorption.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0655","id":"S1-0655","volume":"900","title":"A gravity-driven particle sorter should distinguish hollow from solid equal-size spheres through rebound timing.","prediction":"A gravity-driven particle sorter should distinguish hollow from solid equal-size spheres through rebound timing.","test":"Track calibrated particles.","contrary":"Timing distributions overlap.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0655","hypothesis":"A gravity-driven particle sorter should distinguish hollow from solid equal-size spheres through rebound timing.","prediction":"A gravity-driven particle sorter should distinguish hollow from solid equal-size spheres through rebound timing.","test":"Track calibrated particles.","contrary_outcome":"Timing distributions overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0656","id":"S1-0656","volume":"900","title":"A side-branch resonator should reveal incipient pipe blockage through resonance asymmetry before mean flow declines.","prediction":"A side-branch resonator should reveal incipient pipe blockage through resonance asymmetry before mean flow declines.","test":"Measure blockage progression.","contrary":"Signal appears only after major flow loss.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0656","hypothesis":"A side-branch resonator should reveal incipient pipe blockage through resonance asymmetry before mean flow declines.","prediction":"A side-branch resonator should reveal incipient pipe blockage through resonance asymmetry before mean flow declines.","test":"Measure blockage progression.","contrary_outcome":"Signal appears only after major flow loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0657","id":"S1-0657","volume":"900","title":"A grain-filled bellows should maintain damping under orientation changes through compartmentalization.","prediction":"A grain-filled bellows should maintain damping under orientation changes through compartmentalization.","test":"Measure damping over rotations.","contrary":"Orientation sensitivity remains equal.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0657","hypothesis":"A grain-filled bellows should maintain damping under orientation changes through compartmentalization.","prediction":"A grain-filled bellows should maintain damping under orientation changes through compartmentalization.","test":"Measure damping over rotations.","contrary_outcome":"Orientation sensitivity remains equal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0657","hypothesis":"A grain-filled bellows should maintain damping under orientation changes through compartmentalization.","prediction":"A grain-filled bellows should maintain damping under orientation changes through compartmentalization.","test":"Measure damping over rotations.","contrary_outcome":"Orientation sensitivity remains equal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":66,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A grain-filled bellows maintain damping under orientation changes through compartmentalization. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0658","id":"S1-0658","volume":"900","title":"A suspended acoustic disk should estimate sound direction from tilt before full radiation-force alignment.","prediction":"A suspended acoustic disk should estimate sound direction from tilt before full radiation-force alignment.","test":"Compare imposed directions.","contrary":"Transient tilt is ambiguous.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0658","hypothesis":"A suspended acoustic disk should estimate sound direction from tilt before full radiation-force alignment.","prediction":"A suspended acoustic disk should estimate sound direction from tilt before full radiation-force alignment.","test":"Compare imposed directions.","contrary_outcome":"Transient tilt is ambiguous.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0659","id":"S1-0659","volume":"900","title":"A compliant granular gate should meter a fixed mass through force-triggered closure.","prediction":"A compliant granular gate should meter a fixed mass through force-triggered closure.","test":"Weigh batches.","contrary":"Batch mass depends strongly on hopper head.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0659","hypothesis":"A compliant granular gate should meter a fixed mass through force-triggered closure.","prediction":"A compliant granular gate should meter a fixed mass through force-triggered closure.","test":"Weigh batches.","contrary_outcome":"Batch mass depends strongly on hopper head.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0660","id":"S1-0660","volume":"900","title":"A hollow acoustic prism should distinguish gas temperature from composition using two propagation paths.","prediction":"A hollow acoustic prism should distinguish gas temperature from composition using two propagation paths.","test":"Test known conditions.","contrary":"Parameters remain confounded.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0660","hypothesis":"A hollow acoustic prism should distinguish gas temperature from composition using two propagation paths.","prediction":"A hollow acoustic prism should distinguish gas temperature from composition using two propagation paths.","test":"Test known conditions.","contrary_outcome":"Parameters remain confounded.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0661","id":"S1-0661","volume":"900","title":"A particle-laden liquid should clear a narrow slit faster when the slit walls oscillate out of phase.","prediction":"A particle-laden liquid should clear a narrow slit faster when the slit walls oscillate out of phase.","test":"Measure clog lifetimes.","contrary":"Out-of-phase motion adds no clearing.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0661","hypothesis":"A particle-laden liquid should clear a narrow slit faster when the slit walls oscillate out of phase.","prediction":"A particle-laden liquid should clear a narrow slit faster when the slit walls oscillate out of phase.","test":"Measure clog lifetimes.","contrary_outcome":"Out-of-phase motion adds no clearing.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0662","id":"S1-0662","volume":"900","title":"A flexible resonator mount should isolate acoustic readout from support vibration without lowering acoustic coupling.","prediction":"A flexible resonator mount should isolate acoustic readout from support vibration without lowering acoustic coupling.","test":"Measure both transfer paths.","contrary":"Isolation removes desired coupling equally.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0662","hypothesis":"A flexible resonator mount should isolate acoustic readout from support vibration without lowering acoustic coupling.","prediction":"A flexible resonator mount should isolate acoustic readout from support vibration without lowering acoustic coupling.","test":"Measure both transfer paths.","contrary_outcome":"Isolation removes desired coupling equally.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0663","id":"S1-0663","volume":"900","title":"A granular bed should estimate repeated-impact count from progressive surface compaction.","prediction":"A granular bed should estimate repeated-impact count from progressive surface compaction.","test":"Apply identical impacts.","contrary":"Compaction saturates too early for counting.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0663","hypothesis":"A granular bed should estimate repeated-impact count from progressive surface compaction.","prediction":"A granular bed should estimate repeated-impact count from progressive surface compaction.","test":"Apply identical impacts.","contrary_outcome":"Compaction saturates too early for counting.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0664","id":"S1-0664","volume":"900","title":"A perforated acoustic baffle should retain attenuation after edge leakage when holes form independent resonators.","prediction":"A perforated acoustic baffle should retain attenuation after edge leakage when holes form independent resonators.","test":"Introduce edge gaps.","contrary":"Leakage bypasses attenuation entirely.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0664","hypothesis":"A perforated acoustic baffle should retain attenuation after edge leakage when holes form independent resonators.","prediction":"A perforated acoustic baffle should retain attenuation after edge leakage when holes form independent resonators.","test":"Introduce edge gaps.","contrary_outcome":"Leakage bypasses attenuation entirely.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0665","id":"S1-0665","volume":"900","title":"A tapered bead chain should concentrate an impact into a detachable endpoint without large rebound.","prediction":"A tapered bead chain should concentrate an impact into a detachable endpoint without large rebound.","test":"Measure endpoint impulse and recoil.","contrary":"Rebound remains dominant.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0665","hypothesis":"A tapered bead chain should concentrate an impact into a detachable endpoint without large rebound.","prediction":"A tapered bead chain should concentrate an impact into a detachable endpoint without large rebound.","test":"Measure endpoint impulse and recoil.","contrary_outcome":"Rebound remains dominant.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0666","id":"S1-0666","volume":"900","title":"A liquid-backed acoustic cavity should tune itself as external pressure changes.","prediction":"A liquid-backed acoustic cavity should tune itself as external pressure changes.","test":"Measure resonance-pressure curves.","contrary":"Tuning has the wrong sign.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0666","hypothesis":"A liquid-backed acoustic cavity should tune itself as external pressure changes.","prediction":"A liquid-backed acoustic cavity should tune itself as external pressure changes.","test":"Measure resonance-pressure curves.","contrary_outcome":"Tuning has the wrong sign.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0667","id":"S1-0667","volume":"900","title":"A granular brake should release more quickly when its enclosure shears slightly before decompression.","prediction":"A granular brake should release more quickly when its enclosure shears slightly before decompression.","test":"Measure release time.","contrary":"Pre-shear delays release.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0667","hypothesis":"A granular brake should release more quickly when its enclosure shears slightly before decompression.","prediction":"A granular brake should release more quickly when its enclosure shears slightly before decompression.","test":"Measure release time.","contrary_outcome":"Pre-shear delays release.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0668","id":"S1-0668","volume":"900","title":"A compliant acoustic lens should refocus when incident sound direction changes through radiation-force deformation.","prediction":"A compliant acoustic lens should refocus when incident sound direction changes through radiation-force deformation.","test":"Map focal position.","contrary":"Deformation is too small or destabilizing.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0668","hypothesis":"A compliant acoustic lens should refocus when incident sound direction changes through radiation-force deformation.","prediction":"A compliant acoustic lens should refocus when incident sound direction changes through radiation-force deformation.","test":"Map focal position.","contrary_outcome":"Deformation is too small or destabilizing.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0669","id":"S1-0669","volume":"900","title":"A narrow grain channel should suppress size segregation when its walls alternately diverge and converge.","prediction":"A narrow grain channel should suppress size segregation when its walls alternately diverge and converge.","test":"Measure mixture uniformity.","contrary":"Geometry increases segregation.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0669","hypothesis":"A narrow grain channel should suppress size segregation when its walls alternately diverge and converge.","prediction":"A narrow grain channel should suppress size segregation when its walls alternately diverge and converge.","test":"Measure mixture uniformity.","contrary_outcome":"Geometry increases segregation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0669","hypothesis":"A narrow grain channel should suppress size segregation when its walls alternately diverge and converge.","prediction":"A narrow grain channel should suppress size segregation when its walls alternately diverge and converge.","test":"Measure mixture uniformity.","contrary_outcome":"Geometry increases segregation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":67,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A narrow grain channel suppress size segregation when its walls alternately diverge and converge. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0670","id":"S1-0670","volume":"900","title":"A coupled resonator pair should detect a weak mechanical contact through a new difference-frequency response.","prediction":"A coupled resonator pair should detect a weak mechanical contact through a new difference-frequency response.","test":"Apply controlled contact.","contrary":"Difference tone lacks contact specificity.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0670","hypothesis":"A coupled resonator pair should detect a weak mechanical contact through a new difference-frequency response.","prediction":"A coupled resonator pair should detect a weak mechanical contact through a new difference-frequency response.","test":"Apply controlled contact.","contrary_outcome":"Difference tone lacks contact specificity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0671","id":"S1-0671","volume":"900","title":"A granular support should reduce tilt creep when its upper surface has interlocking recesses.","prediction":"A granular support should reduce tilt creep when its upper surface has interlocking recesses.","test":"Measure long-term inclination.","contrary":"Recesses do not improve stability.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0671","hypothesis":"A granular support should reduce tilt creep when its upper surface has interlocking recesses.","prediction":"A granular support should reduce tilt creep when its upper surface has interlocking recesses.","test":"Measure long-term inclination.","contrary_outcome":"Recesses do not improve stability.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0672","id":"S1-0672","volume":"900","title":"A cavity vent should distinguish slow pressure drift from acoustic pulses through a tunable flow resistance.","prediction":"A cavity vent should distinguish slow pressure drift from acoustic pulses through a tunable flow resistance.","test":"Measure frequency response.","contrary":"Desired timescale separation is absent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0672","hypothesis":"A cavity vent should distinguish slow pressure drift from acoustic pulses through a tunable flow resistance.","prediction":"A cavity vent should distinguish slow pressure drift from acoustic pulses through a tunable flow resistance.","test":"Measure frequency response.","contrary_outcome":"Desired timescale separation is absent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0673","id":"S1-0673","volume":"900","title":"A vibrated mesh should orient elongated particles before sorting through a downstream slit.","prediction":"A vibrated mesh should orient elongated particles before sorting through a downstream slit.","test":"Measure orientation and passage.","contrary":"Alignment does not improve sorting.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0673","hypothesis":"A vibrated mesh should orient elongated particles before sorting through a downstream slit.","prediction":"A vibrated mesh should orient elongated particles before sorting through a downstream slit.","test":"Measure orientation and passage.","contrary_outcome":"Alignment does not improve sorting.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0674","id":"S1-0674","volume":"900","title":"A flexible acoustic lining should reduce flow-induced whistle onset by detuning its own cavity.","prediction":"A flexible acoustic lining should reduce flow-induced whistle onset by detuning its own cavity.","test":"Measure onset speed.","contrary":"Detuning creates a new whistle.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0674","hypothesis":"A flexible acoustic lining should reduce flow-induced whistle onset by detuning its own cavity.","prediction":"A flexible acoustic lining should reduce flow-induced whistle onset by detuning its own cavity.","test":"Measure onset speed.","contrary_outcome":"Detuning creates a new whistle.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0675","id":"S1-0675","volume":"900","title":"A particle damper should maintain performance as vibration amplitude falls when its cavity narrows toward the resting position.","prediction":"A particle damper should maintain performance as vibration amplitude falls when its cavity narrows toward the resting position.","test":"Measure amplitude-dependent loss.","contrary":"Low-amplitude damping remains negligible.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0675","hypothesis":"A particle damper should maintain performance as vibration amplitude falls when its cavity narrows toward the resting position.","prediction":"A particle damper should maintain performance as vibration amplitude falls when its cavity narrows toward the resting position.","test":"Measure amplitude-dependent loss.","contrary_outcome":"Low-amplitude damping remains negligible.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0676","id":"S1-0676","volume":"900","title":"An annular acoustic cavity should measure eccentric insertion depth through unequal azimuthal modes.","prediction":"An annular acoustic cavity should measure eccentric insertion depth through unequal azimuthal modes.","test":"Calibrate probe positions.","contrary":"Modes cannot separate depth from eccentricity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0676","hypothesis":"An annular acoustic cavity should measure eccentric insertion depth through unequal azimuthal modes.","prediction":"An annular acoustic cavity should measure eccentric insertion depth through unequal azimuthal modes.","test":"Calibrate probe positions.","contrary_outcome":"Modes cannot separate depth from eccentricity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0677","id":"S1-0677","volume":"900","title":"A granular latch should distinguish torque direction through force-chain orientation.","prediction":"A granular latch should distinguish torque direction through force-chain orientation.","test":"Measure locking thresholds.","contrary":"Thresholds remain symmetric.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0677","hypothesis":"A granular latch should distinguish torque direction through force-chain orientation.","prediction":"A granular latch should distinguish torque direction through force-chain orientation.","test":"Measure locking thresholds.","contrary_outcome":"Thresholds remain symmetric.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0678","id":"S1-0678","volume":"900","title":"A layered acoustic reflector should expose trapped air by a delayed echo that survives thickness variation.","prediction":"A layered acoustic reflector should expose trapped air by a delayed echo that survives thickness variation.","test":"Test known gaps.","contrary":"Thickness echoes mask air-gap response.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0678","hypothesis":"A layered acoustic reflector should expose trapped air by a delayed echo that survives thickness variation.","prediction":"A layered acoustic reflector should expose trapped air by a delayed echo that survives thickness variation.","test":"Test known gaps.","contrary_outcome":"Thickness echoes mask air-gap response.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0678","hypothesis":"A layered acoustic reflector should expose trapped air by a delayed echo that survives thickness variation.","prediction":"A layered acoustic reflector should expose trapped air by a delayed echo that survives thickness variation.","test":"Test known gaps.","contrary_outcome":"Thickness echoes mask air-gap response.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":68,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A layered acoustic reflector expose trapped air by a delayed echo that survives thickness variation. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0679","id":"S1-0679","volume":"900","title":"A compliant chute lining should reduce granular charge accumulation by lowering collision speed without chemical additives.","prediction":"A compliant chute lining should reduce granular charge accumulation by lowering collision speed without chemical additives.","test":"Measure charge and speed.","contrary":"Charge is unchanged at lower speed.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0679","hypothesis":"A compliant chute lining should reduce granular charge accumulation by lowering collision speed without chemical additives.","prediction":"A compliant chute lining should reduce granular charge accumulation by lowering collision speed without chemical additives.","test":"Measure charge and speed.","contrary_outcome":"Charge is unchanged at lower speed.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0680","id":"S1-0680","volume":"900","title":"A rotating cavity should distinguish acoustic streaming from bulk swirl through reversed rotation protocols.","prediction":"A rotating cavity should distinguish acoustic streaming from bulk swirl through reversed rotation protocols.","test":"Measure tracer motion.","contrary":"Contributions remain inseparable.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0680","hypothesis":"A rotating cavity should distinguish acoustic streaming from bulk swirl through reversed rotation protocols.","prediction":"A rotating cavity should distinguish acoustic streaming from bulk swirl through reversed rotation protocols.","test":"Measure tracer motion.","contrary_outcome":"Contributions remain inseparable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0681","id":"S1-0681","volume":"900","title":"A grain-filled cable should reveal an internal void through a traveling stiffness discontinuity during tensioning.","prediction":"A grain-filled cable should reveal an internal void through a traveling stiffness discontinuity during tensioning.","test":"Introduce known voids and map strain.","contrary":"Discontinuity cannot locate voids.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0681","hypothesis":"A grain-filled cable should reveal an internal void through a traveling stiffness discontinuity during tensioning.","prediction":"A grain-filled cable should reveal an internal void through a traveling stiffness discontinuity during tensioning.","test":"Introduce known voids and map strain.","contrary_outcome":"Discontinuity cannot locate voids.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0682","id":"S1-0682","volume":"900","title":"A passive acoustic limiter should reduce high-amplitude transmission through reversible gap closure.","prediction":"A passive acoustic limiter should reduce high-amplitude transmission through reversible gap closure.","test":"Measure amplitude sweeps.","contrary":"Closure causes irreversible sticking.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0682","hypothesis":"A passive acoustic limiter should reduce high-amplitude transmission through reversible gap closure.","prediction":"A passive acoustic limiter should reduce high-amplitude transmission through reversible gap closure.","test":"Measure amplitude sweeps.","contrary_outcome":"Closure causes irreversible sticking.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0683","id":"S1-0683","volume":"900","title":"A granular embankment analogue should reveal failure through a widening distribution of local slip times.","prediction":"A granular embankment analogue should reveal failure through a widening distribution of local slip times.","test":"Image controlled tilting.","contrary":"Distribution changes only after failure.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0683","hypothesis":"A granular embankment analogue should reveal failure through a widening distribution of local slip times.","prediction":"A granular embankment analogue should reveal failure through a widening distribution of local slip times.","test":"Image controlled tilting.","contrary_outcome":"Distribution changes only after failure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0684","id":"S1-0684","volume":"900","title":"A helical acoustic channel should produce handedness-dependent transmission when combined with steady flow.","prediction":"A helical acoustic channel should produce handedness-dependent transmission when combined with steady flow.","test":"Reverse flow and handedness.","contrary":"No reproducible directional contrast appears.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0684","hypothesis":"A helical acoustic channel should produce handedness-dependent transmission when combined with steady flow.","prediction":"A helical acoustic channel should produce handedness-dependent transmission when combined with steady flow.","test":"Reverse flow and handedness.","contrary_outcome":"No reproducible directional contrast appears.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0685","id":"S1-0685","volume":"900","title":"A compressible granular bed should reject isolated vibration shocks while accumulating sustained oscillatory displacement.","prediction":"A compressible granular bed should reject isolated vibration shocks while accumulating sustained oscillatory displacement.","test":"Measure settling histories.","contrary":"Equal-energy protocols settle identically.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0685","hypothesis":"A compressible granular bed should reject isolated vibration shocks while accumulating sustained oscillatory displacement.","prediction":"A compressible granular bed should reject isolated vibration shocks while accumulating sustained oscillatory displacement.","test":"Measure settling histories.","contrary_outcome":"Equal-energy protocols settle identically.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0686","id":"S1-0686","volume":"900","title":"A compliant acoustic neck should resist dust clogging through sound-driven wall motion.","prediction":"A compliant acoustic neck should resist dust clogging through sound-driven wall motion.","test":"Dose inert dust.","contrary":"Motion does not prevent blockage.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0686","hypothesis":"A compliant acoustic neck should resist dust clogging through sound-driven wall motion.","prediction":"A compliant acoustic neck should resist dust clogging through sound-driven wall motion.","test":"Dose inert dust.","contrary_outcome":"Motion does not prevent blockage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0686","hypothesis":"A compliant acoustic neck should resist dust clogging through sound-driven wall motion.","prediction":"A compliant acoustic neck should resist dust clogging through sound-driven wall motion.","test":"Dose inert dust.","contrary_outcome":"Motion does not prevent blockage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":69,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A compliant acoustic neck resist dust clogging through sound-driven wall motion. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0687","id":"S1-0687","volume":"900","title":"A rotating granular ring should reveal internal segregation through changes in moment of inertia.","prediction":"A rotating granular ring should reveal internal segregation through changes in moment of inertia.","test":"Measure inertia and image distribution.","contrary":"Inertia changes are not segregation-specific.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0687","hypothesis":"A rotating granular ring should reveal internal segregation through changes in moment of inertia.","prediction":"A rotating granular ring should reveal internal segregation through changes in moment of inertia.","test":"Measure inertia and image distribution.","contrary_outcome":"Inertia changes are not segregation-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0688","id":"S1-0688","volume":"900","title":"A paired membrane absorber should preserve low-frequency attenuation after one membrane tears.","prediction":"A paired membrane absorber should preserve low-frequency attenuation after one membrane tears.","test":"Introduce controlled tears.","contrary":"Attenuation collapses completely.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0688","hypothesis":"A paired membrane absorber should preserve low-frequency attenuation after one membrane tears.","prediction":"A paired membrane absorber should preserve low-frequency attenuation after one membrane tears.","test":"Introduce controlled tears.","contrary_outcome":"Attenuation collapses completely.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0689","id":"S1-0689","volume":"900","title":"A grain conveyor should reduce bounce losses through a phase-matched compliant landing section.","prediction":"A grain conveyor should reduce bounce losses through a phase-matched compliant landing section.","test":"Measure retained throughput.","contrary":"Phase matching adds no benefit.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0689","hypothesis":"A grain conveyor should reduce bounce losses through a phase-matched compliant landing section.","prediction":"A grain conveyor should reduce bounce losses through a phase-matched compliant landing section.","test":"Measure retained throughput.","contrary_outcome":"Phase matching adds no benefit.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0690","id":"S1-0690","volume":"900","title":"A corrugated cavity should enhance detection of a tiny liquid film through increased wall participation.","prediction":"A corrugated cavity should enhance detection of a tiny liquid film through increased wall participation.","test":"Measure resonance shifts.","contrary":"Sensitivity gain is erased by damping.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0690","hypothesis":"A corrugated cavity should enhance detection of a tiny liquid film through increased wall participation.","prediction":"A corrugated cavity should enhance detection of a tiny liquid film through increased wall participation.","test":"Measure resonance shifts.","contrary_outcome":"Sensitivity gain is erased by damping.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0691","id":"S1-0691","volume":"900","title":"A confined particle raft should store shear direction in anisotropic relaxation after unloading.","prediction":"A confined particle raft should store shear direction in anisotropic relaxation after unloading.","test":"Measure directional relaxation.","contrary":"Relaxation is isotropic.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0691","hypothesis":"A confined particle raft should store shear direction in anisotropic relaxation after unloading.","prediction":"A confined particle raft should store shear direction in anisotropic relaxation after unloading.","test":"Measure directional relaxation.","contrary_outcome":"Relaxation is isotropic.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0692","id":"S1-0692","volume":"900","title":"A flexible acoustic waveguide should reject support-borne noise through alternating stiffness segments.","prediction":"A flexible acoustic waveguide should reject support-borne noise through alternating stiffness segments.","test":"Measure separate propagation paths.","contrary":"Both paths attenuate equally.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0692","hypothesis":"A flexible acoustic waveguide should reject support-borne noise through alternating stiffness segments.","prediction":"A flexible acoustic waveguide should reject support-borne noise through alternating stiffness segments.","test":"Measure separate propagation paths.","contrary_outcome":"Both paths attenuate equally.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0693","id":"S1-0693","volume":"900","title":"A granular clutch should engage gradually through a moving confinement front.","prediction":"A granular clutch should engage gradually through a moving confinement front.","test":"Measure torque and front position.","contrary":"Engagement remains abrupt.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0693","hypothesis":"A granular clutch should engage gradually through a moving confinement front.","prediction":"A granular clutch should engage gradually through a moving confinement front.","test":"Measure torque and front position.","contrary_outcome":"Engagement remains abrupt.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0694","id":"S1-0694","volume":"900","title":"A passive resonant plate should locate a leak jet from spatial vibration maxima.","prediction":"A passive resonant plate should locate a leak jet from spatial vibration maxima.","test":"Scan controlled leak positions.","contrary":"Maxima reflect supports rather than jet location.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0694","hypothesis":"A passive resonant plate should locate a leak jet from spatial vibration maxima.","prediction":"A passive resonant plate should locate a leak jet from spatial vibration maxima.","test":"Scan controlled leak positions.","contrary_outcome":"Maxima reflect supports rather than jet location.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0695","id":"S1-0695","volume":"900","title":"A compliant sieve should retain a nearly constant cut size under variable loading through self-supporting arches.","prediction":"A compliant sieve should retain a nearly constant cut size under variable loading through self-supporting arches.","test":"Measure cut distributions.","contrary":"Loading shifts the cut substantially.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0695","hypothesis":"A compliant sieve should retain a nearly constant cut size under variable loading through self-supporting arches.","prediction":"A compliant sieve should retain a nearly constant cut size under variable loading through self-supporting arches.","test":"Measure cut distributions.","contrary_outcome":"Loading shifts the cut substantially.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0696","id":"S1-0696","volume":"900","title":"A bubble-coated cavity should reveal dissolved-gas supersaturation through a reproducible resonance drift.","prediction":"A bubble-coated cavity should reveal dissolved-gas supersaturation through a reproducible resonance drift.","test":"Control gas concentration.","contrary":"Drift is dominated by uncontrolled nucleation.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0696","hypothesis":"A bubble-coated cavity should reveal dissolved-gas supersaturation through a reproducible resonance drift.","prediction":"A bubble-coated cavity should reveal dissolved-gas supersaturation through a reproducible resonance drift.","test":"Control gas concentration.","contrary_outcome":"Drift is dominated by uncontrolled nucleation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0697","id":"S1-0697","volume":"900","title":"A granular tray should suppress avalanches by dividing its free surface with flexible ribs.","prediction":"A granular tray should suppress avalanches by dividing its free surface with flexible ribs.","test":"Measure avalanche sizes.","contrary":"Ribs create larger correlated avalanches.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0697","hypothesis":"A granular tray should suppress avalanches by dividing its free surface with flexible ribs.","prediction":"A granular tray should suppress avalanches by dividing its free surface with flexible ribs.","test":"Measure avalanche sizes.","contrary_outcome":"Ribs create larger correlated avalanches.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0697","hypothesis":"A granular tray should suppress avalanches by dividing its free surface with flexible ribs.","prediction":"A granular tray should suppress avalanches by dividing its free surface with flexible ribs.","test":"Measure avalanche sizes.","contrary_outcome":"Ribs create larger correlated avalanches.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":70,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A granular tray suppress avalanches by dividing its free surface with flexible ribs. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0698","id":"S1-0698","volume":"900","title":"A hinged acoustic reflector should record maximum impulse through a friction-held angle.","prediction":"A hinged acoustic reflector should record maximum impulse through a friction-held angle.","test":"Apply calibrated pulses.","contrary":"Angle depends mainly on pulse duration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0698","hypothesis":"A hinged acoustic reflector should record maximum impulse through a friction-held angle.","prediction":"A hinged acoustic reflector should record maximum impulse through a friction-held angle.","test":"Apply calibrated pulses.","contrary_outcome":"Angle depends mainly on pulse duration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0699","id":"S1-0699","volume":"900","title":"A particle-filled soft shell should recover its impact shape faster when internal baffles guide rearrangement.","prediction":"A particle-filled soft shell should recover its impact shape faster when internal baffles guide rearrangement.","test":"Measure recovery time.","contrary":"Baffles slow recovery.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0699","hypothesis":"A particle-filled soft shell should recover its impact shape faster when internal baffles guide rearrangement.","prediction":"A particle-filled soft shell should recover its impact shape faster when internal baffles guide rearrangement.","test":"Measure recovery time.","contrary_outcome":"Baffles slow recovery.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0700","id":"S1-0700","volume":"900","title":"A cavity microphone analogue should distinguish a wet mouth from a blocked mouth through nonlinear pressure response.","prediction":"A cavity microphone analogue should distinguish a wet mouth from a blocked mouth through nonlinear pressure response.","test":"Apply controlled conditions.","contrary":"Responses remain indistinguishable.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0700","hypothesis":"A cavity microphone analogue should distinguish a wet mouth from a blocked mouth through nonlinear pressure response.","prediction":"A cavity microphone analogue should distinguish a wet mouth from a blocked mouth through nonlinear pressure response.","test":"Apply controlled conditions.","contrary_outcome":"Responses remain indistinguishable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0701","id":"S1-0701","volume":"900","title":"A folded lattice should develop negative incremental Poisson response only after its hinges contact.","prediction":"A folded lattice should develop negative incremental Poisson response only after its hinges contact.","test":"Measure transverse strain.","contrary":"Contact produces no sign change.","layers":[1,2,3],"categories":["measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0701","hypothesis":"A folded lattice should develop negative incremental Poisson response only after its hinges contact.","prediction":"A folded lattice should develop negative incremental Poisson response only after its hinges contact.","test":"Measure transverse strain.","contrary_outcome":"Contact produces no sign change.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0701","hypothesis":"A folded lattice should develop negative incremental Poisson response only after its hinges contact.","prediction":"A folded lattice should develop negative incremental Poisson response only after its hinges contact.","test":"Measure transverse strain.","contrary_outcome":"Contact produces no sign change.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":71,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A folded lattice develop negative incremental Poisson response only after its hinges contact. experimental mechanism"},"dossier":{"id":"S1-0701","title":"Contact-triggered sign change in transverse lattice response","why_selected":"Direct imaging can locate contact onset and compare it with a measurable strain sign change. Strongly related prior art makes transparent replication essential.","sources":[{"title":"Tunable tension–compression asymmetry and auxeticity in lattice structures by harnessing unilateral contact","url":"https://www.sciencedirect.com/science/article/pii/S0263822321011600","access":"Publisher search-accessible abstract and highlights read","finding":"Peng and Bargmann report lattice contact changing connectivity and tunable Poisson behavior, including sign switching. The broad mechanism is already published; the proposed folded geometry is not established as novel."}],"design":"Build planar folded cells with a measurable hinge-contact gap and low-friction joints. Compress a multicell sheet while imaging fiducials. Compare three initial gaps and a no-contact control whose otherwise matched hinges cannot touch within the stroke. Use multiple independent sheets and track boundary versus interior cells.","endpoints":"Primary: incremental transverse/axial strain ratio before and after first interior contact. Secondary: contact strain, force slope, hysteresis, and repeatability. Define the Poisson sign convention explicitly: nu=-d(e_transverse)/d(e_axial). Success requires a reproducible sign crossing tied to contact, not merely a positive/negative total-strain ratio.","controls":"Gap-blocked control; lubricated versus dry contacts; alternate loading direction; camera distortion check; rigid-body motion removal; boundary-cell exclusion specified in advance. Contact friction and out-of-plane buckling are competing causes.","conditional_analysis":"For a one-degree-of-freedom hinged model with axial length L(q) and width W(q), incremental nu=-(L/W)*(dW/dq)/(dL/dq) when dL/dq is nonzero. Contact changes the admissible kinematic branch; a sign reversal requires the derivative ratio to change sign. Contact alone does not imply that condition. This relation is a model identity, not a theorem that the constructed lattice will become auxetic.","analysis_plan":"Estimate local derivatives using preregistered smoothing windows and report sensitivity to window choice. Align curves by measured contact onset, retain failed sheets, and compare sign-change confidence intervals against controls. Reject the hypothesis if sign change precedes contact or disappears after controlling out-of-plane deformation.","limitations":"Unproved geometry-specific extension; closely related published mechanism is known. No new theorem or measured auxeticity claimed.","rank":6,"hypothesis":"A folded lattice should develop negative incremental Poisson response only after its hinges contact.","status":"speculative; no physical proof; no physical data collected"},"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0702","id":"S1-0702","volume":"900","title":"A braided sleeve should localize bending at an adjustable sliding collar.","prediction":"A braided sleeve should localize bending at an adjustable sliding collar.","test":"Map curvature.","contrary":"Bending stays distributed.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0702","hypothesis":"A braided sleeve should localize bending at an adjustable sliding collar.","prediction":"A braided sleeve should localize bending at an adjustable sliding collar.","test":"Map curvature.","contrary_outcome":"Bending stays distributed.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0703","id":"S1-0703","volume":"900","title":"A compliant gripper should release fragile objects through sequential peeling instead of simultaneous opening.","prediction":"A compliant gripper should release fragile objects through sequential peeling instead of simultaneous opening.","test":"Measure peak release force.","contrary":"Peeling provides no reduction.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0703","hypothesis":"A compliant gripper should release fragile objects through sequential peeling instead of simultaneous opening.","prediction":"A compliant gripper should release fragile objects through sequential peeling instead of simultaneous opening.","test":"Measure peak release force.","contrary_outcome":"Peeling provides no reduction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0704","id":"S1-0704","volume":"900","title":"A pneumatic logic gate should reject brief pressure glitches using an elastic delay chamber.","prediction":"A pneumatic logic gate should reject brief pressure glitches using an elastic delay chamber.","test":"Apply controlled pulses.","contrary":"Glitches trigger output.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0704","hypothesis":"A pneumatic logic gate should reject brief pressure glitches using an elastic delay chamber.","prediction":"A pneumatic logic gate should reject brief pressure glitches using an elastic delay chamber.","test":"Apply controlled pulses.","contrary_outcome":"Glitches trigger output.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0705","id":"S1-0705","volume":"900","title":"A soft joint should preserve angular position after pressure loss through geometric locking.","prediction":"A soft joint should preserve angular position after pressure loss through geometric locking.","test":"Measure drift after venting.","contrary":"Position collapses immediately.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0705","hypothesis":"A soft joint should preserve angular position after pressure loss through geometric locking.","prediction":"A soft joint should preserve angular position after pressure loss through geometric locking.","test":"Measure drift after venting.","contrary_outcome":"Position collapses immediately.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0706","id":"S1-0706","volume":"900","title":"A tendon-driven arm should reduce tip error by routing its return tendon through the neutral axis.","prediction":"A tendon-driven arm should reduce tip error by routing its return tendon through the neutral axis.","test":"Measure load-dependent positioning.","contrary":"Error remains equal.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0706","hypothesis":"A tendon-driven arm should reduce tip error by routing its return tendon through the neutral axis.","prediction":"A tendon-driven arm should reduce tip error by routing its return tendon through the neutral axis.","test":"Measure load-dependent positioning.","contrary_outcome":"Error remains equal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0707","id":"S1-0707","volume":"900","title":"A folding shell should shield a payload before its supporting frame reaches peak compression.","prediction":"A folding shell should shield a payload before its supporting frame reaches peak compression.","test":"Measure closure and force timing.","contrary":"Closure occurs too late.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0707","hypothesis":"A folding shell should shield a payload before its supporting frame reaches peak compression.","prediction":"A folding shell should shield a payload before its supporting frame reaches peak compression.","test":"Measure closure and force timing.","contrary_outcome":"Closure occurs too late.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0708","id":"S1-0708","volume":"900","title":"A soft hinge should distinguish torsion from bending through two orthogonal fluid pressures.","prediction":"A soft hinge should distinguish torsion from bending through two orthogonal fluid pressures.","test":"Calibrate combined loads.","contrary":"Signals remain inseparable.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0708","hypothesis":"A soft hinge should distinguish torsion from bending through two orthogonal fluid pressures.","prediction":"A soft hinge should distinguish torsion from bending through two orthogonal fluid pressures.","test":"Calibrate combined loads.","contrary_outcome":"Signals remain inseparable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0709","id":"S1-0709","volume":"900","title":"A rolling diaphragm actuator should reduce hysteresis compared with a balloon actuator at matched stroke.","prediction":"A rolling diaphragm actuator should reduce hysteresis compared with a balloon actuator at matched stroke.","test":"Measure pressure-position loops.","contrary":"Hysteresis remains equal.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0709","hypothesis":"A rolling diaphragm actuator should reduce hysteresis compared with a balloon actuator at matched stroke.","prediction":"A rolling diaphragm actuator should reduce hysteresis compared with a balloon actuator at matched stroke.","test":"Measure pressure-position loops.","contrary_outcome":"Hysteresis remains equal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0710","id":"S1-0710","volume":"900","title":"A compliant latch should reset automatically when its load reverses, without an auxiliary spring.","prediction":"A compliant latch should reset automatically when its load reverses, without an auxiliary spring.","test":"Cycle load direction.","contrary":"Reset requires external assistance.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0710","hypothesis":"A compliant latch should reset automatically when its load reverses, without an auxiliary spring.","prediction":"A compliant latch should reset automatically when its load reverses, without an auxiliary spring.","test":"Cycle load direction.","contrary_outcome":"Reset requires external assistance.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0711","id":"S1-0711","volume":"900","title":"A soft crawler should traverse a narrow gap by shifting inflation between stacked chambers.","prediction":"A soft crawler should traverse a narrow gap by shifting inflation between stacked chambers.","test":"Measure gap-crossing success.","contrary":"Chamber transfer causes jamming.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0711","hypothesis":"A soft crawler should traverse a narrow gap by shifting inflation between stacked chambers.","prediction":"A soft crawler should traverse a narrow gap by shifting inflation between stacked chambers.","test":"Measure gap-crossing success.","contrary_outcome":"Chamber transfer causes jamming.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0712","id":"S1-0712","volume":"900","title":"A mechanical logic element should retain a bit despite uniform thermal expansion through symmetric geometry.","prediction":"A mechanical logic element should retain a bit despite uniform thermal expansion through symmetric geometry.","test":"Cycle temperature.","contrary":"State changes spontaneously.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0712","hypothesis":"A mechanical logic element should retain a bit despite uniform thermal expansion through symmetric geometry.","prediction":"A mechanical logic element should retain a bit despite uniform thermal expansion through symmetric geometry.","test":"Cycle temperature.","contrary_outcome":"State changes spontaneously.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0713","id":"S1-0713","volume":"900","title":"A flexural bearing should resist parasitic yaw through a crossed-strip arrangement without reducing desired travel.","prediction":"A flexural bearing should resist parasitic yaw through a crossed-strip arrangement without reducing desired travel.","test":"Measure motion tensor.","contrary":"Yaw suppression severely reduces travel.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0713","hypothesis":"A flexural bearing should resist parasitic yaw through a crossed-strip arrangement without reducing desired travel.","prediction":"A flexural bearing should resist parasitic yaw through a crossed-strip arrangement without reducing desired travel.","test":"Measure motion tensor.","contrary_outcome":"Yaw suppression severely reduces travel.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0714","id":"S1-0714","volume":"900","title":"A soft suction foot should detach with lower energy when a tendon opens an edge vent.","prediction":"A soft suction foot should detach with lower energy when a tendon opens an edge vent.","test":"Measure detachment work.","contrary":"Venting offers no reduction.","layers":[1,2,3],"categories":["energy","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0714","hypothesis":"A soft suction foot should detach with lower energy when a tendon opens an edge vent.","prediction":"A soft suction foot should detach with lower energy when a tendon opens an edge vent.","test":"Measure detachment work.","contrary_outcome":"Venting offers no reduction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0714","hypothesis":"A soft suction foot should detach with lower energy when a tendon opens an edge vent.","prediction":"A soft suction foot should detach with lower energy when a tendon opens an edge vent.","test":"Measure detachment work.","contrary_outcome":"Venting offers no reduction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":72,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A soft suction foot detach with lower energy when a tendon opens an edge vent. experimental mechanism"},"dossier":{"id":"S1-0714","title":"Tendon-opened vent for low-work suction release","why_selected":"Release work is directly measurable and the intervention is reversible, making strong matched controls possible.","sources":[{"title":"Adaptive Self-Sealing Suction-Based Soft Robotic Gripper","url":"https://advanced.onlinelibrary.wiley.com/doi/full/10.1002/advs.202100641","access":"Publisher abstract and release-related sections read","finding":"Song and colleagues demonstrate a conformable membrane suction design and discuss controlled contact mechanics. This supports the broader suction-gripper context, not the energy benefit of the particular tendon vent."}],"design":"Mount an elastomer suction foot on smooth nonbiological test plates. Establish equal initial internal pressure and contact area, then compare axial pulling with tendon-actuated edge venting. Measure actuator force-displacement, pressure, detachment timing, and total work including tendon work. Test multiple independent feet and randomized plate conditions.","endpoints":"Primary: total mechanical release work, joules. Secondary: peak plate load, release time, and reattachment reliability. Proposed success criterion: lower total work and lower peak load than axial release at equal initial holding force, without increased release failures.","controls":"A tendon routed without opening a vent; an externally opened vent; unchanged cup with axial pull; roughness and wetness blocks; leak-rate baseline. Include stored elastic energy and tendon friction in the accounting.","conditional_analysis":"For a fixed-area ideal cup, the suction contribution to holding force is Delta_p*A. If opening a vent monotonically drives Delta_p toward zero before separation, that ideal contribution falls. With a simple isothermal fixed-volume conductance model d(Delta_p)/dt=-Delta_p/tau, Delta_p(t)=Delta_p0*exp(-t/tau). This proves decay only for that model; deformation, seal peeling, trapped liquid, and tendon losses can reverse the total-work comparison. No unconditional release-energy theorem is claimed.","analysis_plan":"Integrate measured force over displacement for every actuator, subtract only separately measured instrument baselines, and compare paired total-work distributions. Report cases where the tendon fails to admit air. Reject the useful effect if venting lowers axial force but raises total work or damages repeatability.","limitations":"Unproved device-specific performance; suction release and self-sealing grippers have extensive prior art. No human-subject testing is proposed.","rank":7,"hypothesis":"A soft suction foot should detach with lower energy when a tendon opens an edge vent.","status":"speculative; no physical proof; no physical data collected"},"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0715","id":"S1-0715","volume":"900","title":"A compliant pump should self-prime through sequential chamber collapse.","prediction":"A compliant pump should self-prime through sequential chamber collapse.","test":"Measure startup from dry tubing.","contrary":"Air remains trapped.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0715","hypothesis":"A compliant pump should self-prime through sequential chamber collapse.","prediction":"A compliant pump should self-prime through sequential chamber collapse.","test":"Measure startup from dry tubing.","contrary_outcome":"Air remains trapped.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0716","id":"S1-0716","volume":"900","title":"A tensegrity frame should recover orientation after impact through asymmetric cable slack.","prediction":"A tensegrity frame should recover orientation after impact through asymmetric cable slack.","test":"Track rebound orientation.","contrary":"Final orientation remains random.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0716","hypothesis":"A tensegrity frame should recover orientation after impact through asymmetric cable slack.","prediction":"A tensegrity frame should recover orientation after impact through asymmetric cable slack.","test":"Track rebound orientation.","contrary_outcome":"Final orientation remains random.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0717","id":"S1-0717","volume":"900","title":"A pneumatic timer should preserve delay across supply pressure changes using a collapsing reference chamber.","prediction":"A pneumatic timer should preserve delay across supply pressure changes using a collapsing reference chamber.","test":"Measure switching delay.","contrary":"Delay remains pressure-dependent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0717","hypothesis":"A pneumatic timer should preserve delay across supply pressure changes using a collapsing reference chamber.","prediction":"A pneumatic timer should preserve delay across supply pressure changes using a collapsing reference chamber.","test":"Measure switching delay.","contrary_outcome":"Delay remains pressure-dependent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0718","id":"S1-0718","volume":"900","title":"A soft elbow should bend in one plane under pressure but twist under external torque.","prediction":"A soft elbow should bend in one plane under pressure but twist under external torque.","test":"Measure stiffness tensor.","contrary":"Desired selectivity is absent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0718","hypothesis":"A soft elbow should bend in one plane under pressure but twist under external torque.","prediction":"A soft elbow should bend in one plane under pressure but twist under external torque.","test":"Measure stiffness tensor.","contrary_outcome":"Desired selectivity is absent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0719","id":"S1-0719","volume":"900","title":"A compliant bistable linkage should sort objects by stiffness at equal size.","prediction":"A compliant bistable linkage should sort objects by stiffness at equal size.","test":"Test calibrated springs inside equal shells.","contrary":"Sorting follows weight alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0719","hypothesis":"A compliant bistable linkage should sort objects by stiffness at equal size.","prediction":"A compliant bistable linkage should sort objects by stiffness at equal size.","test":"Test calibrated springs inside equal shells.","contrary_outcome":"Sorting follows weight alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0720","id":"S1-0720","volume":"900","title":"A braided pneumatic chamber should resist ballooning near its inlet through graded braid angle.","prediction":"A braided pneumatic chamber should resist ballooning near its inlet through graded braid angle.","test":"Map radial strain.","contrary":"Inlet bulging persists.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0720","hypothesis":"A braided pneumatic chamber should resist ballooning near its inlet through graded braid angle.","prediction":"A braided pneumatic chamber should resist ballooning near its inlet through graded braid angle.","test":"Map radial strain.","contrary_outcome":"Inlet bulging persists.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0721","id":"S1-0721","volume":"900","title":"A flexure stop should absorb overload without shifting the mechanism's unloaded position.","prediction":"A flexure stop should absorb overload without shifting the mechanism's unloaded position.","test":"Measure zero before and after overload.","contrary":"Zero drifts permanently.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0721","hypothesis":"A flexure stop should absorb overload without shifting the mechanism's unloaded position.","prediction":"A flexure stop should absorb overload without shifting the mechanism's unloaded position.","test":"Measure zero before and after overload.","contrary_outcome":"Zero drifts permanently.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0722","id":"S1-0722","volume":"900","title":"A soft fin should switch propulsion mode when its leading edge crosses a tension threshold.","prediction":"A soft fin should switch propulsion mode when its leading edge crosses a tension threshold.","test":"Measure thrust and shape.","contrary":"Mode transition gives no thrust change.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0722","hypothesis":"A soft fin should switch propulsion mode when its leading edge crosses a tension threshold.","prediction":"A soft fin should switch propulsion mode when its leading edge crosses a tension threshold.","test":"Measure thrust and shape.","contrary_outcome":"Mode transition gives no thrust change.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0723","id":"S1-0723","volume":"900","title":"A mechanical memory strip should erase uniformly when pulled in one direction.","prediction":"A mechanical memory strip should erase uniformly when pulled in one direction.","test":"Inspect local states after reset.","contrary":"Some cells retain old states.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0723","hypothesis":"A mechanical memory strip should erase uniformly when pulled in one direction.","prediction":"A mechanical memory strip should erase uniformly when pulled in one direction.","test":"Inspect local states after reset.","contrary_outcome":"Some cells retain old states.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0724","id":"S1-0724","volume":"900","title":"A pressure-driven jaw should equalize finger travel through a floating manifold.","prediction":"A pressure-driven jaw should equalize finger travel through a floating manifold.","test":"Measure travel on uneven objects.","contrary":"One finger monopolizes displacement.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0724","hypothesis":"A pressure-driven jaw should equalize finger travel through a floating manifold.","prediction":"A pressure-driven jaw should equalize finger travel through a floating manifold.","test":"Measure travel on uneven objects.","contrary_outcome":"One finger monopolizes displacement.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0725","id":"S1-0725","volume":"900","title":"A flexible catheter-free inspection probe should steer through pipe bends using wall-contact feedback alone.","prediction":"A flexible catheter-free inspection probe should steer through pipe bends using wall-contact feedback alone.","test":"Test transparent pipe networks.","contrary":"Probe jams at bends.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0725","hypothesis":"A flexible catheter-free inspection probe should steer through pipe bends using wall-contact feedback alone.","prediction":"A flexible catheter-free inspection probe should steer through pipe bends using wall-contact feedback alone.","test":"Test transparent pipe networks.","contrary_outcome":"Probe jams at bends.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0726","id":"S1-0726","volume":"900","title":"A compliant clutch should isolate motor inertia during sudden external impact.","prediction":"A compliant clutch should isolate motor inertia during sudden external impact.","test":"Measure reflected impulse.","contrary":"Motor inertia remains strongly coupled.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0726","hypothesis":"A compliant clutch should isolate motor inertia during sudden external impact.","prediction":"A compliant clutch should isolate motor inertia during sudden external impact.","test":"Measure reflected impulse.","contrary_outcome":"Motor inertia remains strongly coupled.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0727","id":"S1-0727","volume":"900","title":"A soft bellows should maintain axial alignment through internal tension cords.","prediction":"A soft bellows should maintain axial alignment through internal tension cords.","test":"Measure lateral displacement.","contrary":"Cords introduce buckling.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0727","hypothesis":"A soft bellows should maintain axial alignment through internal tension cords.","prediction":"A soft bellows should maintain axial alignment through internal tension cords.","test":"Measure lateral displacement.","contrary_outcome":"Cords introduce buckling.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0728","id":"S1-0728","volume":"900","title":"A flexural differential should average two input motions while rejecting equal-and-opposite disturbance forces.","prediction":"A flexural differential should average two input motions while rejecting equal-and-opposite disturbance forces.","test":"Apply independent inputs and forces.","contrary":"Output remains force-sensitive.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0728","hypothesis":"A flexural differential should average two input motions while rejecting equal-and-opposite disturbance forces.","prediction":"A flexural differential should average two input motions while rejecting equal-and-opposite disturbance forces.","test":"Apply independent inputs and forces.","contrary_outcome":"Output remains force-sensitive.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0728","hypothesis":"A flexural differential should average two input motions while rejecting equal-and-opposite disturbance forces.","prediction":"A flexural differential should average two input motions while rejecting equal-and-opposite disturbance forces.","test":"Apply independent inputs and forces.","contrary_outcome":"Output remains force-sensitive.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":73,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A flexural differential average two input motions while rejecting equal-and-opposite disturbance forces. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0729","id":"S1-0729","volume":"900","title":"A pneumatic relaxation oscillator should synchronize two soft limbs through a shared reservoir.","prediction":"A pneumatic relaxation oscillator should synchronize two soft limbs through a shared reservoir.","test":"Measure phase stability.","contrary":"Phase drifts randomly.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0729","hypothesis":"A pneumatic relaxation oscillator should synchronize two soft limbs through a shared reservoir.","prediction":"A pneumatic relaxation oscillator should synchronize two soft limbs through a shared reservoir.","test":"Measure phase stability.","contrary_outcome":"Phase drifts randomly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0730","id":"S1-0730","volume":"900","title":"A compliant wheel spoke should change stiffness after a threshold deflection and reduce bottoming impacts.","prediction":"A compliant wheel spoke should change stiffness after a threshold deflection and reduce bottoming impacts.","test":"Measure force curves and acceleration.","contrary":"Transition worsens peak force.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0730","hypothesis":"A compliant wheel spoke should change stiffness after a threshold deflection and reduce bottoming impacts.","prediction":"A compliant wheel spoke should change stiffness after a threshold deflection and reduce bottoming impacts.","test":"Measure force curves and acceleration.","contrary_outcome":"Transition worsens peak force.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0731","id":"S1-0731","volume":"900","title":"A soft enclosure should close around a displaced object through pressure redistribution.","prediction":"A soft enclosure should close around a displaced object through pressure redistribution.","test":"Measure coverage versus object offset.","contrary":"Closure traps empty space instead.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0731","hypothesis":"A soft enclosure should close around a displaced object through pressure redistribution.","prediction":"A soft enclosure should close around a displaced object through pressure redistribution.","test":"Measure coverage versus object offset.","contrary_outcome":"Closure traps empty space instead.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0732","id":"S1-0732","volume":"900","title":"A folded beam should allow independent tuning of axial and torsional compliance through crease locking.","prediction":"A folded beam should allow independent tuning of axial and torsional compliance through crease locking.","test":"Measure both stiffnesses.","contrary":"They remain tightly coupled.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0732","hypothesis":"A folded beam should allow independent tuning of axial and torsional compliance through crease locking.","prediction":"A folded beam should allow independent tuning of axial and torsional compliance through crease locking.","test":"Measure both stiffnesses.","contrary_outcome":"They remain tightly coupled.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0733","id":"S1-0733","volume":"900","title":"A mechanical threshold array should estimate impact amplitude from the number of switched cells.","prediction":"A mechanical threshold array should estimate impact amplitude from the number of switched cells.","test":"Apply calibrated impacts.","contrary":"Cell count is nonmonotonic.","layers":[1],"categories":["biology","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0733","hypothesis":"A mechanical threshold array should estimate impact amplitude from the number of switched cells.","prediction":"A mechanical threshold array should estimate impact amplitude from the number of switched cells.","test":"Apply calibrated impacts.","contrary_outcome":"Cell count is nonmonotonic.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0734","id":"S1-0734","volume":"900","title":"A soft tendon guide should reduce friction through curvature redistribution under tension.","prediction":"A soft tendon guide should reduce friction through curvature redistribution under tension.","test":"Measure tendon force loss.","contrary":"Redistribution increases friction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0734","hypothesis":"A soft tendon guide should reduce friction through curvature redistribution under tension.","prediction":"A soft tendon guide should reduce friction through curvature redistribution under tension.","test":"Measure tendon force loss.","contrary_outcome":"Redistribution increases friction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0735","id":"S1-0735","volume":"900","title":"A pneumatic divider should deliver fixed volume ratios despite unequal downstream pressures.","prediction":"A pneumatic divider should deliver fixed volume ratios despite unequal downstream pressures.","test":"Measure delivered volumes.","contrary":"Ratios follow downstream load.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0735","hypothesis":"A pneumatic divider should deliver fixed volume ratios despite unequal downstream pressures.","prediction":"A pneumatic divider should deliver fixed volume ratios despite unequal downstream pressures.","test":"Measure delivered volumes.","contrary_outcome":"Ratios follow downstream load.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0736","id":"S1-0736","volume":"900","title":"A compliant hook should release under transverse overload while retaining axial load.","prediction":"A compliant hook should release under transverse overload while retaining axial load.","test":"Measure directional release thresholds.","contrary":"Directionality is absent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0736","hypothesis":"A compliant hook should release under transverse overload while retaining axial load.","prediction":"A compliant hook should release under transverse overload while retaining axial load.","test":"Measure directional release thresholds.","contrary_outcome":"Directionality is absent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0737","id":"S1-0737","volume":"900","title":"A flexible shell should deploy predictably from a compact coil using stored bending energy.","prediction":"A flexible shell should deploy predictably from a compact coil using stored bending energy.","test":"Measure deployment trajectory.","contrary":"Deployment jams or changes path unpredictably.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0737","hypothesis":"A flexible shell should deploy predictably from a compact coil using stored bending energy.","prediction":"A flexible shell should deploy predictably from a compact coil using stored bending energy.","test":"Measure deployment trajectory.","contrary_outcome":"Deployment jams or changes path unpredictably.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0738","id":"S1-0738","volume":"900","title":"A soft pressure sensor should reject shear through a floating protective cap.","prediction":"A soft pressure sensor should reject shear through a floating protective cap.","test":"Apply independent normal/shear loads.","contrary":"Shear cross-sensitivity remains large.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0738","hypothesis":"A soft pressure sensor should reject shear through a floating protective cap.","prediction":"A soft pressure sensor should reject shear through a floating protective cap.","test":"Apply independent normal/shear loads.","contrary_outcome":"Shear cross-sensitivity remains large.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0739","id":"S1-0739","volume":"900","title":"A kinematic flexure should tolerate one damaged hinge through redundant load paths.","prediction":"A kinematic flexure should tolerate one damaged hinge through redundant load paths.","test":"Cut one hinge and measure motion.","contrary":"Mechanism loses useful motion.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0739","hypothesis":"A kinematic flexure should tolerate one damaged hinge through redundant load paths.","prediction":"A kinematic flexure should tolerate one damaged hinge through redundant load paths.","test":"Cut one hinge and measure motion.","contrary_outcome":"Mechanism loses useful motion.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0739","hypothesis":"A kinematic flexure should tolerate one damaged hinge through redundant load paths.","prediction":"A kinematic flexure should tolerate one damaged hinge through redundant load paths.","test":"Cut one hinge and measure motion.","contrary_outcome":"Mechanism loses useful motion.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":74,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A kinematic flexure tolerate one damaged hinge through redundant load paths. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0740","id":"S1-0740","volume":"900","title":"A pneumatic latch should remember the order of two pressure pulses.","prediction":"A pneumatic latch should remember the order of two pressure pulses.","test":"Apply reversed pulse sequences.","contrary":"Final states are identical.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0740","hypothesis":"A pneumatic latch should remember the order of two pressure pulses.","prediction":"A pneumatic latch should remember the order of two pressure pulses.","test":"Apply reversed pulse sequences.","contrary_outcome":"Final states are identical.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0741","id":"S1-0741","volume":"900","title":"A soft rolling actuator should move with less substrate shear than an inchworm actuator.","prediction":"A soft rolling actuator should move with less substrate shear than an inchworm actuator.","test":"Measure traction distribution.","contrary":"Shear is unchanged at matched speed.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0741","hypothesis":"A soft rolling actuator should move with less substrate shear than an inchworm actuator.","prediction":"A soft rolling actuator should move with less substrate shear than an inchworm actuator.","test":"Measure traction distribution.","contrary_outcome":"Shear is unchanged at matched speed.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0742","id":"S1-0742","volume":"900","title":"A compliant funnel gripper should center objects before grasping force rises sharply.","prediction":"A compliant funnel gripper should center objects before grasping force rises sharply.","test":"Track position and force.","contrary":"Force rises while object stays offset.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0742","hypothesis":"A compliant funnel gripper should center objects before grasping force rises sharply.","prediction":"A compliant funnel gripper should center objects before grasping force rises sharply.","test":"Track position and force.","contrary_outcome":"Force rises while object stays offset.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0743","id":"S1-0743","volume":"900","title":"A flexible joint should show programmable damping through adjustable self-contact length.","prediction":"A flexible joint should show programmable damping through adjustable self-contact length.","test":"Measure decay versus contact length.","contrary":"Damping is not controllable.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0743","hypothesis":"A flexible joint should show programmable damping through adjustable self-contact length.","prediction":"A flexible joint should show programmable damping through adjustable self-contact length.","test":"Measure decay versus contact length.","contrary_outcome":"Damping is not controllable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0744","id":"S1-0744","volume":"900","title":"A mechanically balanced soft arm should reduce gravity sag across its workspace without active compensation.","prediction":"A mechanically balanced soft arm should reduce gravity sag across its workspace without active compensation.","test":"Measure tip position.","contrary":"Sag remains workspace-dependent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0744","hypothesis":"A mechanically balanced soft arm should reduce gravity sag across its workspace without active compensation.","prediction":"A mechanically balanced soft arm should reduce gravity sag across its workspace without active compensation.","test":"Measure tip position.","contrary_outcome":"Sag remains workspace-dependent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0745","id":"S1-0745","volume":"900","title":"A pneumatic chamber should distinguish external contact from supply fluctuation through differential wall strain.","prediction":"A pneumatic chamber should distinguish external contact from supply fluctuation through differential wall strain.","test":"Apply separate disturbances.","contrary":"Strain signatures overlap.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0745","hypothesis":"A pneumatic chamber should distinguish external contact from supply fluctuation through differential wall strain.","prediction":"A pneumatic chamber should distinguish external contact from supply fluctuation through differential wall strain.","test":"Apply separate disturbances.","contrary_outcome":"Strain signatures overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0746","id":"S1-0746","volume":"900","title":"A compliant stepping mechanism should count pressure cycles without electronic power.","prediction":"A compliant stepping mechanism should count pressure cycles without electronic power.","test":"Cycle known pressures.","contrary":"Skipped or double steps dominate.","layers":[1,2,3],"categories":["physical","energy"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0746","hypothesis":"A compliant stepping mechanism should count pressure cycles without electronic power.","prediction":"A compliant stepping mechanism should count pressure cycles without electronic power.","test":"Cycle known pressures.","contrary_outcome":"Skipped or double steps dominate.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0746","hypothesis":"A compliant stepping mechanism should count pressure cycles without electronic power.","prediction":"A compliant stepping mechanism should count pressure cycles without electronic power.","test":"Cycle known pressures.","contrary_outcome":"Skipped or double steps dominate.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":75,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A compliant stepping mechanism count pressure cycles without electronic power. experimental mechanism"},"dossier":{"id":"S1-0746","title":"Pressure-cycle mechanical counter","why_selected":"A discrete state-transition claim permits exhaustive bench challenges and exact conditional reasoning, even though the broad pneumatic-step principle is established.","sources":[{"title":"A New Type of Motor: Pneumatic Step Motor","url":"https://pubmed.ncbi.nlm.nih.gov/21528106/","access":"Primary article abstract and bibliographic metadata read","finding":"Stoianovici and colleagues report discrete pneumatic stepping with sequenced ports; the described system also includes electronic control and optical encoding. It supports pneumatic discrete motion but does not validate a single-port compliant passive counter."}],"design":"Build a diaphragm-driven pawl with a compliant detent and a visible indexed wheel. Drive one inlet with recorded pressure cycles and read the wheel optically only for validation. Vary amplitude, frequency, rise time, dwell, partial unloading, and missed-pulse gaps. Use at least five independent counters; specify the operating envelope before endurance testing.","endpoints":"Primary: count error after a preregistered sequence of 1000 full cycles. Secondary: skipped/double steps, minimum reset pressure, wear drift, and energy per step. Proposed target is zero observed count errors within the declared envelope; this is not proof of a zero underlying error rate.","controls":"Subthreshold pulses; long sustained pressure; double peaks without full reset; reversed pressure; orientation changes; externally imposed vibration. Record actual inlet pressure rather than commanded values.","conditional_analysis":"Assume each valid rising excursion moves a pawl exactly one index, a detent prevents backslip, and reset returns the pawl without moving the wheel. By induction, count after n valid cycles equals initial count+n modulo wheel capacity: the base case is immediate, and each transition adds one. This is a conditional state-machine proof, not a proof that the compliant hardware satisfies the transition assumptions. If zero errors occur in N independent trials, the one-sided 95% binomial upper bound is 1-0.05^(1/N); independence must be justified.","analysis_plan":"Publish full pulse traces and wheel-state video, classify every error, and report error bounds by operating condition. Do not pool dependent repeated cycles as independent devices. Reject the design if partial pulses create false counts or reset requires external intervention.","limitations":"Unproved physical counter; no electronics-free performance demonstrated here. Prior pneumatic stepping makes global novelty implausible without much deeper searching.","rank":8,"hypothesis":"A compliant stepping mechanism should count pressure cycles without electronic power.","status":"speculative; no physical proof; no physical data collected"},"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0747","id":"S1-0747","volume":"900","title":"A soft seal should retain functionality after local puncture through compartmentalization.","prediction":"A soft seal should retain functionality after local puncture through compartmentalization.","test":"Puncture one segment.","contrary":"Leakage defeats all segments.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0747","hypothesis":"A soft seal should retain functionality after local puncture through compartmentalization.","prediction":"A soft seal should retain functionality after local puncture through compartmentalization.","test":"Puncture one segment.","contrary_outcome":"Leakage defeats all segments.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0748","id":"S1-0748","volume":"900","title":"A folded gripper should change contact topology before increasing contact pressure.","prediction":"A folded gripper should change contact topology before increasing contact pressure.","test":"Image contact sequence.","contrary":"Pressure rises before topology changes.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0748","hypothesis":"A folded gripper should change contact topology before increasing contact pressure.","prediction":"A folded gripper should change contact topology before increasing contact pressure.","test":"Image contact sequence.","contrary_outcome":"Pressure rises before topology changes.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0749","id":"S1-0749","volume":"900","title":"A passive mechanical controller should reduce actuator overshoot through delayed elastic feedback.","prediction":"A passive mechanical controller should reduce actuator overshoot through delayed elastic feedback.","test":"Measure step responses.","contrary":"Feedback increases overshoot.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0749","hypothesis":"A passive mechanical controller should reduce actuator overshoot through delayed elastic feedback.","prediction":"A passive mechanical controller should reduce actuator overshoot through delayed elastic feedback.","test":"Measure step responses.","contrary_outcome":"Feedback increases overshoot.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0750","id":"S1-0750","volume":"900","title":"A soft torsion joint should return to neutral through fiber winding without an external spring.","prediction":"A soft torsion joint should return to neutral through fiber winding without an external spring.","test":"Measure unloading trajectories.","contrary":"Residual twist accumulates.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0750","hypothesis":"A soft torsion joint should return to neutral through fiber winding without an external spring.","prediction":"A soft torsion joint should return to neutral through fiber winding without an external spring.","test":"Measure unloading trajectories.","contrary_outcome":"Residual twist accumulates.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0751","id":"S1-0751","volume":"900","title":"A compliant transmission should smooth discrete motor steps through temporary elastic storage.","prediction":"A compliant transmission should smooth discrete motor steps through temporary elastic storage.","test":"Measure output velocity ripple.","contrary":"Ripple remains equal.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0751","hypothesis":"A compliant transmission should smooth discrete motor steps through temporary elastic storage.","prediction":"A compliant transmission should smooth discrete motor steps through temporary elastic storage.","test":"Measure output velocity ripple.","contrary_outcome":"Ripple remains equal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0752","id":"S1-0752","volume":"900","title":"A pneumatic finger should adapt its bending plane to oblique contact through internal sliding fibers.","prediction":"A pneumatic finger should adapt its bending plane to oblique contact through internal sliding fibers.","test":"Measure contact conformability.","contrary":"Fibers lock the original plane.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0752","hypothesis":"A pneumatic finger should adapt its bending plane to oblique contact through internal sliding fibers.","prediction":"A pneumatic finger should adapt its bending plane to oblique contact through internal sliding fibers.","test":"Measure contact conformability.","contrary_outcome":"Fibers lock the original plane.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0753","id":"S1-0753","volume":"900","title":"A flexible protective shell should expose a visible crease before fatigue failure.","prediction":"A flexible protective shell should expose a visible crease before fatigue failure.","test":"Cycle until failure.","contrary":"Crease appears only after rupture.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0753","hypothesis":"A flexible protective shell should expose a visible crease before fatigue failure.","prediction":"A flexible protective shell should expose a visible crease before fatigue failure.","test":"Cycle until failure.","contrary_outcome":"Crease appears only after rupture.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0754","id":"S1-0754","volume":"900","title":"A mechanical valve network should implement a finite-state sequence under constant pressure.","prediction":"A mechanical valve network should implement a finite-state sequence under constant pressure.","test":"Record valve states.","contrary":"Network settles without sequencing.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0754","hypothesis":"A mechanical valve network should implement a finite-state sequence under constant pressure.","prediction":"A mechanical valve network should implement a finite-state sequence under constant pressure.","test":"Record valve states.","contrary_outcome":"Network settles without sequencing.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0755","id":"S1-0755","volume":"900","title":"A soft rolling foot should reduce energy loss on uneven surfaces through contact migration.","prediction":"A soft rolling foot should reduce energy loss on uneven surfaces through contact migration.","test":"Measure work per distance.","contrary":"Migration increases loss.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0755","hypothesis":"A soft rolling foot should reduce energy loss on uneven surfaces through contact migration.","prediction":"A soft rolling foot should reduce energy loss on uneven surfaces through contact migration.","test":"Measure work per distance.","contrary_outcome":"Migration increases loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0756","id":"S1-0756","volume":"900","title":"A flexural hinge should maintain center-of-rotation position across a larger angle through a moving constraint.","prediction":"A flexural hinge should maintain center-of-rotation position across a larger angle through a moving constraint.","test":"Measure pivot locus.","contrary":"Pivot drift remains unchanged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0756","hypothesis":"A flexural hinge should maintain center-of-rotation position across a larger angle through a moving constraint.","prediction":"A flexural hinge should maintain center-of-rotation position across a larger angle through a moving constraint.","test":"Measure pivot locus.","contrary_outcome":"Pivot drift remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0757","id":"S1-0757","volume":"900","title":"A pneumatic accumulator should release a fixed energy pulse despite variable charging duration.","prediction":"A pneumatic accumulator should release a fixed energy pulse despite variable charging duration.","test":"Measure pressure-volume work.","contrary":"Pulse energy scales with duration.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0757","hypothesis":"A pneumatic accumulator should release a fixed energy pulse despite variable charging duration.","prediction":"A pneumatic accumulator should release a fixed energy pulse despite variable charging duration.","test":"Measure pressure-volume work.","contrary_outcome":"Pulse energy scales with duration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0758","id":"S1-0758","volume":"900","title":"A compliant object holder should self-tighten under vibration without ratcheting permanently.","prediction":"A compliant object holder should self-tighten under vibration without ratcheting permanently.","test":"Measure grip and release force.","contrary":"Tightening causes irreversible lockup.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0758","hypothesis":"A compliant object holder should self-tighten under vibration without ratcheting permanently.","prediction":"A compliant object holder should self-tighten under vibration without ratcheting permanently.","test":"Measure grip and release force.","contrary_outcome":"Tightening causes irreversible lockup.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0758","hypothesis":"A compliant object holder should self-tighten under vibration without ratcheting permanently.","prediction":"A compliant object holder should self-tighten under vibration without ratcheting permanently.","test":"Measure grip and release force.","contrary_outcome":"Tightening causes irreversible lockup.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":76,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A compliant object holder self-tighten under vibration without ratcheting permanently. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0759","id":"S1-0759","volume":"900","title":"A soft lattice should recover from local inversion through a boundary-triggered repair wave.","prediction":"A soft lattice should recover from local inversion through a boundary-triggered repair wave.","test":"Image recovery propagation.","contrary":"Inversions remain trapped.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0759","hypothesis":"A soft lattice should recover from local inversion through a boundary-triggered repair wave.","prediction":"A soft lattice should recover from local inversion through a boundary-triggered repair wave.","test":"Image recovery propagation.","contrary_outcome":"Inversions remain trapped.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0760","id":"S1-0760","volume":"900","title":"A mechanical delay line should preserve pulse order while stretching pulse spacing.","prediction":"A mechanical delay line should preserve pulse order while stretching pulse spacing.","test":"Apply known input sequences.","contrary":"Pulses merge or reorder.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0760","hypothesis":"A mechanical delay line should preserve pulse order while stretching pulse spacing.","prediction":"A mechanical delay line should preserve pulse order while stretching pulse spacing.","test":"Apply known input sequences.","contrary_outcome":"Pulses merge or reorder.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0761","id":"S1-0761","volume":"900","title":"A tendon actuator should reduce backlash through differential pretension that relaxes during idle periods.","prediction":"A tendon actuator should reduce backlash through differential pretension that relaxes during idle periods.","test":"Measure backlash and creep.","contrary":"Idle relaxation destroys pretension.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0761","hypothesis":"A tendon actuator should reduce backlash through differential pretension that relaxes during idle periods.","prediction":"A tendon actuator should reduce backlash through differential pretension that relaxes during idle periods.","test":"Measure backlash and creep.","contrary_outcome":"Idle relaxation destroys pretension.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0762","id":"S1-0762","volume":"900","title":"A soft chamber should indicate seam damage through altered inflation symmetry before leakage accelerates.","prediction":"A soft chamber should indicate seam damage through altered inflation symmetry before leakage accelerates.","test":"Introduce small seam defects.","contrary":"Asymmetry appears only after major leakage.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0762","hypothesis":"A soft chamber should indicate seam damage through altered inflation symmetry before leakage accelerates.","prediction":"A soft chamber should indicate seam damage through altered inflation symmetry before leakage accelerates.","test":"Introduce small seam defects.","contrary_outcome":"Asymmetry appears only after major leakage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0763","id":"S1-0763","volume":"900","title":"A compliant linkage should transform continuous input into a finite dwell without impact stops.","prediction":"A compliant linkage should transform continuous input into a finite dwell without impact stops.","test":"Measure output motion.","contrary":"Dwell requires hard contact.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0763","hypothesis":"A compliant linkage should transform continuous input into a finite dwell without impact stops.","prediction":"A compliant linkage should transform continuous input into a finite dwell without impact stops.","test":"Measure output motion.","contrary_outcome":"Dwell requires hard contact.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0764","id":"S1-0764","volume":"900","title":"A pneumatic crawler should reverse when its rear foot loses support.","prediction":"A pneumatic crawler should reverse when its rear foot loses support.","test":"Test controlled edges.","contrary":"Crawler continues toward the gap.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0764","hypothesis":"A pneumatic crawler should reverse when its rear foot loses support.","prediction":"A pneumatic crawler should reverse when its rear foot loses support.","test":"Test controlled edges.","contrary_outcome":"Crawler continues toward the gap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0765","id":"S1-0765","volume":"900","title":"A flexible gripper pad should distribute force by fluid migration between microcavities.","prediction":"A flexible gripper pad should distribute force by fluid migration between microcavities.","test":"Map pressure.","contrary":"Migration concentrates load.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0765","hypothesis":"A flexible gripper pad should distribute force by fluid migration between microcavities.","prediction":"A flexible gripper pad should distribute force by fluid migration between microcavities.","test":"Map pressure.","contrary_outcome":"Migration concentrates load.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0766","id":"S1-0766","volume":"900","title":"A mechanical latch should reject simultaneous opposing inputs while responding to either alone.","prediction":"A mechanical latch should reject simultaneous opposing inputs while responding to either alone.","test":"Apply input combinations.","contrary":"Simultaneous inputs cause unintended switching.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0766","hypothesis":"A mechanical latch should reject simultaneous opposing inputs while responding to either alone.","prediction":"A mechanical latch should reject simultaneous opposing inputs while responding to either alone.","test":"Apply input combinations.","contrary_outcome":"Simultaneous inputs cause unintended switching.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0767","id":"S1-0767","volume":"900","title":"A soft extensile actuator should maintain its cross-section through a sliding external cage.","prediction":"A soft extensile actuator should maintain its cross-section through a sliding external cage.","test":"Measure shape and stroke.","contrary":"Cage blocks useful extension.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0767","hypothesis":"A soft extensile actuator should maintain its cross-section through a sliding external cage.","prediction":"A soft extensile actuator should maintain its cross-section through a sliding external cage.","test":"Measure shape and stroke.","contrary_outcome":"Cage blocks useful extension.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0768","id":"S1-0768","volume":"900","title":"A flexure-mounted payload should remain level during slow support rotation through gravity-biased geometry.","prediction":"A flexure-mounted payload should remain level during slow support rotation through gravity-biased geometry.","test":"Measure payload angle.","contrary":"Support rotation passes through.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0768","hypothesis":"A flexure-mounted payload should remain level during slow support rotation through gravity-biased geometry.","prediction":"A flexure-mounted payload should remain level during slow support rotation through gravity-biased geometry.","test":"Measure payload angle.","contrary_outcome":"Support rotation passes through.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0768","hypothesis":"A flexure-mounted payload should remain level during slow support rotation through gravity-biased geometry.","prediction":"A flexure-mounted payload should remain level during slow support rotation through gravity-biased geometry.","test":"Measure payload angle.","contrary_outcome":"Support rotation passes through.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":77,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A flexure-mounted payload remain level during slow support rotation through gravity-biased geometry. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0769","id":"S1-0769","volume":"900","title":"A pneumatic sequence should fail safely into a vented state when one channel blocks.","prediction":"A pneumatic sequence should fail safely into a vented state when one channel blocks.","test":"Block each channel.","contrary":"Some blockage states retain pressure.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0769","hypothesis":"A pneumatic sequence should fail safely into a vented state when one channel blocks.","prediction":"A pneumatic sequence should fail safely into a vented state when one channel blocks.","test":"Block each channel.","contrary_outcome":"Some blockage states retain pressure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0770","id":"S1-0770","volume":"900","title":"A compliant coupling should tolerate shaft offset without generating large axial thrust.","prediction":"A compliant coupling should tolerate shaft offset without generating large axial thrust.","test":"Measure thrust over offsets.","contrary":"Thrust rises substantially.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0770","hypothesis":"A compliant coupling should tolerate shaft offset without generating large axial thrust.","prediction":"A compliant coupling should tolerate shaft offset without generating large axial thrust.","test":"Measure thrust over offsets.","contrary_outcome":"Thrust rises substantially.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0771","id":"S1-0771","volume":"900","title":"A soft folding mechanism should deploy in a controlled sequence through unequal chamber filling resistances.","prediction":"A soft folding mechanism should deploy in a controlled sequence through unequal chamber filling resistances.","test":"Film deployment.","contrary":"Sequence varies unpredictably.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0771","hypothesis":"A soft folding mechanism should deploy in a controlled sequence through unequal chamber filling resistances.","prediction":"A soft folding mechanism should deploy in a controlled sequence through unequal chamber filling resistances.","test":"Film deployment.","contrary_outcome":"Sequence varies unpredictably.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0772","id":"S1-0772","volume":"900","title":"A mechanical analog filter should reject isolated force spikes while transmitting sustained load.","prediction":"A mechanical analog filter should reject isolated force spikes while transmitting sustained load.","test":"Apply force histories.","contrary":"Filtering removes sustained load equally.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0772","hypothesis":"A mechanical analog filter should reject isolated force spikes while transmitting sustained load.","prediction":"A mechanical analog filter should reject isolated force spikes while transmitting sustained load.","test":"Apply force histories.","contrary_outcome":"Filtering removes sustained load equally.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0773","id":"S1-0773","volume":"900","title":"A flexible skin should estimate contact curvature from the pattern of wrinkle wavelengths.","prediction":"A flexible skin should estimate contact curvature from the pattern of wrinkle wavelengths.","test":"Contact known shapes.","contrary":"Wrinkles depend mainly on preload.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0773","hypothesis":"A flexible skin should estimate contact curvature from the pattern of wrinkle wavelengths.","prediction":"A flexible skin should estimate contact curvature from the pattern of wrinkle wavelengths.","test":"Contact known shapes.","contrary_outcome":"Wrinkles depend mainly on preload.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0774","id":"S1-0774","volume":"900","title":"A pneumatic joint should show lower supply-noise sensitivity when opposing chambers share a compliant reference.","prediction":"A pneumatic joint should show lower supply-noise sensitivity when opposing chambers share a compliant reference.","test":"Measure angle under pressure noise.","contrary":"Noise rejection is absent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0774","hypothesis":"A pneumatic joint should show lower supply-noise sensitivity when opposing chambers share a compliant reference.","prediction":"A pneumatic joint should show lower supply-noise sensitivity when opposing chambers share a compliant reference.","test":"Measure angle under pressure noise.","contrary_outcome":"Noise rejection is absent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0775","id":"S1-0775","volume":"900","title":"A compliant beam pair should convert torque into differential displacement while rejecting axial load.","prediction":"A compliant beam pair should convert torque into differential displacement while rejecting axial load.","test":"Calibrate combined loads.","contrary":"Axial leakage dominates.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0775","hypothesis":"A compliant beam pair should convert torque into differential displacement while rejecting axial load.","prediction":"A compliant beam pair should convert torque into differential displacement while rejecting axial load.","test":"Calibrate combined loads.","contrary_outcome":"Axial leakage dominates.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0776","id":"S1-0776","volume":"900","title":"A soft grasp should improve release reliability through temporary inflation of a central separation blister.","prediction":"A soft grasp should improve release reliability through temporary inflation of a central separation blister.","test":"Measure sticking failures.","contrary":"Blister ejects objects unpredictably.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0776","hypothesis":"A soft grasp should improve release reliability through temporary inflation of a central separation blister.","prediction":"A soft grasp should improve release reliability through temporary inflation of a central separation blister.","test":"Measure sticking failures.","contrary_outcome":"Blister ejects objects unpredictably.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0777","id":"S1-0777","volume":"900","title":"A mechanical valve should close progressively as flow increases and reopen without hysteretic lockup.","prediction":"A mechanical valve should close progressively as flow increases and reopen without hysteretic lockup.","test":"Measure flow curves.","contrary":"It latches or oscillates destructively.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0777","hypothesis":"A mechanical valve should close progressively as flow increases and reopen without hysteretic lockup.","prediction":"A mechanical valve should close progressively as flow increases and reopen without hysteretic lockup.","test":"Measure flow curves.","contrary_outcome":"It latches or oscillates destructively.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0778","id":"S1-0778","volume":"900","title":"A flexible wheel should climb a step by forming a temporary flat contact patch.","prediction":"A flexible wheel should climb a step by forming a temporary flat contact patch.","test":"Measure climb threshold.","contrary":"Patch formation reduces climbing ability.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0778","hypothesis":"A flexible wheel should climb a step by forming a temporary flat contact patch.","prediction":"A flexible wheel should climb a step by forming a temporary flat contact patch.","test":"Measure climb threshold.","contrary_outcome":"Patch formation reduces climbing ability.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0778","hypothesis":"A flexible wheel should climb a step by forming a temporary flat contact patch.","prediction":"A flexible wheel should climb a step by forming a temporary flat contact patch.","test":"Measure climb threshold.","contrary_outcome":"Patch formation reduces climbing ability.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":78,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A flexible wheel climb a step by forming a temporary flat contact patch. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0779","id":"S1-0779","volume":"900","title":"A pneumatic sensor should distinguish slow leakage from volume compression through recovery timing.","prediction":"A pneumatic sensor should distinguish slow leakage from volume compression through recovery timing.","test":"Apply controlled faults.","contrary":"Timing signatures overlap.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0779","hypothesis":"A pneumatic sensor should distinguish slow leakage from volume compression through recovery timing.","prediction":"A pneumatic sensor should distinguish slow leakage from volume compression through recovery timing.","test":"Apply controlled faults.","contrary_outcome":"Timing signatures overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0780","id":"S1-0780","volume":"900","title":"A compliant frame should route overload around a precision element through secondary contact.","prediction":"A compliant frame should route overload around a precision element through secondary contact.","test":"Measure protected force.","contrary":"Secondary contact arrives too late.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0780","hypothesis":"A compliant frame should route overload around a precision element through secondary contact.","prediction":"A compliant frame should route overload around a precision element through secondary contact.","test":"Measure protected force.","contrary_outcome":"Secondary contact arrives too late.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0781","id":"S1-0781","volume":"900","title":"A soft articulated chain should straighten under tension while preserving local obstacle contact.","prediction":"A soft articulated chain should straighten under tension while preserving local obstacle contact.","test":"Measure shape and contact.","contrary":"Straightening loses all local contact.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0781","hypothesis":"A soft articulated chain should straighten under tension while preserving local obstacle contact.","prediction":"A soft articulated chain should straighten under tension while preserving local obstacle contact.","test":"Measure shape and contact.","contrary_outcome":"Straightening loses all local contact.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0782","id":"S1-0782","volume":"900","title":"A mechanical reset should propagate through a bistable array with less energy than individual resets.","prediction":"A mechanical reset should propagate through a bistable array with less energy than individual resets.","test":"Measure reset work.","contrary":"Propagation requires greater work.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0782","hypothesis":"A mechanical reset should propagate through a bistable array with less energy than individual resets.","prediction":"A mechanical reset should propagate through a bistable array with less energy than individual resets.","test":"Measure reset work.","contrary_outcome":"Propagation requires greater work.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0783","id":"S1-0783","volume":"900","title":"A flexible pump chamber should minimize residual volume through a traveling collapse front.","prediction":"A flexible pump chamber should minimize residual volume through a traveling collapse front.","test":"Image final liquid volume.","contrary":"Pockets remain trapped.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0783","hypothesis":"A flexible pump chamber should minimize residual volume through a traveling collapse front.","prediction":"A flexible pump chamber should minimize residual volume through a traveling collapse front.","test":"Image final liquid volume.","contrary_outcome":"Pockets remain trapped.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0784","id":"S1-0784","volume":"900","title":"A pneumatic gripper should resist twisting through cross-linked fingertip chambers.","prediction":"A pneumatic gripper should resist twisting through cross-linked fingertip chambers.","test":"Measure torque capacity.","contrary":"Cross-links offer no improvement.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0784","hypothesis":"A pneumatic gripper should resist twisting through cross-linked fingertip chambers.","prediction":"A pneumatic gripper should resist twisting through cross-linked fingertip chambers.","test":"Measure torque capacity.","contrary_outcome":"Cross-links offer no improvement.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0785","id":"S1-0785","volume":"900","title":"A compliant cable fairlead should distribute bending over a longer length under rising tension.","prediction":"A compliant cable fairlead should distribute bending over a longer length under rising tension.","test":"Map curvature.","contrary":"Curvature localizes more strongly.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0785","hypothesis":"A compliant cable fairlead should distribute bending over a longer length under rising tension.","prediction":"A compliant cable fairlead should distribute bending over a longer length under rising tension.","test":"Map curvature.","contrary_outcome":"Curvature localizes more strongly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0786","id":"S1-0786","volume":"900","title":"A soft actuator should reveal internal delamination through a changed pressure-volume loop before gross rupture.","prediction":"A soft actuator should reveal internal delamination through a changed pressure-volume loop before gross rupture.","test":"Introduce controlled debonds.","contrary":"Loop changes are undetectable.","layers":[1,2,3],"categories":["physical","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0786","hypothesis":"A soft actuator should reveal internal delamination through a changed pressure-volume loop before gross rupture.","prediction":"A soft actuator should reveal internal delamination through a changed pressure-volume loop before gross rupture.","test":"Introduce controlled debonds.","contrary_outcome":"Loop changes are undetectable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0786","hypothesis":"A soft actuator should reveal internal delamination through a changed pressure-volume loop before gross rupture.","prediction":"A soft actuator should reveal internal delamination through a changed pressure-volume loop before gross rupture.","test":"Introduce controlled debonds.","contrary_outcome":"Loop changes are undetectable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":79,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A soft actuator reveal internal delamination through a changed pressure-volume loop before gross rupture. experimental mechanism"},"dossier":{"id":"S1-0786","title":"Pressure-volume loops as delamination precursors","why_selected":"Damage can be introduced at known locations, permitting blind detection and explicit comparison with nuisance drift.","sources":[{"title":"Endurance tests for a fabric_reinforced inflatable soft actuator","url":"https://www.frontiersin.org/journals/materials/articles/10.3389/fmats.2023.1112540/full","access":"Publisher endurance/burst-test methods read","finding":"The study evaluates cyclic use, burst behavior, and material properties of reinforced inflatable actuators. It motivates durability measurements but does not establish that pressure-volume loops uniquely detect early delamination."}],"design":"Prepare matched soft actuator coupons with intact bonds, seeded small debonds, and sham fabrication changes. Measure pressure and displaced volume during slow inflation/deflation using a calibrated syringe system. Quantify debond area independently by transparent imaging or sectioning separate witness coupons. Blind the loop analyst to damage labels and reserve independent actuators for held-out testing.","endpoints":"Primary: held-out detection of seeded debonds below a preregistered area threshold. Secondary: loop area, tangent compliance, residual volume, and false alarms caused by temperature or cycling. No detection threshold should be tuned on held-out devices.","controls":"Temperature cycles; intact fatigued samples; controlled external load; small leaks without debonding; varying inflation rate; sham bond inserts. Leakage, viscoelasticity, and trapped gas can all change loop shape.","conditional_analysis":"In a quasistatic elastic approximation, tangent compliance C=dV/dp is positive for a stable chamber. A debond may increase effective free wall area and hence C, but it can also constrain motion or cause leakage; no universal monotonicity theorem follows. Loop work W=integral p dV quantifies net pressure-volume work over a cycle but does not identify its dissipation mechanism. The physical diagnostic therefore remains unproved.","analysis_plan":"Predefine loop features from a training set, evaluate held-out device-level sensitivity/specificity with uncertainty, and compare against leak-only and temperature controls. Track detection time relative to independently observed crack growth. Reject the early-warning claim if detection occurs only after visible leakage or if false alarms are comparable to true positives.","limitations":"No physical data or successful classifier generated. Existing endurance research is background, not proof of the proposed precursor. Independent-device validation is required.","rank":9,"hypothesis":"A soft actuator should reveal internal delamination through a changed pressure-volume loop before gross rupture.","status":"speculative; no physical proof; no physical data collected"},"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0787","id":"S1-0787","volume":"900","title":"A mechanical integrator should approximate accumulated positive load while ignoring unloading intervals.","prediction":"A mechanical integrator should approximate accumulated positive load while ignoring unloading intervals.","test":"Apply calibrated histories.","contrary":"Output depends on reversal details.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0787","hypothesis":"A mechanical integrator should approximate accumulated positive load while ignoring unloading intervals.","prediction":"A mechanical integrator should approximate accumulated positive load while ignoring unloading intervals.","test":"Apply calibrated histories.","contrary_outcome":"Output depends on reversal details.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0788","id":"S1-0788","volume":"900","title":"A flexible sheath should reduce pipe-inspection probe snagging through backward-folding surface scales.","prediction":"A flexible sheath should reduce pipe-inspection probe snagging through backward-folding surface scales.","test":"Measure snag forces.","contrary":"Scales increase snagging.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0788","hypothesis":"A flexible sheath should reduce pipe-inspection probe snagging through backward-folding surface scales.","prediction":"A flexible sheath should reduce pipe-inspection probe snagging through backward-folding surface scales.","test":"Measure snag forces.","contrary_outcome":"Scales increase snagging.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0789","id":"S1-0789","volume":"900","title":"A pneumatic latch should retain state during slow leakage but reset during deliberate rapid venting.","prediction":"A pneumatic latch should retain state during slow leakage but reset during deliberate rapid venting.","test":"Compare pressure histories.","contrary":"Leakage and reset cannot be distinguished.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0789","hypothesis":"A pneumatic latch should retain state during slow leakage but reset during deliberate rapid venting.","prediction":"A pneumatic latch should retain state during slow leakage but reset during deliberate rapid venting.","test":"Compare pressure histories.","contrary_outcome":"Leakage and reset cannot be distinguished.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0790","id":"S1-0790","volume":"900","title":"A compliant lifting frame should equalize three support forces through a passive differential.","prediction":"A compliant lifting frame should equalize three support forces through a passive differential.","test":"Measure forces over uneven supports.","contrary":"One support unloads.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0790","hypothesis":"A compliant lifting frame should equalize three support forces through a passive differential.","prediction":"A compliant lifting frame should equalize three support forces through a passive differential.","test":"Measure forces over uneven supports.","contrary_outcome":"One support unloads.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0791","id":"S1-0791","volume":"900","title":"A soft fin array should maintain thrust after one fin tears through redistribution of drive flow.","prediction":"A soft fin array should maintain thrust after one fin tears through redistribution of drive flow.","test":"Damage one fin.","contrary":"Thrust collapses disproportionately.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0791","hypothesis":"A soft fin array should maintain thrust after one fin tears through redistribution of drive flow.","prediction":"A soft fin array should maintain thrust after one fin tears through redistribution of drive flow.","test":"Damage one fin.","contrary_outcome":"Thrust collapses disproportionately.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0792","id":"S1-0792","volume":"900","title":"A mechanical curvature sensor should reject uniform extension through paired sliding tracks.","prediction":"A mechanical curvature sensor should reject uniform extension through paired sliding tracks.","test":"Calibrate extension and bending.","contrary":"Extension cross-sensitivity remains large.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0792","hypothesis":"A mechanical curvature sensor should reject uniform extension through paired sliding tracks.","prediction":"A mechanical curvature sensor should reject uniform extension through paired sliding tracks.","test":"Calibrate extension and bending.","contrary_outcome":"Extension cross-sensitivity remains large.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0793","id":"S1-0793","volume":"900","title":"A flexible bellows should meter displaced air through a sequence of visible fold inversions.","prediction":"A flexible bellows should meter displaced air through a sequence of visible fold inversions.","test":"Compare fold counts with measured volume.","contrary":"Inversions do not correspond to reproducible volumes.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0793","hypothesis":"A flexible bellows should meter displaced air through a sequence of visible fold inversions.","prediction":"A flexible bellows should meter displaced air through a sequence of visible fold inversions.","test":"Compare fold counts with measured volume.","contrary_outcome":"Inversions do not correspond to reproducible volumes.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0794","id":"S1-0794","volume":"900","title":"A pneumatic oscillator should tune its duty cycle independently of frequency through asymmetric return paths.","prediction":"A pneumatic oscillator should tune its duty cycle independently of frequency through asymmetric return paths.","test":"Measure timing over adjustments.","contrary":"Duty cycle and frequency remain coupled.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0794","hypothesis":"A pneumatic oscillator should tune its duty cycle independently of frequency through asymmetric return paths.","prediction":"A pneumatic oscillator should tune its duty cycle independently of frequency through asymmetric return paths.","test":"Measure timing over adjustments.","contrary_outcome":"Duty cycle and frequency remain coupled.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0795","id":"S1-0795","volume":"900","title":"A compliant clamp should hold brittle objects through distributed rolling contacts.","prediction":"A compliant clamp should hold brittle objects through distributed rolling contacts.","test":"Measure fracture and holding force.","contrary":"Rolling contacts still concentrate stress.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0795","hypothesis":"A compliant clamp should hold brittle objects through distributed rolling contacts.","prediction":"A compliant clamp should hold brittle objects through distributed rolling contacts.","test":"Measure fracture and holding force.","contrary_outcome":"Rolling contacts still concentrate stress.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0796","id":"S1-0796","volume":"900","title":"A soft traveling-wave actuator should transport a payload without net substrate translation.","prediction":"A soft traveling-wave actuator should transport a payload without net substrate translation.","test":"Measure payload and actuator positions.","contrary":"Motion requires actuator drift.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0796","hypothesis":"A soft traveling-wave actuator should transport a payload without net substrate translation.","prediction":"A soft traveling-wave actuator should transport a payload without net substrate translation.","test":"Measure payload and actuator positions.","contrary_outcome":"Motion requires actuator drift.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0797","id":"S1-0797","volume":"900","title":"A mechanical overload sensor should reset only after complete unloading rather than partial relaxation.","prediction":"A mechanical overload sensor should reset only after complete unloading rather than partial relaxation.","test":"Cycle load minima.","contrary":"Partial unloading causes false reset.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0797","hypothesis":"A mechanical overload sensor should reset only after complete unloading rather than partial relaxation.","prediction":"A mechanical overload sensor should reset only after complete unloading rather than partial relaxation.","test":"Cycle load minima.","contrary_outcome":"Partial unloading causes false reset.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0798","id":"S1-0798","volume":"900","title":"A flexible joint cover should prevent pinch gaps without materially increasing actuation torque.","prediction":"A flexible joint cover should prevent pinch gaps without materially increasing actuation torque.","test":"Measure gap and torque.","contrary":"Protection requires large torque increase.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0798","hypothesis":"A flexible joint cover should prevent pinch gaps without materially increasing actuation torque.","prediction":"A flexible joint cover should prevent pinch gaps without materially increasing actuation torque.","test":"Measure gap and torque.","contrary_outcome":"Protection requires large torque increase.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0798","hypothesis":"A flexible joint cover should prevent pinch gaps without materially increasing actuation torque.","prediction":"A flexible joint cover should prevent pinch gaps without materially increasing actuation torque.","test":"Measure gap and torque.","contrary_outcome":"Protection requires large torque increase.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":80,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A flexible joint cover prevent pinch gaps without materially increasing actuation torque. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0799","id":"S1-0799","volume":"900","title":"A pneumatic pressure equalizer should isolate a punctured limb while maintaining intact-limb actuation.","prediction":"A pneumatic pressure equalizer should isolate a punctured limb while maintaining intact-limb actuation.","test":"Puncture controlled branches.","contrary":"Pressure loss spreads to all limbs.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0799","hypothesis":"A pneumatic pressure equalizer should isolate a punctured limb while maintaining intact-limb actuation.","prediction":"A pneumatic pressure equalizer should isolate a punctured limb while maintaining intact-limb actuation.","test":"Puncture controlled branches.","contrary_outcome":"Pressure loss spreads to all limbs.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0800","id":"S1-0800","volume":"900","title":"A compliant deployment frame should dissipate end-of-stroke energy through reversible snap-back.","prediction":"A compliant deployment frame should dissipate end-of-stroke energy through reversible snap-back.","test":"Measure deployment rebound.","contrary":"Snap-back increases rebound.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0800","hypothesis":"A compliant deployment frame should dissipate end-of-stroke energy through reversible snap-back.","prediction":"A compliant deployment frame should dissipate end-of-stroke energy through reversible snap-back.","test":"Measure deployment rebound.","contrary_outcome":"Snap-back increases rebound.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0801","id":"S1-0801","volume":"900","title":"A rotating liquid annulus should reveal angular acceleration through transient free-surface asymmetry before steady rotation establishes.","prediction":"A rotating liquid annulus should reveal angular acceleration through transient free-surface asymmetry before steady rotation establishes.","test":"Image calibrated starts.","contrary":"Asymmetry tracks speed only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0801","hypothesis":"A rotating liquid annulus should reveal angular acceleration through transient free-surface asymmetry before steady rotation establishes.","prediction":"A rotating liquid annulus should reveal angular acceleration through transient free-surface asymmetry before steady rotation establishes.","test":"Image calibrated starts.","contrary_outcome":"Asymmetry tracks speed only.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0802","id":"S1-0802","volume":"900","title":"A dead-end microgroove should capture suspended particles by repeated flow reversal without net filtration flow.","prediction":"A dead-end microgroove should capture suspended particles by repeated flow reversal without net filtration flow.","test":"Count retained inert tracers.","contrary":"Capture equals stagnant controls.","layers":[1,2],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0802","hypothesis":"A dead-end microgroove should capture suspended particles by repeated flow reversal without net filtration flow.","prediction":"A dead-end microgroove should capture suspended particles by repeated flow reversal without net filtration flow.","test":"Count retained inert tracers.","contrary_outcome":"Capture equals stagnant controls.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0802","hypothesis":"A dead-end microgroove should capture suspended particles by repeated flow reversal without net filtration flow.","prediction":"A dead-end microgroove should capture suspended particles by repeated flow reversal without net filtration flow.","test":"Count retained inert tracers.","contrary_outcome":"Capture equals stagnant controls.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":81,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A dead-end microgroove capture suspended particles by repeated flow reversal without net filtration flow. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0803","id":"S1-0803","volume":"900","title":"A flexible droplet guide should change direction after receiving a threshold droplet volume.","prediction":"A flexible droplet guide should change direction after receiving a threshold droplet volume.","test":"Dose controlled droplets.","contrary":"Deflection lacks a reproducible threshold.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0803","hypothesis":"A flexible droplet guide should change direction after receiving a threshold droplet volume.","prediction":"A flexible droplet guide should change direction after receiving a threshold droplet volume.","test":"Dose controlled droplets.","contrary_outcome":"Deflection lacks a reproducible threshold.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0804","id":"S1-0804","volume":"900","title":"A paired siphon should equalize two reservoir levels without continuous air ingestion.","prediction":"A paired siphon should equalize two reservoir levels without continuous air ingestion.","test":"Measure level convergence.","contrary":"Air interrupts equalization.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0804","hypothesis":"A paired siphon should equalize two reservoir levels without continuous air ingestion.","prediction":"A paired siphon should equalize two reservoir levels without continuous air ingestion.","test":"Measure level convergence.","contrary_outcome":"Air interrupts equalization.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0805","id":"S1-0805","volume":"900","title":"A shallow fin should suppress a hydraulic jump's lateral wandering through weak surface guidance.","prediction":"A shallow fin should suppress a hydraulic jump's lateral wandering through weak surface guidance.","test":"Measure jump position.","contrary":"Wandering remains unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0805","hypothesis":"A shallow fin should suppress a hydraulic jump's lateral wandering through weak surface guidance.","prediction":"A shallow fin should suppress a hydraulic jump's lateral wandering through weak surface guidance.","test":"Measure jump position.","contrary_outcome":"Wandering remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0806","id":"S1-0806","volume":"900","title":"A pressure-release side chamber should reduce sudden nozzle drool after pump shutdown.","prediction":"A pressure-release side chamber should reduce sudden nozzle drool after pump shutdown.","test":"Weigh post-stop discharge.","contrary":"Drool is unchanged.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0806","hypothesis":"A pressure-release side chamber should reduce sudden nozzle drool after pump shutdown.","prediction":"A pressure-release side chamber should reduce sudden nozzle drool after pump shutdown.","test":"Weigh post-stop discharge.","contrary_outcome":"Drool is unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0807","id":"S1-0807","volume":"900","title":"A porous channel wall should stabilize liquid-liquid interfaces through distributed suction.","prediction":"A porous channel wall should stabilize liquid-liquid interfaces through distributed suction.","test":"Image nonhazardous immiscible streams.","contrary":"Suction increases interfacial instability.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0807","hypothesis":"A porous channel wall should stabilize liquid-liquid interfaces through distributed suction.","prediction":"A porous channel wall should stabilize liquid-liquid interfaces through distributed suction.","test":"Image nonhazardous immiscible streams.","contrary_outcome":"Suction increases interfacial instability.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0808","id":"S1-0808","volume":"900","title":"A floating wedge should gather surface foam through capillary convergence without bulk pumping.","prediction":"A floating wedge should gather surface foam through capillary convergence without bulk pumping.","test":"Track benign foam.","contrary":"Foam bypasses the wedge.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0808","hypothesis":"A floating wedge should gather surface foam through capillary convergence without bulk pumping.","prediction":"A floating wedge should gather surface foam through capillary convergence without bulk pumping.","test":"Track benign foam.","contrary_outcome":"Foam bypasses the wedge.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0809","id":"S1-0809","volume":"900","title":"A flexible vortex generator should retract at high flow and cap drag growth.","prediction":"A flexible vortex generator should retract at high flow and cap drag growth.","test":"Measure drag and deployment.","contrary":"Drag grows as in fixed generators.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0809","hypothesis":"A flexible vortex generator should retract at high flow and cap drag growth.","prediction":"A flexible vortex generator should retract at high flow and cap drag growth.","test":"Measure drag and deployment.","contrary_outcome":"Drag grows as in fixed generators.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0810","id":"S1-0810","volume":"900","title":"A capillary divider should separate droplets by contact-line mobility at equal volume.","prediction":"A capillary divider should separate droplets by contact-line mobility at equal volume.","test":"Measure branch choice on controlled surfaces.","contrary":"Choice follows volume alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0810","hypothesis":"A capillary divider should separate droplets by contact-line mobility at equal volume.","prediction":"A capillary divider should separate droplets by contact-line mobility at equal volume.","test":"Measure branch choice on controlled surfaces.","contrary_outcome":"Choice follows volume alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0811","id":"S1-0811","volume":"900","title":"A submerged air pocket should detect rapid pressure drops through temporary interface protrusion.","prediction":"A submerged air pocket should detect rapid pressure drops through temporary interface protrusion.","test":"Apply calibrated transients.","contrary":"Interface follows equilibrium pressure only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0811","hypothesis":"A submerged air pocket should detect rapid pressure drops through temporary interface protrusion.","prediction":"A submerged air pocket should detect rapid pressure drops through temporary interface protrusion.","test":"Apply calibrated transients.","contrary_outcome":"Interface follows equilibrium pressure only.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0812","id":"S1-0812","volume":"900","title":"A collapsible flow passage should produce a constant-flow region before complete closure.","prediction":"A collapsible flow passage should produce a constant-flow region before complete closure.","test":"Measure pressure-flow relation.","contrary":"Flow remains monotonic without plateau.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0812","hypothesis":"A collapsible flow passage should produce a constant-flow region before complete closure.","prediction":"A collapsible flow passage should produce a constant-flow region before complete closure.","test":"Measure pressure-flow relation.","contrary_outcome":"Flow remains monotonic without plateau.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0813","id":"S1-0813","volume":"900","title":"A slow rotating stirrer should mix more efficiently when its blade changes pitch passively on reversal.","prediction":"A slow rotating stirrer should mix more efficiently when its blade changes pitch passively on reversal.","test":"Measure mixing energy.","contrary":"Pitch changes add no benefit.","layers":[1,2],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0813","hypothesis":"A slow rotating stirrer should mix more efficiently when its blade changes pitch passively on reversal.","prediction":"A slow rotating stirrer should mix more efficiently when its blade changes pitch passively on reversal.","test":"Measure mixing energy.","contrary_outcome":"Pitch changes add no benefit.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0813","hypothesis":"A slow rotating stirrer should mix more efficiently when its blade changes pitch passively on reversal.","prediction":"A slow rotating stirrer should mix more efficiently when its blade changes pitch passively on reversal.","test":"Measure mixing energy.","contrary_outcome":"Pitch changes add no benefit.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":82,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A slow rotating stirrer mix more efficiently when its blade changes pitch passively on reversal. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0814","id":"S1-0814","volume":"900","title":"A vented liquid trap should exclude bulk liquid from a pressure reference during sloshing.","prediction":"A vented liquid trap should exclude bulk liquid from a pressure reference during sloshing.","test":"Measure contamination during shaking.","contrary":"Liquid enters the reference.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0814","hypothesis":"A vented liquid trap should exclude bulk liquid from a pressure reference during sloshing.","prediction":"A vented liquid trap should exclude bulk liquid from a pressure reference during sloshing.","test":"Measure contamination during shaking.","contrary_outcome":"Liquid enters the reference.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0815","id":"S1-0815","volume":"900","title":"A narrow ridge should split an advancing wetting front into synchronized branches.","prediction":"A narrow ridge should split an advancing wetting front into synchronized branches.","test":"Image front timing.","contrary":"Branch arrivals remain unequal.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0815","hypothesis":"A narrow ridge should split an advancing wetting front into synchronized branches.","prediction":"A narrow ridge should split an advancing wetting front into synchronized branches.","test":"Image front timing.","contrary_outcome":"Branch arrivals remain unequal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0816","id":"S1-0816","volume":"900","title":"A flexible inlet cone should reduce pump cavitation-like bubble onset by enlarging under suction.","prediction":"A flexible inlet cone should reduce pump cavitation-like bubble onset by enlarging under suction.","test":"Measure inlet pressure and gas appearance.","contrary":"Collapse worsens bubble formation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0816","hypothesis":"A flexible inlet cone should reduce pump cavitation-like bubble onset by enlarging under suction.","prediction":"A flexible inlet cone should reduce pump cavitation-like bubble onset by enlarging under suction.","test":"Measure inlet pressure and gas appearance.","contrary_outcome":"Collapse worsens bubble formation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0817","id":"S1-0817","volume":"900","title":"A porous floating dam should pass clean water beneath while retaining buoyant debris above.","prediction":"A porous floating dam should pass clean water beneath while retaining buoyant debris above.","test":"Measure flow and inert-flake capture.","contrary":"Capture requires major flow blockage.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0817","hypothesis":"A porous floating dam should pass clean water beneath while retaining buoyant debris above.","prediction":"A porous floating dam should pass clean water beneath while retaining buoyant debris above.","test":"Measure flow and inert-flake capture.","contrary_outcome":"Capture requires major flow blockage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0818","id":"S1-0818","volume":"900","title":"A capillary nozzle should maintain droplet spacing when supply pressure varies through elastic volume buffering.","prediction":"A capillary nozzle should maintain droplet spacing when supply pressure varies through elastic volume buffering.","test":"Measure timing.","contrary":"Spacing remains pressure-sensitive.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0818","hypothesis":"A capillary nozzle should maintain droplet spacing when supply pressure varies through elastic volume buffering.","prediction":"A capillary nozzle should maintain droplet spacing when supply pressure varies through elastic volume buffering.","test":"Measure timing.","contrary_outcome":"Spacing remains pressure-sensitive.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0819","id":"S1-0819","volume":"900","title":"A curved bypass should reduce thermal buoyancy short-circuiting in a stratified tank.","prediction":"A curved bypass should reduce thermal buoyancy short-circuiting in a stratified tank.","test":"Map tracer residence times.","contrary":"Bypass increases short-circuiting.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0819","hypothesis":"A curved bypass should reduce thermal buoyancy short-circuiting in a stratified tank.","prediction":"A curved bypass should reduce thermal buoyancy short-circuiting in a stratified tank.","test":"Map tracer residence times.","contrary_outcome":"Bypass increases short-circuiting.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0820","id":"S1-0820","volume":"900","title":"A freely pivoting flow straightener should reduce swirl without imposing large axial pressure loss.","prediction":"A freely pivoting flow straightener should reduce swirl without imposing large axial pressure loss.","test":"Measure swirl and loss.","contrary":"Swirl reduction requires high loss.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0820","hypothesis":"A freely pivoting flow straightener should reduce swirl without imposing large axial pressure loss.","prediction":"A freely pivoting flow straightener should reduce swirl without imposing large axial pressure loss.","test":"Measure swirl and loss.","contrary_outcome":"Swirl reduction requires high loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0821","id":"S1-0821","volume":"900","title":"A tapered bubble trap should release captured gas at a fixed accumulated volume.","prediction":"A tapered bubble trap should release captured gas at a fixed accumulated volume.","test":"Measure release volumes.","contrary":"Volumes depend strongly on flow rate.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0821","hypothesis":"A tapered bubble trap should release captured gas at a fixed accumulated volume.","prediction":"A tapered bubble trap should release captured gas at a fixed accumulated volume.","test":"Measure release volumes.","contrary_outcome":"Volumes depend strongly on flow rate.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0822","id":"S1-0822","volume":"900","title":"A soft nozzle should straighten an off-axis jet through asymmetric wall loading.","prediction":"A soft nozzle should straighten an off-axis jet through asymmetric wall loading.","test":"Image jet direction.","contrary":"Wall deformation amplifies deflection.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0822","hypothesis":"A soft nozzle should straighten an off-axis jet through asymmetric wall loading.","prediction":"A soft nozzle should straighten an off-axis jet through asymmetric wall loading.","test":"Image jet direction.","contrary_outcome":"Wall deformation amplifies deflection.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0823","id":"S1-0823","volume":"900","title":"A capillary connection should transfer liquid between moving surfaces without intermittent disconnection over a bounded gap.","prediction":"A capillary connection should transfer liquid between moving surfaces without intermittent disconnection over a bounded gap.","test":"Measure continuity and flux.","contrary":"Bridge breaks below designed gap.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0823","hypothesis":"A capillary connection should transfer liquid between moving surfaces without intermittent disconnection over a bounded gap.","prediction":"A capillary connection should transfer liquid between moving surfaces without intermittent disconnection over a bounded gap.","test":"Measure continuity and flux.","contrary_outcome":"Bridge breaks below designed gap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0824","id":"S1-0824","volume":"900","title":"A baffle with a flexible edge should damp sloshing more broadly than a rigid baffle.","prediction":"A baffle with a flexible edge should damp sloshing more broadly than a rigid baffle.","test":"Measure decay across fill levels.","contrary":"Bandwidth does not improve.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0824","hypothesis":"A baffle with a flexible edge should damp sloshing more broadly than a rigid baffle.","prediction":"A baffle with a flexible edge should damp sloshing more broadly than a rigid baffle.","test":"Measure decay across fill levels.","contrary_outcome":"Bandwidth does not improve.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0825","id":"S1-0825","volume":"900","title":"A side-pocket array should delay solute breakthrough through reversible vortex storage.","prediction":"A side-pocket array should delay solute breakthrough through reversible vortex storage.","test":"Measure tracer curves.","contrary":"Delay is explained entirely by added volume.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0825","hypothesis":"A side-pocket array should delay solute breakthrough through reversible vortex storage.","prediction":"A side-pocket array should delay solute breakthrough through reversible vortex storage.","test":"Measure tracer curves.","contrary_outcome":"Delay is explained entirely by added volume.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0826","id":"S1-0826","volume":"900","title":"A hydrodynamic bearing pocket should reduce startup wear when a compliant lip retains residual liquid.","prediction":"A hydrodynamic bearing pocket should reduce startup wear when a compliant lip retains residual liquid.","test":"Measure startup friction.","contrary":"Lip adds dry friction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0826","hypothesis":"A hydrodynamic bearing pocket should reduce startup wear when a compliant lip retains residual liquid.","prediction":"A hydrodynamic bearing pocket should reduce startup wear when a compliant lip retains residual liquid.","test":"Measure startup friction.","contrary_outcome":"Lip adds dry friction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0827","id":"S1-0827","volume":"900","title":"A floating wick should collect thin surface films faster when its buoyancy decreases after wetting.","prediction":"A floating wick should collect thin surface films faster when its buoyancy decreases after wetting.","test":"Track film uptake.","contrary":"Sinking interrupts collection.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0827","hypothesis":"A floating wick should collect thin surface films faster when its buoyancy decreases after wetting.","prediction":"A floating wick should collect thin surface films faster when its buoyancy decreases after wetting.","test":"Track film uptake.","contrary_outcome":"Sinking interrupts collection.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0827","hypothesis":"A floating wick should collect thin surface films faster when its buoyancy decreases after wetting.","prediction":"A floating wick should collect thin surface films faster when its buoyancy decreases after wetting.","test":"Track film uptake.","contrary_outcome":"Sinking interrupts collection.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":83,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A floating wick collect thin surface films faster when its buoyancy decreases after wetting. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0828","id":"S1-0828","volume":"900","title":"A capillary vent should distinguish trapped-air blockage from solid blockage through pressure relaxation.","prediction":"A capillary vent should distinguish trapped-air blockage from solid blockage through pressure relaxation.","test":"Apply controlled obstructions.","contrary":"Relaxation signatures overlap.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0828","hypothesis":"A capillary vent should distinguish trapped-air blockage from solid blockage through pressure relaxation.","prediction":"A capillary vent should distinguish trapped-air blockage from solid blockage through pressure relaxation.","test":"Apply controlled obstructions.","contrary_outcome":"Relaxation signatures overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0829","id":"S1-0829","volume":"900","title":"A free-moving outlet tube should suppress jet oscillation by following reaction force.","prediction":"A free-moving outlet tube should suppress jet oscillation by following reaction force.","test":"Measure oscillation spectra.","contrary":"Free motion amplifies oscillation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0829","hypothesis":"A free-moving outlet tube should suppress jet oscillation by following reaction force.","prediction":"A free-moving outlet tube should suppress jet oscillation by following reaction force.","test":"Measure oscillation spectra.","contrary_outcome":"Free motion amplifies oscillation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0830","id":"S1-0830","volume":"900","title":"A corrugated floor should stabilize rivulet position under small lateral tilt changes.","prediction":"A corrugated floor should stabilize rivulet position under small lateral tilt changes.","test":"Image rivulet centroids.","contrary":"Rivulets jump unpredictably.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0830","hypothesis":"A corrugated floor should stabilize rivulet position under small lateral tilt changes.","prediction":"A corrugated floor should stabilize rivulet position under small lateral tilt changes.","test":"Image rivulet centroids.","contrary_outcome":"Rivulets jump unpredictably.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0831","id":"S1-0831","volume":"900","title":"A compliant liquid accumulator should absorb pump pulsation without trapping persistent bubbles.","prediction":"A compliant liquid accumulator should absorb pump pulsation without trapping persistent bubbles.","test":"Measure pressure and retained gas.","contrary":"Damping requires gas accumulation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0831","hypothesis":"A compliant liquid accumulator should absorb pump pulsation without trapping persistent bubbles.","prediction":"A compliant liquid accumulator should absorb pump pulsation without trapping persistent bubbles.","test":"Measure pressure and retained gas.","contrary_outcome":"Damping requires gas accumulation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0832","id":"S1-0832","volume":"900","title":"A curved drain should separate suspended inert particles from liquid through controlled secondary flow.","prediction":"A curved drain should separate suspended inert particles from liquid through controlled secondary flow.","test":"Measure outlet concentrations.","contrary":"Separation is negligible.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0832","hypothesis":"A curved drain should separate suspended inert particles from liquid through controlled secondary flow.","prediction":"A curved drain should separate suspended inert particles from liquid through controlled secondary flow.","test":"Measure outlet concentrations.","contrary_outcome":"Separation is negligible.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0833","id":"S1-0833","volume":"900","title":"A submerged mesh flap should open for a large bubble while resisting many small bubbles.","prediction":"A submerged mesh flap should open for a large bubble while resisting many small bubbles.","test":"Measure passage thresholds.","contrary":"Small bubbles collectively open it equally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0833","hypothesis":"A submerged mesh flap should open for a large bubble while resisting many small bubbles.","prediction":"A submerged mesh flap should open for a large bubble while resisting many small bubbles.","test":"Measure passage thresholds.","contrary_outcome":"Small bubbles collectively open it equally.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0834","id":"S1-0834","volume":"900","title":"A capillary stop should release after a prescribed waiting time through controlled evaporation.","prediction":"A capillary stop should release after a prescribed waiting time through controlled evaporation.","test":"Measure release-time distributions.","contrary":"Timing is dominated by ambient noise.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0834","hypothesis":"A capillary stop should release after a prescribed waiting time through controlled evaporation.","prediction":"A capillary stop should release after a prescribed waiting time through controlled evaporation.","test":"Measure release-time distributions.","contrary_outcome":"Timing is dominated by ambient noise.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0835","id":"S1-0835","volume":"900","title":"A flexible separator should reduce droplet coalescence by moving away from approaching drops.","prediction":"A flexible separator should reduce droplet coalescence by moving away from approaching drops.","test":"Image pair encounters.","contrary":"Motion promotes collision.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0835","hypothesis":"A flexible separator should reduce droplet coalescence by moving away from approaching drops.","prediction":"A flexible separator should reduce droplet coalescence by moving away from approaching drops.","test":"Image pair encounters.","contrary_outcome":"Motion promotes collision.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0836","id":"S1-0836","volume":"900","title":"A reservoir with a traveling floating roof should minimize gas exchange during volume withdrawal.","prediction":"A reservoir with a traveling floating roof should minimize gas exchange during volume withdrawal.","test":"Measure tracer-gas ingress.","contrary":"Ingress matches an open reservoir.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0836","hypothesis":"A reservoir with a traveling floating roof should minimize gas exchange during volume withdrawal.","prediction":"A reservoir with a traveling floating roof should minimize gas exchange during volume withdrawal.","test":"Measure tracer-gas ingress.","contrary_outcome":"Ingress matches an open reservoir.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0837","id":"S1-0837","volume":"900","title":"A slotted liquid jet should merge downstream with less splash than separate round jets at equal momentum.","prediction":"A slotted liquid jet should merge downstream with less splash than separate round jets at equal momentum.","test":"Image merger and spray.","contrary":"Splash is not reduced.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0837","hypothesis":"A slotted liquid jet should merge downstream with less splash than separate round jets at equal momentum.","prediction":"A slotted liquid jet should merge downstream with less splash than separate round jets at equal momentum.","test":"Image merger and spray.","contrary_outcome":"Splash is not reduced.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0838","id":"S1-0838","volume":"900","title":"A soft pipe elbow should distribute pressure impulse over time through controlled unbending.","prediction":"A soft pipe elbow should distribute pressure impulse over time through controlled unbending.","test":"Measure pressure and shape.","contrary":"Unbending produces a larger secondary spike.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0838","hypothesis":"A soft pipe elbow should distribute pressure impulse over time through controlled unbending.","prediction":"A soft pipe elbow should distribute pressure impulse over time through controlled unbending.","test":"Measure pressure and shape.","contrary_outcome":"Unbending produces a larger secondary spike.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0838","hypothesis":"A soft pipe elbow should distribute pressure impulse over time through controlled unbending.","prediction":"A soft pipe elbow should distribute pressure impulse over time through controlled unbending.","test":"Measure pressure and shape.","contrary_outcome":"Unbending produces a larger secondary spike.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":84,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A soft pipe elbow distribute pressure impulse over time through controlled unbending. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0839","id":"S1-0839","volume":"900","title":"A capillary ring should level a tilted small platform through differential liquid weight.","prediction":"A capillary ring should level a tilted small platform through differential liquid weight.","test":"Measure restoring torque.","contrary":"Liquid migrates destabilizingly.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0839","hypothesis":"A capillary ring should level a tilted small platform through differential liquid weight.","prediction":"A capillary ring should level a tilted small platform through differential liquid weight.","test":"Measure restoring torque.","contrary_outcome":"Liquid migrates destabilizingly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0840","id":"S1-0840","volume":"900","title":"A passive diverter should route initial flush liquid to waste and later flow to a collector.","prediction":"A passive diverter should route initial flush liquid to waste and later flow to a collector.","test":"Measure tracer routing.","contrary":"Initial contamination reaches collector.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0840","hypothesis":"A passive diverter should route initial flush liquid to waste and later flow to a collector.","prediction":"A passive diverter should route initial flush liquid to waste and later flow to a collector.","test":"Measure tracer routing.","contrary_outcome":"Initial contamination reaches collector.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0841","id":"S1-0841","volume":"900","title":"A porous baffle should retain mixing efficiency when partially blocked through lateral flow redistribution.","prediction":"A porous baffle should retain mixing efficiency when partially blocked through lateral flow redistribution.","test":"Measure concentration variance.","contrary":"Blockage creates persistent unmixed zones.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0841","hypothesis":"A porous baffle should retain mixing efficiency when partially blocked through lateral flow redistribution.","prediction":"A porous baffle should retain mixing efficiency when partially blocked through lateral flow redistribution.","test":"Measure concentration variance.","contrary_outcome":"Blockage creates persistent unmixed zones.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0842","id":"S1-0842","volume":"900","title":"A floating porous disk should reduce evaporation sensitivity to wind without completely covering the liquid.","prediction":"A floating porous disk should reduce evaporation sensitivity to wind without completely covering the liquid.","test":"Measure mass loss.","contrary":"Wind sensitivity remains unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0842","hypothesis":"A floating porous disk should reduce evaporation sensitivity to wind without completely covering the liquid.","prediction":"A floating porous disk should reduce evaporation sensitivity to wind without completely covering the liquid.","test":"Measure mass loss.","contrary_outcome":"Wind sensitivity remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0843","id":"S1-0843","volume":"900","title":"A compliant outlet lip should prevent air aspiration during intermittent drainage.","prediction":"A compliant outlet lip should prevent air aspiration during intermittent drainage.","test":"Measure ingested gas.","contrary":"Lip causes more air intake.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0843","hypothesis":"A compliant outlet lip should prevent air aspiration during intermittent drainage.","prediction":"A compliant outlet lip should prevent air aspiration during intermittent drainage.","test":"Measure ingested gas.","contrary_outcome":"Lip causes more air intake.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0844","id":"S1-0844","volume":"900","title":"A capillary siphon array should share load when one channel dries.","prediction":"A capillary siphon array should share load when one channel dries.","test":"Measure total flow after channel drying.","contrary":"Dry channels interrupt the entire array.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0844","hypothesis":"A capillary siphon array should share load when one channel dries.","prediction":"A capillary siphon array should share load when one channel dries.","test":"Measure total flow after channel drying.","contrary_outcome":"Dry channels interrupt the entire array.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0845","id":"S1-0845","volume":"900","title":"A rotating transparent cylinder should reveal viscosity through the lag of a trapped internal free surface.","prediction":"A rotating transparent cylinder should reveal viscosity through the lag of a trapped internal free surface.","test":"Measure phase versus calibrated viscosity.","contrary":"Surface hysteresis dominates lag.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0845","hypothesis":"A rotating transparent cylinder should reveal viscosity through the lag of a trapped internal free surface.","prediction":"A rotating transparent cylinder should reveal viscosity through the lag of a trapped internal free surface.","test":"Measure phase versus calibrated viscosity.","contrary_outcome":"Surface hysteresis dominates lag.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0846","id":"S1-0846","volume":"900","title":"A pressure-driven flexible divider should sort bubbles by their ability to deform through a transient gap.","prediction":"A pressure-driven flexible divider should sort bubbles by their ability to deform through a transient gap.","test":"Measure bubble-size distributions.","contrary":"Size selectivity is absent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0846","hypothesis":"A pressure-driven flexible divider should sort bubbles by their ability to deform through a transient gap.","prediction":"A pressure-driven flexible divider should sort bubbles by their ability to deform through a transient gap.","test":"Measure bubble-size distributions.","contrary_outcome":"Size selectivity is absent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0847","id":"S1-0847","volume":"900","title":"A surface-mounted trough should collect dew more efficiently when its curvature changes under liquid weight.","prediction":"A surface-mounted trough should collect dew more efficiently when its curvature changes under liquid weight.","test":"Measure collected volume.","contrary":"Deformation spills or traps dew.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0847","hypothesis":"A surface-mounted trough should collect dew more efficiently when its curvature changes under liquid weight.","prediction":"A surface-mounted trough should collect dew more efficiently when its curvature changes under liquid weight.","test":"Measure collected volume.","contrary_outcome":"Deformation spills or traps dew.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0848","id":"S1-0848","volume":"900","title":"A fluidic rectifier should retain directional resistance under oscillatory flow when compliant elements reset between strokes.","prediction":"A fluidic rectifier should retain directional resistance under oscillatory flow when compliant elements reset between strokes.","test":"Measure net transport.","contrary":"Incomplete reset erases rectification.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0848","hypothesis":"A fluidic rectifier should retain directional resistance under oscillatory flow when compliant elements reset between strokes.","prediction":"A fluidic rectifier should retain directional resistance under oscillatory flow when compliant elements reset between strokes.","test":"Measure net transport.","contrary_outcome":"Incomplete reset erases rectification.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0849","id":"S1-0849","volume":"900","title":"A submerged porous cone should reduce bubble plume wandering by distributed gas release.","prediction":"A submerged porous cone should reduce bubble plume wandering by distributed gas release.","test":"Image plume centroid.","contrary":"Wandering is unchanged.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0849","hypothesis":"A submerged porous cone should reduce bubble plume wandering by distributed gas release.","prediction":"A submerged porous cone should reduce bubble plume wandering by distributed gas release.","test":"Image plume centroid.","contrary_outcome":"Wandering is unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0849","hypothesis":"A submerged porous cone should reduce bubble plume wandering by distributed gas release.","prediction":"A submerged porous cone should reduce bubble plume wandering by distributed gas release.","test":"Image plume centroid.","contrary_outcome":"Wandering is unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":85,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A submerged porous cone reduce bubble plume wandering by distributed gas release. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0850","id":"S1-0850","volume":"900","title":"A shallow capillary basin should hold a droplet against moderate acceleration through a movable perimeter.","prediction":"A shallow capillary basin should hold a droplet against moderate acceleration through a movable perimeter.","test":"Measure release acceleration.","contrary":"Movable edge lowers retention.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0850","hypothesis":"A shallow capillary basin should hold a droplet against moderate acceleration through a movable perimeter.","prediction":"A shallow capillary basin should hold a droplet against moderate acceleration through a movable perimeter.","test":"Measure release acceleration.","contrary_outcome":"Movable edge lowers retention.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0851","id":"S1-0851","volume":"900","title":"A flexible inlet screen should identify fouling through a visible change in curvature before severe pressure loss.","prediction":"A flexible inlet screen should identify fouling through a visible change in curvature before severe pressure loss.","test":"Measure curvature and loss.","contrary":"Curvature changes too late.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0851","hypothesis":"A flexible inlet screen should identify fouling through a visible change in curvature before severe pressure loss.","prediction":"A flexible inlet screen should identify fouling through a visible change in curvature before severe pressure loss.","test":"Measure curvature and loss.","contrary_outcome":"Curvature changes too late.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0852","id":"S1-0852","volume":"900","title":"A branching liquid network should detect which outlet blocks through a unique upstream oscillation mode.","prediction":"A branching liquid network should detect which outlet blocks through a unique upstream oscillation mode.","test":"Block outlets individually.","contrary":"Mode signatures overlap.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0852","hypothesis":"A branching liquid network should detect which outlet blocks through a unique upstream oscillation mode.","prediction":"A branching liquid network should detect which outlet blocks through a unique upstream oscillation mode.","test":"Block outlets individually.","contrary_outcome":"Mode signatures overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0853","id":"S1-0853","volume":"900","title":"A low-head water oscillator should remain periodic when its reservoir height changes through a floating feedback gate.","prediction":"A low-head water oscillator should remain periodic when its reservoir height changes through a floating feedback gate.","test":"Measure period over heights.","contrary":"Period drifts substantially.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0853","hypothesis":"A low-head water oscillator should remain periodic when its reservoir height changes through a floating feedback gate.","prediction":"A low-head water oscillator should remain periodic when its reservoir height changes through a floating feedback gate.","test":"Measure period over heights.","contrary_outcome":"Period drifts substantially.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0854","id":"S1-0854","volume":"900","title":"A passive droplet splitter should equalize daughter volumes through movable boundary feedback.","prediction":"A passive droplet splitter should equalize daughter volumes through movable boundary feedback.","test":"Measure volume ratios.","contrary":"Feedback increases imbalance.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0854","hypothesis":"A passive droplet splitter should equalize daughter volumes through movable boundary feedback.","prediction":"A passive droplet splitter should equalize daughter volumes through movable boundary feedback.","test":"Measure volume ratios.","contrary_outcome":"Feedback increases imbalance.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0855","id":"S1-0855","volume":"900","title":"A hollow flow guide should retain its alignment under changing density through adjustable buoyant trim.","prediction":"A hollow flow guide should retain its alignment under changing density through adjustable buoyant trim.","test":"Measure orientation in calibration liquids.","contrary":"Trim fails to maintain alignment.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0855","hypothesis":"A hollow flow guide should retain its alignment under changing density through adjustable buoyant trim.","prediction":"A hollow flow guide should retain its alignment under changing density through adjustable buoyant trim.","test":"Measure orientation in calibration liquids.","contrary_outcome":"Trim fails to maintain alignment.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0856","id":"S1-0856","volume":"900","title":"A capillary bridge array should damp small rotations without strong translational resistance.","prediction":"A capillary bridge array should damp small rotations without strong translational resistance.","test":"Measure rotational and translational damping.","contrary":"Both resistances grow equally.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0856","hypothesis":"A capillary bridge array should damp small rotations without strong translational resistance.","prediction":"A capillary bridge array should damp small rotations without strong translational resistance.","test":"Measure rotational and translational damping.","contrary_outcome":"Both resistances grow equally.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0857","id":"S1-0857","volume":"900","title":"A flexible drain gate should avoid chatter through fluid added mass rather than friction.","prediction":"A flexible drain gate should avoid chatter through fluid added mass rather than friction.","test":"Measure motion in different densities.","contrary":"Damping is unrelated to added mass.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0857","hypothesis":"A flexible drain gate should avoid chatter through fluid added mass rather than friction.","prediction":"A flexible drain gate should avoid chatter through fluid added mass rather than friction.","test":"Measure motion in different densities.","contrary_outcome":"Damping is unrelated to added mass.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0858","id":"S1-0858","volume":"900","title":"A porous liquid distributor should resist preferential channels by compressing beneath locally high flow.","prediction":"A porous liquid distributor should resist preferential channels by compressing beneath locally high flow.","test":"Map flux.","contrary":"Compression reinforces channeling.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0858","hypothesis":"A porous liquid distributor should resist preferential channels by compressing beneath locally high flow.","prediction":"A porous liquid distributor should resist preferential channels by compressing beneath locally high flow.","test":"Map flux.","contrary_outcome":"Compression reinforces channeling.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0859","id":"S1-0859","volume":"900","title":"A short air-return chimney should suppress bottle discharge pulses across a range of pouring angles.","prediction":"A short air-return chimney should suppress bottle discharge pulses across a range of pouring angles.","test":"Measure flow spectra.","contrary":"Suppression fails with small angle changes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0859","hypothesis":"A short air-return chimney should suppress bottle discharge pulses across a range of pouring angles.","prediction":"A short air-return chimney should suppress bottle discharge pulses across a range of pouring angles.","test":"Measure flow spectra.","contrary_outcome":"Suppression fails with small angle changes.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0860","id":"S1-0860","volume":"900","title":"A compliant reservoir wall should preserve an optical measurement path during pressure pulsation.","prediction":"A compliant reservoir wall should preserve an optical measurement path during pressure pulsation.","test":"Measure path-length noise.","contrary":"Wall motion worsens noise.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0860","hypothesis":"A compliant reservoir wall should preserve an optical measurement path during pressure pulsation.","prediction":"A compliant reservoir wall should preserve an optical measurement path during pressure pulsation.","test":"Measure path-length noise.","contrary_outcome":"Wall motion worsens noise.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0861","id":"S1-0861","volume":"900","title":"A capillary fork should infer viscosity from transient branch-filling asymmetry after a fixed pressure pulse.","prediction":"A capillary fork should infer viscosity from transient branch-filling asymmetry after a fixed pressure pulse.","test":"Test calibration fluids.","contrary":"Wetting variation overwhelms viscosity response.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0861","hypothesis":"A capillary fork should infer viscosity from transient branch-filling asymmetry after a fixed pressure pulse.","prediction":"A capillary fork should infer viscosity from transient branch-filling asymmetry after a fixed pressure pulse.","test":"Test calibration fluids.","contrary_outcome":"Wetting variation overwhelms viscosity response.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0861","hypothesis":"A capillary fork should infer viscosity from transient branch-filling asymmetry after a fixed pressure pulse.","prediction":"A capillary fork should infer viscosity from transient branch-filling asymmetry after a fixed pressure pulse.","test":"Test calibration fluids.","contrary_outcome":"Wetting variation overwhelms viscosity response.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":86,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A capillary fork infer viscosity from transient branch-filling asymmetry after a fixed pressure pulse. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0862","id":"S1-0862","volume":"900","title":"A free-flapping submerged ribbon should mix two streams with lower pressure loss than a fixed obstruction.","prediction":"A free-flapping submerged ribbon should mix two streams with lower pressure loss than a fixed obstruction.","test":"Measure mixing and loss.","contrary":"Mixing benefit requires higher loss.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0862","hypothesis":"A free-flapping submerged ribbon should mix two streams with lower pressure loss than a fixed obstruction.","prediction":"A free-flapping submerged ribbon should mix two streams with lower pressure loss than a fixed obstruction.","test":"Measure mixing and loss.","contrary_outcome":"Mixing benefit requires higher loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0863","id":"S1-0863","volume":"900","title":"A buoyant valve should reopen after sediment loading through an inclined self-rinsing seat.","prediction":"A buoyant valve should reopen after sediment loading through an inclined self-rinsing seat.","test":"Measure reopening with inert sediment.","contrary":"Sediment prevents reseating.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0863","hypothesis":"A buoyant valve should reopen after sediment loading through an inclined self-rinsing seat.","prediction":"A buoyant valve should reopen after sediment loading through an inclined self-rinsing seat.","test":"Measure reopening with inert sediment.","contrary_outcome":"Sediment prevents reseating.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0864","id":"S1-0864","volume":"900","title":"A thin gap should reject large droplets while transmitting vapor by reversible capillary sealing.","prediction":"A thin gap should reject large droplets while transmitting vapor by reversible capillary sealing.","test":"Measure liquid and vapor transfer.","contrary":"Vapor transfer collapses when sealed.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0864","hypothesis":"A thin gap should reject large droplets while transmitting vapor by reversible capillary sealing.","prediction":"A thin gap should reject large droplets while transmitting vapor by reversible capillary sealing.","test":"Measure liquid and vapor transfer.","contrary_outcome":"Vapor transfer collapses when sealed.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0865","id":"S1-0865","volume":"900","title":"A pressure pulse should clear a clogged wick when delivered from an adjacent compressible pocket.","prediction":"A pressure pulse should clear a clogged wick when delivered from an adjacent compressible pocket.","test":"Measure recovered flux.","contrary":"Pulse irreversibly disrupts wetting.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0865","hypothesis":"A pressure pulse should clear a clogged wick when delivered from an adjacent compressible pocket.","prediction":"A pressure pulse should clear a clogged wick when delivered from an adjacent compressible pocket.","test":"Measure recovered flux.","contrary_outcome":"Pulse irreversibly disrupts wetting.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0866","id":"S1-0866","volume":"900","title":"A floating flow meter should encode cumulative volume through ratcheted rotation powered by surface shear.","prediction":"A floating flow meter should encode cumulative volume through ratcheted rotation powered by surface shear.","test":"Compare counted rotation with gravimetry.","contrary":"Slip prevents volume calibration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0866","hypothesis":"A floating flow meter should encode cumulative volume through ratcheted rotation powered by surface shear.","prediction":"A floating flow meter should encode cumulative volume through ratcheted rotation powered by surface shear.","test":"Compare counted rotation with gravimetry.","contrary_outcome":"Slip prevents volume calibration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0867","id":"S1-0867","volume":"900","title":"A compliant diffuser should reduce separated-flow hysteresis during flow-rate sweeps.","prediction":"A compliant diffuser should reduce separated-flow hysteresis during flow-rate sweeps.","test":"Measure pressure recovery up/down sweeps.","contrary":"Hysteresis remains equal.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0867","hypothesis":"A compliant diffuser should reduce separated-flow hysteresis during flow-rate sweeps.","prediction":"A compliant diffuser should reduce separated-flow hysteresis during flow-rate sweeps.","test":"Measure pressure recovery up/down sweeps.","contrary_outcome":"Hysteresis remains equal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0868","id":"S1-0868","volume":"900","title":"A branched capillary should prevent cross-contamination through sequential air-gap creation.","prediction":"A branched capillary should prevent cross-contamination through sequential air-gap creation.","test":"Image dye transfer.","contrary":"Liquid bridges persist.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0868","hypothesis":"A branched capillary should prevent cross-contamination through sequential air-gap creation.","prediction":"A branched capillary should prevent cross-contamination through sequential air-gap creation.","test":"Image dye transfer.","contrary_outcome":"Liquid bridges persist.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0869","id":"S1-0869","volume":"900","title":"A liquid-filled torsion chamber should provide damping that increases near end-of-travel.","prediction":"A liquid-filled torsion chamber should provide damping that increases near end-of-travel.","test":"Measure torque versus angle and speed.","contrary":"Damping lacks angular selectivity.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0869","hypothesis":"A liquid-filled torsion chamber should provide damping that increases near end-of-travel.","prediction":"A liquid-filled torsion chamber should provide damping that increases near end-of-travel.","test":"Measure torque versus angle and speed.","contrary_outcome":"Damping lacks angular selectivity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0870","id":"S1-0870","volume":"900","title":"A porous splash guard should redirect liquid downward while venting displaced air sideways.","prediction":"A porous splash guard should redirect liquid downward while venting displaced air sideways.","test":"Measure spray and backpressure.","contrary":"Air venting permits equal spray escape.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0870","hypothesis":"A porous splash guard should redirect liquid downward while venting displaced air sideways.","prediction":"A porous splash guard should redirect liquid downward while venting displaced air sideways.","test":"Measure spray and backpressure.","contrary_outcome":"Air venting permits equal spray escape.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0871","id":"S1-0871","volume":"900","title":"A flexible impeller blade should reduce startup torque through temporary flattening.","prediction":"A flexible impeller blade should reduce startup torque through temporary flattening.","test":"Measure startup torque and final flow.","contrary":"Flattening prevents useful pumping.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0871","hypothesis":"A flexible impeller blade should reduce startup torque through temporary flattening.","prediction":"A flexible impeller blade should reduce startup torque through temporary flattening.","test":"Measure startup torque and final flow.","contrary_outcome":"Flattening prevents useful pumping.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0872","id":"S1-0872","volume":"900","title":"A capillary stop network should encode a pressure history as a sequence of filled chambers.","prediction":"A capillary stop network should encode a pressure history as a sequence of filled chambers.","test":"Apply known pulse sequences.","contrary":"Different histories produce identical filling.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0872","hypothesis":"A capillary stop network should encode a pressure history as a sequence of filled chambers.","prediction":"A capillary stop network should encode a pressure history as a sequence of filled chambers.","test":"Apply known pulse sequences.","contrary_outcome":"Different histories produce identical filling.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0872","hypothesis":"A capillary stop network should encode a pressure history as a sequence of filled chambers.","prediction":"A capillary stop network should encode a pressure history as a sequence of filled chambers.","test":"Apply known pulse sequences.","contrary_outcome":"Different histories produce identical filling.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":87,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A capillary stop network encode a pressure history as a sequence of filled chambers. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0873","id":"S1-0873","volume":"900","title":"A submerged flexible ramp should direct particles toward a collector without trapping liquid vortices.","prediction":"A submerged flexible ramp should direct particles toward a collector without trapping liquid vortices.","test":"Track inert tracers.","contrary":"Persistent vortices prevent collection.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0873","hypothesis":"A submerged flexible ramp should direct particles toward a collector without trapping liquid vortices.","prediction":"A submerged flexible ramp should direct particles toward a collector without trapping liquid vortices.","test":"Track inert tracers.","contrary_outcome":"Persistent vortices prevent collection.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0874","id":"S1-0874","volume":"900","title":"A floating ring valve should stabilize drainage level against changes in downstream suction.","prediction":"A floating ring valve should stabilize drainage level against changes in downstream suction.","test":"Measure level over suction range.","contrary":"Suction dominates level.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0874","hypothesis":"A floating ring valve should stabilize drainage level against changes in downstream suction.","prediction":"A floating ring valve should stabilize drainage level against changes in downstream suction.","test":"Measure level over suction range.","contrary_outcome":"Suction dominates level.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0875","id":"S1-0875","volume":"900","title":"A compliant wetting surface should detach droplets under mild vibration through synchronized curvature change.","prediction":"A compliant wetting surface should detach droplets under mild vibration through synchronized curvature change.","test":"Measure release threshold.","contrary":"Motion adds no release benefit.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0875","hypothesis":"A compliant wetting surface should detach droplets under mild vibration through synchronized curvature change.","prediction":"A compliant wetting surface should detach droplets under mild vibration through synchronized curvature change.","test":"Measure release threshold.","contrary_outcome":"Motion adds no release benefit.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0876","id":"S1-0876","volume":"900","title":"A narrow gas cushion should reduce liquid impact pressure while avoiding delayed secondary impact.","prediction":"A narrow gas cushion should reduce liquid impact pressure while avoiding delayed secondary impact.","test":"Measure complete force histories.","contrary":"Secondary peak erases benefit.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0876","hypothesis":"A narrow gas cushion should reduce liquid impact pressure while avoiding delayed secondary impact.","prediction":"A narrow gas cushion should reduce liquid impact pressure while avoiding delayed secondary impact.","test":"Measure complete force histories.","contrary_outcome":"Secondary peak erases benefit.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0877","id":"S1-0877","volume":"900","title":"A capillary-fed liquid seal should repair a small scratch through preferential replenishment.","prediction":"A capillary-fed liquid seal should repair a small scratch through preferential replenishment.","test":"Scratch controlled surfaces and measure leakage.","contrary":"Scratch remains a leak path.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0877","hypothesis":"A capillary-fed liquid seal should repair a small scratch through preferential replenishment.","prediction":"A capillary-fed liquid seal should repair a small scratch through preferential replenishment.","test":"Scratch controlled surfaces and measure leakage.","contrary_outcome":"Scratch remains a leak path.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0878","id":"S1-0878","volume":"900","title":"A rotating baffle should reverse secondary circulation when its phase relative to a pulsatile flow changes.","prediction":"A rotating baffle should reverse secondary circulation when its phase relative to a pulsatile flow changes.","test":"Measure tracer circulation.","contrary":"Phase does not reverse circulation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0878","hypothesis":"A rotating baffle should reverse secondary circulation when its phase relative to a pulsatile flow changes.","prediction":"A rotating baffle should reverse secondary circulation when its phase relative to a pulsatile flow changes.","test":"Measure tracer circulation.","contrary_outcome":"Phase does not reverse circulation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0879","id":"S1-0879","volume":"900","title":"A flexible outlet tube should maintain discharge location during reservoir tilt through buoyant positioning.","prediction":"A flexible outlet tube should maintain discharge location during reservoir tilt through buoyant positioning.","test":"Measure jet landing point.","contrary":"Point shifts as in rigid tubes.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0879","hypothesis":"A flexible outlet tube should maintain discharge location during reservoir tilt through buoyant positioning.","prediction":"A flexible outlet tube should maintain discharge location during reservoir tilt through buoyant positioning.","test":"Measure jet landing point.","contrary_outcome":"Point shifts as in rigid tubes.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0880","id":"S1-0880","volume":"900","title":"A porous sidewall should absorb a concentration pulse temporarily and reduce peak breakthrough without chemical adsorption.","prediction":"A porous sidewall should absorb a concentration pulse temporarily and reduce peak breakthrough without chemical adsorption.","test":"Measure inert tracer curves.","contrary":"Peak reduction equals dilution alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0880","hypothesis":"A porous sidewall should absorb a concentration pulse temporarily and reduce peak breakthrough without chemical adsorption.","prediction":"A porous sidewall should absorb a concentration pulse temporarily and reduce peak breakthrough without chemical adsorption.","test":"Measure inert tracer curves.","contrary_outcome":"Peak reduction equals dilution alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0881","id":"S1-0881","volume":"900","title":"A capillary nozzle array should stop dripping collectively through a shared elastic pressure reference.","prediction":"A capillary nozzle array should stop dripping collectively through a shared elastic pressure reference.","test":"Measure post-stop drops.","contrary":"One nozzle continues leaking.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0881","hypothesis":"A capillary nozzle array should stop dripping collectively through a shared elastic pressure reference.","prediction":"A capillary nozzle array should stop dripping collectively through a shared elastic pressure reference.","test":"Measure post-stop drops.","contrary_outcome":"One nozzle continues leaking.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0882","id":"S1-0882","volume":"900","title":"A submerged hinged cup should sample a fixed volume only after flow exceeds a threshold.","prediction":"A submerged hinged cup should sample a fixed volume only after flow exceeds a threshold.","test":"Weigh collected samples.","contrary":"Sampling varies with exposure duration.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0882","hypothesis":"A submerged hinged cup should sample a fixed volume only after flow exceeds a threshold.","prediction":"A submerged hinged cup should sample a fixed volume only after flow exceeds a threshold.","test":"Weigh collected samples.","contrary_outcome":"Sampling varies with exposure duration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0883","id":"S1-0883","volume":"900","title":"A compliant microchannel should detect particle passage through a resolvable wall-displacement pulse.","prediction":"A compliant microchannel should detect particle passage through a resolvable wall-displacement pulse.","test":"Track particles and displacement.","contrary":"Pulses remain below noise.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0883","hypothesis":"A compliant microchannel should detect particle passage through a resolvable wall-displacement pulse.","prediction":"A compliant microchannel should detect particle passage through a resolvable wall-displacement pulse.","test":"Track particles and displacement.","contrary_outcome":"Pulses remain below noise.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0883","hypothesis":"A compliant microchannel should detect particle passage through a resolvable wall-displacement pulse.","prediction":"A compliant microchannel should detect particle passage through a resolvable wall-displacement pulse.","test":"Track particles and displacement.","contrary_outcome":"Pulses remain below noise.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":88,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A compliant microchannel detect particle passage through a resolvable wall-displacement pulse. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0884","id":"S1-0884","volume":"900","title":"A liquid bridge should align two loose plates rotationally when their edges are geometrically keyed.","prediction":"A liquid bridge should align two loose plates rotationally when their edges are geometrically keyed.","test":"Measure alignment torque.","contrary":"Multiple ambiguous orientations remain.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0884","hypothesis":"A liquid bridge should align two loose plates rotationally when their edges are geometrically keyed.","prediction":"A liquid bridge should align two loose plates rotationally when their edges are geometrically keyed.","test":"Measure alignment torque.","contrary_outcome":"Multiple ambiguous orientations remain.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0885","id":"S1-0885","volume":"900","title":"A passive siphon breaker should trigger only when liquid falls below a prescribed level despite pressure pulsation.","prediction":"A passive siphon breaker should trigger only when liquid falls below a prescribed level despite pressure pulsation.","test":"Measure break level.","contrary":"Pulses cause premature breaking.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0885","hypothesis":"A passive siphon breaker should trigger only when liquid falls below a prescribed level despite pressure pulsation.","prediction":"A passive siphon breaker should trigger only when liquid falls below a prescribed level despite pressure pulsation.","test":"Measure break level.","contrary_outcome":"Pulses cause premature breaking.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0886","id":"S1-0886","volume":"900","title":"A flexible flow divider should minimize unequal branch residence times after one outlet resistance changes.","prediction":"A flexible flow divider should minimize unequal branch residence times after one outlet resistance changes.","test":"Measure tracer transit.","contrary":"Feedback worsens inequality.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0886","hypothesis":"A flexible flow divider should minimize unequal branch residence times after one outlet resistance changes.","prediction":"A flexible flow divider should minimize unequal branch residence times after one outlet resistance changes.","test":"Measure tracer transit.","contrary_outcome":"Feedback worsens inequality.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0887","id":"S1-0887","volume":"900","title":"A capillary collector should preserve droplet arrival order through sequential compartment filling.","prediction":"A capillary collector should preserve droplet arrival order through sequential compartment filling.","test":"Apply labeled inert dye droplets.","contrary":"Order is scrambled by mixing.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0887","hypothesis":"A capillary collector should preserve droplet arrival order through sequential compartment filling.","prediction":"A capillary collector should preserve droplet arrival order through sequential compartment filling.","test":"Apply labeled inert dye droplets.","contrary_outcome":"Order is scrambled by mixing.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0888","id":"S1-0888","volume":"900","title":"A submerged porous plate should suppress rising-bubble coalescence by redistributing local gas pressure.","prediction":"A submerged porous plate should suppress rising-bubble coalescence by redistributing local gas pressure.","test":"Measure bubble distributions.","contrary":"Coalescence increases.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0888","hypothesis":"A submerged porous plate should suppress rising-bubble coalescence by redistributing local gas pressure.","prediction":"A submerged porous plate should suppress rising-bubble coalescence by redistributing local gas pressure.","test":"Measure bubble distributions.","contrary_outcome":"Coalescence increases.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0889","id":"S1-0889","volume":"900","title":"A buoyant seal should close a leak from below as liquid level rises without trapping excess gas.","prediction":"A buoyant seal should close a leak from below as liquid level rises without trapping excess gas.","test":"Measure leakage and gas volume.","contrary":"Closure requires large trapped gas.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0889","hypothesis":"A buoyant seal should close a leak from below as liquid level rises without trapping excess gas.","prediction":"A buoyant seal should close a leak from below as liquid level rises without trapping excess gas.","test":"Measure leakage and gas volume.","contrary_outcome":"Closure requires large trapped gas.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0890","id":"S1-0890","volume":"900","title":"A compliant flume wall should reveal flow instability through a mode transition before visible surface waves.","prediction":"A compliant flume wall should reveal flow instability through a mode transition before visible surface waves.","test":"Measure wall spectra and wave onset.","contrary":"Transition occurs only after waves.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0890","hypothesis":"A compliant flume wall should reveal flow instability through a mode transition before visible surface waves.","prediction":"A compliant flume wall should reveal flow instability through a mode transition before visible surface waves.","test":"Measure wall spectra and wave onset.","contrary_outcome":"Transition occurs only after waves.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0891","id":"S1-0891","volume":"900","title":"A capillary break should isolate evaporation-induced pressure noise between adjacent reservoirs.","prediction":"A capillary break should isolate evaporation-induced pressure noise between adjacent reservoirs.","test":"Measure pressure correlations.","contrary":"Noise remains strongly correlated.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0891","hypothesis":"A capillary break should isolate evaporation-induced pressure noise between adjacent reservoirs.","prediction":"A capillary break should isolate evaporation-induced pressure noise between adjacent reservoirs.","test":"Measure pressure correlations.","contrary_outcome":"Noise remains strongly correlated.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0892","id":"S1-0892","volume":"900","title":"A self-rotating drain insert should reduce sediment accumulation through flow-driven sweeping.","prediction":"A self-rotating drain insert should reduce sediment accumulation through flow-driven sweeping.","test":"Weigh retained inert sediment.","contrary":"Rotation stalls or increases deposits.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0892","hypothesis":"A self-rotating drain insert should reduce sediment accumulation through flow-driven sweeping.","prediction":"A self-rotating drain insert should reduce sediment accumulation through flow-driven sweeping.","test":"Weigh retained inert sediment.","contrary_outcome":"Rotation stalls or increases deposits.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0893","id":"S1-0893","volume":"900","title":"A flexible jet target should recover more fluid after impact by matching its deformation timescale to droplet arrival.","prediction":"A flexible jet target should recover more fluid after impact by matching its deformation timescale to droplet arrival.","test":"Measure collected fraction.","contrary":"Timing matching yields no improvement.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0893","hypothesis":"A flexible jet target should recover more fluid after impact by matching its deformation timescale to droplet arrival.","prediction":"A flexible jet target should recover more fluid after impact by matching its deformation timescale to droplet arrival.","test":"Measure collected fraction.","contrary_outcome":"Timing matching yields no improvement.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0894","id":"S1-0894","volume":"900","title":"A liquid-filled beam should redistribute internal mass during bending and increase its recovery torque.","prediction":"A liquid-filled beam should redistribute internal mass during bending and increase its recovery torque.","test":"Measure torque and liquid position.","contrary":"Redistribution reduces recovery.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0894","hypothesis":"A liquid-filled beam should redistribute internal mass during bending and increase its recovery torque.","prediction":"A liquid-filled beam should redistribute internal mass during bending and increase its recovery torque.","test":"Measure torque and liquid position.","contrary_outcome":"Redistribution reduces recovery.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0894","hypothesis":"A liquid-filled beam should redistribute internal mass during bending and increase its recovery torque.","prediction":"A liquid-filled beam should redistribute internal mass during bending and increase its recovery torque.","test":"Measure torque and liquid position.","contrary_outcome":"Redistribution reduces recovery.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":89,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A liquid-filled beam redistribute internal mass during bending and increase its recovery torque. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0895","id":"S1-0895","volume":"900","title":"A porous inlet collar should delay vortex ingestion by smoothing radial surface inflow.","prediction":"A porous inlet collar should delay vortex ingestion by smoothing radial surface inflow.","test":"Measure critical drainage depth.","contrary":"Critical depth is unchanged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0895","hypothesis":"A porous inlet collar should delay vortex ingestion by smoothing radial surface inflow.","prediction":"A porous inlet collar should delay vortex ingestion by smoothing radial surface inflow.","test":"Measure critical drainage depth.","contrary_outcome":"Critical depth is unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0896","id":"S1-0896","volume":"900","title":"A capillary splitter should reject a contaminated leading droplet using its altered advancing contact angle.","prediction":"A capillary splitter should reject a contaminated leading droplet using its altered advancing contact angle.","test":"Test controlled inert contamination.","contrary":"Branch selection is not contamination-specific.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0896","hypothesis":"A capillary splitter should reject a contaminated leading droplet using its altered advancing contact angle.","prediction":"A capillary splitter should reject a contaminated leading droplet using its altered advancing contact angle.","test":"Test controlled inert contamination.","contrary_outcome":"Branch selection is not contamination-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0897","id":"S1-0897","volume":"900","title":"A compliant overflow reservoir should detect an intermittent outlet leak through asynchronous wall relaxation between inflow pulses.","prediction":"A compliant overflow reservoir should detect an intermittent outlet leak through asynchronous wall relaxation between inflow pulses.","test":"Introduce calibrated leaks and measure shape.","contrary":"Relaxation cannot distinguish leakage from normal discharge.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0897","hypothesis":"A compliant overflow reservoir should detect an intermittent outlet leak through asynchronous wall relaxation between inflow pulses.","prediction":"A compliant overflow reservoir should detect an intermittent outlet leak through asynchronous wall relaxation between inflow pulses.","test":"Introduce calibrated leaks and measure shape.","contrary_outcome":"Relaxation cannot distinguish leakage from normal discharge.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0898","id":"S1-0898","volume":"900","title":"A floating vane should identify shear direction beneath an apparently stationary liquid surface.","prediction":"A floating vane should identify shear direction beneath an apparently stationary liquid surface.","test":"Compare orientation with velocimetry.","contrary":"Surface effects dominate orientation.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0898","hypothesis":"A floating vane should identify shear direction beneath an apparently stationary liquid surface.","prediction":"A floating vane should identify shear direction beneath an apparently stationary liquid surface.","test":"Compare orientation with velocimetry.","contrary_outcome":"Surface effects dominate orientation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0899","id":"S1-0899","volume":"900","title":"A narrow liquid seal should tolerate repeated small pressure reversals through an elastic retaining rim.","prediction":"A narrow liquid seal should tolerate repeated small pressure reversals through an elastic retaining rim.","test":"Measure cycle-to-failure.","contrary":"Rim does not extend seal life.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0899","hypothesis":"A narrow liquid seal should tolerate repeated small pressure reversals through an elastic retaining rim.","prediction":"A narrow liquid seal should tolerate repeated small pressure reversals through an elastic retaining rim.","test":"Measure cycle-to-failure.","contrary_outcome":"Rim does not extend seal life.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900--S1-0900","id":"S1-0900","volume":"900","title":"A passive flow-memory device should reset after complete drying and reproduce its original switching sequence.","prediction":"A passive flow-memory device should reset after complete drying and reproduce its original switching sequence.","test":"Cycle filling and drying.","contrary":"Residual deposits prevent reproducible reset.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900/Hypotheses.json","original":{"id":"S1-0900","hypothesis":"A passive flow-memory device should reset after complete drying and reproduce its original switching sequence.","prediction":"A passive flow-memory device should reset after complete drying and reproduce its original switching sequence.","test":"Cycle filling and drying.","contrary_outcome":"Residual deposits prevent reproducible reset.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion"},"lead":{"id":"S1-0900","hypothesis":"A passive flow-memory device should reset after complete drying and reproduce its original switching sequence.","prediction":"A passive flow-memory device should reset after complete drying and reproduce its original switching sequence.","test":"Cycle filling and drying.","contrary_outcome":"Residual deposits prevent reproducible reset.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, not Cartesian expansion","selection_rank":90,"selection_basis":"Subjective priority: interpretable intervention, observable endpoint, accessible benchtop control; retained to span mechanisms. Rank is editorial, not calculated probability.","query":"A passive flow-memory device reset after complete drying and reproduce its original switching sequence. experimental mechanism"},"dossier":null,"selection_source":"sources/90/Selected90.json","dossier_source":"sources/9/Selected9.json"},{"uid":"900v2--S2-0001","id":"S2-0001","volume":"900v2","title":"A severed fungal cord will discharge elastic recoil before its internal liquid pressure equilibrates.","prediction":"A severed fungal cord will discharge elastic recoil before its internal liquid pressure equilibrates.","test":"Image cut displacement and pressure-sensitive fluorescence at millisecond resolution.","contrary":"Recoil begins only after pressure equilibration.","layers":[1,2],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0001","prediction":"A severed fungal cord will discharge elastic recoil before its internal liquid pressure equilibrates.","feasible_test":"Image cut displacement and pressure-sensitive fluorescence at millisecond resolution.","contrary_outcome":"Recoil begins only after pressure equilibration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0001","prediction":"A severed fungal cord will discharge elastic recoil before its internal liquid pressure equilibrates.","feasible_test":"Image cut displacement and pressure-sensitive fluorescence at millisecond resolution.","contrary_outcome":"Recoil begins only after pressure equilibration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Recoil and pressure can be temporally separated.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0002","id":"S2-0002","volume":"900v2","title":"A root hair wrapped around a glass fiber will retain torsional strain after plasmolysis.","prediction":"A root hair wrapped around a glass fiber will retain torsional strain after plasmolysis.","test":"Measure fiber torque before and after controlled osmotic collapse.","contrary":"Torque vanishes with turgor within instrumental uncertainty.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0002","prediction":"A root hair wrapped around a glass fiber will retain torsional strain after plasmolysis.","feasible_test":"Measure fiber torque before and after controlled osmotic collapse.","contrary_outcome":"Torque vanishes with turgor within instrumental uncertainty.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0002","prediction":"A root hair wrapped around a glass fiber will retain torsional strain after plasmolysis.","feasible_test":"Measure fiber torque before and after controlled osmotic collapse.","contrary_outcome":"Torque vanishes with turgor within instrumental uncertainty.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Torque survives a decisive turgor-removal intervention.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0003","id":"S2-0003","volume":"900v2","title":"Dew formation on a detached leaf will first accelerate where subsurface veins interrupt thermal diffusion.","prediction":"Dew formation on a detached leaf will first accelerate where subsurface veins interrupt thermal diffusion.","test":"Register infrared cooling and droplet nucleation with transmitted vein images.","contrary":"Nucleation follows surface roughness alone after temperature adjustment.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0003","prediction":"Dew formation on a detached leaf will first accelerate where subsurface veins interrupt thermal diffusion.","feasible_test":"Register infrared cooling and droplet nucleation with transmitted vein images.","contrary_outcome":"Nucleation follows surface roughness alone after temperature adjustment.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0003","prediction":"Dew formation on a detached leaf will first accelerate where subsurface veins interrupt thermal diffusion.","feasible_test":"Register infrared cooling and droplet nucleation with transmitted vein images.","contrary_outcome":"Nucleation follows surface roughness alone after temperature adjustment.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Registered vein and temperature maps permit confound adjustment.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0004","id":"S2-0004","volume":"900v2","title":"A dry moss cushion will transmit a hydration front through capillary bridges before individual leaves unfold.","prediction":"A dry moss cushion will transmit a hydration front through capillary bridges before individual leaves unfold.","test":"Track dyed water and leaf angles in simultaneous imaging.","contrary":"Unfolding consistently precedes bridge-mediated transport.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0004","prediction":"A dry moss cushion will transmit a hydration front through capillary bridges before individual leaves unfold.","feasible_test":"Track dyed water and leaf angles in simultaneous imaging.","contrary_outcome":"Unfolding consistently precedes bridge-mediated transport.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0004","prediction":"A dry moss cushion will transmit a hydration front through capillary bridges before individual leaves unfold.","feasible_test":"Track dyed water and leaf angles in simultaneous imaging.","contrary_outcome":"Unfolding consistently precedes bridge-mediated transport.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Capillary-front arrival and unfolding have separable timestamps.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0005","id":"S2-0005","volume":"900v2","title":"A seed-coat crack arrested during drying will reopen at a lower strain after rehydration without further crack growth.","prediction":"A seed-coat crack arrested during drying will reopen at a lower strain after rehydration without further crack growth.","test":"Cycle isolated coat strips while measuring crack tips and force.","contrary":"Reopening threshold is unchanged after geometry matching.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0005","prediction":"A seed-coat crack arrested during drying will reopen at a lower strain after rehydration without further crack growth.","feasible_test":"Cycle isolated coat strips while measuring crack tips and force.","contrary_outcome":"Reopening threshold is unchanged after geometry matching.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0005","prediction":"A seed-coat crack arrested during drying will reopen at a lower strain after rehydration without further crack growth.","feasible_test":"Cycle isolated coat strips while measuring crack tips and force.","contrary_outcome":"Reopening threshold is unchanged after geometry matching.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Repeated loading tests a specific mechanical memory.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0006","id":"S2-0006","volume":"900v2","title":"A fungal spore chain will exhibit sequential mechanical release because detaching one spore changes neighboring stalk tension.","prediction":"A fungal spore chain will exhibit sequential mechanical release because detaching one spore changes neighboring stalk tension.","test":"Apply calibrated lateral force to one spore and image adjacent release thresholds.","contrary":"Neighbor thresholds remain unchanged after the first release.","layers":[1,2],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0006","prediction":"A fungal spore chain will exhibit sequential mechanical release because detaching one spore changes neighboring stalk tension.","feasible_test":"Apply calibrated lateral force to one spore and image adjacent release thresholds.","contrary_outcome":"Neighbor thresholds remain unchanged after the first release.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0006","prediction":"A fungal spore chain will exhibit sequential mechanical release because detaching one spore changes neighboring stalk tension.","feasible_test":"Apply calibrated lateral force to one spore and image adjacent release thresholds.","contrary_outcome":"Neighbor thresholds remain unchanged after the first release.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Neighbor release provides a within-chain causal contrast.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0007","id":"S2-0007","volume":"900v2","title":"A cellulose ribbon with one permanently wet edge will develop a localized torsional hinge rather than uniform curvature.","prediction":"A cellulose ribbon with one permanently wet edge will develop a localized torsional hinge rather than uniform curvature.","test":"Map three-dimensional shape and local water content under fixed edge hydration.","contrary":"Curvature remains distributed uniformly along the ribbon.","layers":[1,2],"categories":["biology","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0007","prediction":"A cellulose ribbon with one permanently wet edge will develop a localized torsional hinge rather than uniform curvature.","feasible_test":"Map three-dimensional shape and local water content under fixed edge hydration.","contrary_outcome":"Curvature remains distributed uniformly along the ribbon.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0007","prediction":"A cellulose ribbon with one permanently wet edge will develop a localized torsional hinge rather than uniform curvature.","feasible_test":"Map three-dimensional shape and local water content under fixed edge hydration.","contrary_outcome":"Curvature remains distributed uniformly along the ribbon.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Local hydration and torsion can be imaged simultaneously.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0008","id":"S2-0008","volume":"900v2","title":"An isolated pinecone scale will show a delayed bend reversal when its two faces exchange moisture at different rates.","prediction":"An isolated pinecone scale will show a delayed bend reversal when its two faces exchange moisture at different rates.","test":"Measure mass and curvature during a humidity step and its reversal.","contrary":"Bending remains monotonic through both transitions.","layers":[1,2,3],"categories":["biology","anomalies","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0008","prediction":"An isolated pinecone scale will show a delayed bend reversal when its two faces exchange moisture at different rates.","feasible_test":"Measure mass and curvature during a humidity step and its reversal.","contrary_outcome":"Bending remains monotonic through both transitions.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0008","prediction":"An isolated pinecone scale will show a delayed bend reversal when its two faces exchange moisture at different rates.","feasible_test":"Measure mass and curvature during a humidity step and its reversal.","contrary_outcome":"Bending remains monotonic through both transitions.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Passive motion allows face-specific hydraulic perturbation.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":{"id":"S2-0008","prediction":"An isolated pinecone scale will show a delayed bend reversal when its two faces exchange moisture at different rates.","feasible_test":"Measure mass and curvature during a humidity step and its reversal.","contrary_outcome":"Bending remains monotonic through both transitions.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Passive motion allows face-specific hydraulic perturbation.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability","dossier":"S2-0008_dossier.md","final_selection_rationale":"Mechanism can be challenged by an independent observable and a specific intervention; retained to include both plausible proposals and strong counterevidence cases, not a claim of high truth probability."},"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0009","id":"S2-0009","volume":"900v2","title":"A trapped air pocket inside a leaf vein analogue will produce a different acoustic response when pinned at a junction than when free in a straight channel.","prediction":"A trapped air pocket inside a leaf vein analogue will produce a different acoustic response when pinned at a junction than when free in a straight channel.","test":"Compare matched bubble volumes using acoustic spectroscopy and microscopy.","contrary":"Junction and straight-channel spectra coincide after geometry correction.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0009","prediction":"A trapped air pocket inside a leaf vein analogue will produce a different acoustic response when pinned at a junction than when free in a straight channel.","feasible_test":"Compare matched bubble volumes using acoustic spectroscopy and microscopy.","contrary_outcome":"Junction and straight-channel spectra coincide after geometry correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0009","prediction":"A trapped air pocket inside a leaf vein analogue will produce a different acoustic response when pinned at a junction than when free in a straight channel.","feasible_test":"Compare matched bubble volumes using acoustic spectroscopy and microscopy.","contrary_outcome":"Junction and straight-channel spectra coincide after geometry correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Matched bubble volumes isolate junction pinning.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0010","id":"S2-0010","volume":"900v2","title":"A bacterial cellulose pellicle will arrest a drying crack when fibers rotate into the crack-tip tensile direction.","prediction":"A bacterial cellulose pellicle will arrest a drying crack when fibers rotate into the crack-tip tensile direction.","test":"Combine polarized imaging and crack tracking in cell-free dried pellicles.","contrary":"Arrest occurs without measurable local fiber rotation.","layers":[1,2],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0010","prediction":"A bacterial cellulose pellicle will arrest a drying crack when fibers rotate into the crack-tip tensile direction.","feasible_test":"Combine polarized imaging and crack tracking in cell-free dried pellicles.","contrary_outcome":"Arrest occurs without measurable local fiber rotation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0010","prediction":"A bacterial cellulose pellicle will arrest a drying crack when fibers rotate into the crack-tip tensile direction.","feasible_test":"Combine polarized imaging and crack tracking in cell-free dried pellicles.","contrary_outcome":"Arrest occurs without measurable local fiber rotation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Fiber orientation provides a proposed crack-arrest mediator.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0011","id":"S2-0011","volume":"900v2","title":"A pollen-free flower petal will change its angular scattering pattern before visible wilting as internal air spaces collapse.","prediction":"A pollen-free flower petal will change its angular scattering pattern before visible wilting as internal air spaces collapse.","test":"Measure angle-resolved scattering and microtomographic void fraction during dehydration.","contrary":"Scattering changes arise only after macroscopic shape collapse.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0011","prediction":"A pollen-free flower petal will change its angular scattering pattern before visible wilting as internal air spaces collapse.","feasible_test":"Measure angle-resolved scattering and microtomographic void fraction during dehydration.","contrary_outcome":"Scattering changes arise only after macroscopic shape collapse.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0011","prediction":"A pollen-free flower petal will change its angular scattering pattern before visible wilting as internal air spaces collapse.","feasible_test":"Measure angle-resolved scattering and microtomographic void fraction during dehydration.","contrary_outcome":"Scattering changes arise only after macroscopic shape collapse.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Scattering and void fraction provide independent observables.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0012","id":"S2-0012","volume":"900v2","title":"A fungal hypha crossing a narrow groove will store bending energy that biases the position of its next branch.","prediction":"A fungal hypha crossing a narrow groove will store bending energy that biases the position of its next branch.","test":"Track branch positions before and after releasing groove contact.","contrary":"Branch placement is independent of measured stored curvature.","layers":[1,2],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0012","prediction":"A fungal hypha crossing a narrow groove will store bending energy that biases the position of its next branch.","feasible_test":"Track branch positions before and after releasing groove contact.","contrary_outcome":"Branch placement is independent of measured stored curvature.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0012","prediction":"A fungal hypha crossing a narrow groove will store bending energy that biases the position of its next branch.","feasible_test":"Track branch positions before and after releasing groove contact.","contrary_outcome":"Branch placement is independent of measured stored curvature.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Mechanical release can test whether curvature predicts branching.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0013","id":"S2-0013","volume":"900v2","title":"A plant cuticle peeled from its support will retain asymmetric gas permeability after mechanical flattening.","prediction":"A plant cuticle peeled from its support will retain asymmetric gas permeability after mechanical flattening.","test":"Measure bidirectional gas transport through the same flattened membrane.","contrary":"Transport becomes reciprocal once the shape is flattened.","layers":[1,2],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0013","prediction":"A plant cuticle peeled from its support will retain asymmetric gas permeability after mechanical flattening.","feasible_test":"Measure bidirectional gas transport through the same flattened membrane.","contrary_outcome":"Transport becomes reciprocal once the shape is flattened.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0013","prediction":"A plant cuticle peeled from its support will retain asymmetric gas permeability after mechanical flattening.","feasible_test":"Measure bidirectional gas transport through the same flattened membrane.","contrary_outcome":"Transport becomes reciprocal once the shape is flattened.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Same-membrane reversal permits reciprocal transport testing.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0014","id":"S2-0014","volume":"900v2","title":"A fern sporangium will lose snap speed when water drainage is restricted even at matched initial curvature.","prediction":"A fern sporangium will lose snap speed when water drainage is restricted even at matched initial curvature.","test":"Measure high-speed release with and without a drainage-blocking inert coating.","contrary":"Snap speed is unchanged after curvature and mass matching.","layers":[1,2,3],"categories":["energy","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0014","prediction":"A fern sporangium will lose snap speed when water drainage is restricted even at matched initial curvature.","feasible_test":"Measure high-speed release with and without a drainage-blocking inert coating.","contrary_outcome":"Snap speed is unchanged after curvature and mass matching.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0014","prediction":"A fern sporangium will lose snap speed when water drainage is restricted even at matched initial curvature.","feasible_test":"Measure high-speed release with and without a drainage-blocking inert coating.","contrary_outcome":"Snap speed is unchanged after curvature and mass matching.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"High-speed kinematics exposes an established poroelastic alternative.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":{"id":"S2-0014","prediction":"A fern sporangium will lose snap speed when water drainage is restricted even at matched initial curvature.","feasible_test":"Measure high-speed release with and without a drainage-blocking inert coating.","contrary_outcome":"Snap speed is unchanged after curvature and mass matching.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"High-speed kinematics exposes an established poroelastic alternative.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability","dossier":"S2-0014_dossier.md","final_selection_rationale":"Mechanism can be challenged by an independent observable and a specific intervention; retained to include both plausible proposals and strong counterevidence cases, not a claim of high truth probability."},"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0015","id":"S2-0015","volume":"900v2","title":"A seed awn touching a rough surface will move farther per humidity cycle when microscopic contact slips occur near peak torque.","prediction":"A seed awn touching a rough surface will move farther per humidity cycle when microscopic contact slips occur near peak torque.","test":"Synchronize torque, contact imaging, and displacement.","contrary":"Step length has no relationship to slip timing.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0015","prediction":"A seed awn touching a rough surface will move farther per humidity cycle when microscopic contact slips occur near peak torque.","feasible_test":"Synchronize torque, contact imaging, and displacement.","contrary_outcome":"Step length has no relationship to slip timing.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0015","prediction":"A seed awn touching a rough surface will move farther per humidity cycle when microscopic contact slips occur near peak torque.","feasible_test":"Synchronize torque, contact imaging, and displacement.","contrary_outcome":"Step length has no relationship to slip timing.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Slip timing can be compared directly with torque.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0016","id":"S2-0016","volume":"900v2","title":"A growing root confined in a compliant sleeve will create a traveling wall-buckling mode before axial growth stalls.","prediction":"A growing root confined in a compliant sleeve will create a traveling wall-buckling mode before axial growth stalls.","test":"Measure sleeve shape and root extension using time-lapse microscopy.","contrary":"Growth stalls without a preceding propagating buckle.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0016","prediction":"A growing root confined in a compliant sleeve will create a traveling wall-buckling mode before axial growth stalls.","feasible_test":"Measure sleeve shape and root extension using time-lapse microscopy.","contrary_outcome":"Growth stalls without a preceding propagating buckle.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0016","prediction":"A growing root confined in a compliant sleeve will create a traveling wall-buckling mode before axial growth stalls.","feasible_test":"Measure sleeve shape and root extension using time-lapse microscopy.","contrary_outcome":"Growth stalls without a preceding propagating buckle.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"A transparent compliant sleeve makes buckling observable.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0017","id":"S2-0017","volume":"900v2","title":"A hydrated lichen section will exhibit anisotropic heat diffusion aligned with internal fungal bundles.","prediction":"A hydrated lichen section will exhibit anisotropic heat diffusion aligned with internal fungal bundles.","test":"Measure directional thermal transients and bundle orientation in sectioned nonliving material.","contrary":"Thermal diffusivity is isotropic after water-content correction.","layers":[1,2],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0017","prediction":"A hydrated lichen section will exhibit anisotropic heat diffusion aligned with internal fungal bundles.","feasible_test":"Measure directional thermal transients and bundle orientation in sectioned nonliving material.","contrary_outcome":"Thermal diffusivity is isotropic after water-content correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0017","prediction":"A hydrated lichen section will exhibit anisotropic heat diffusion aligned with internal fungal bundles.","feasible_test":"Measure directional thermal transients and bundle orientation in sectioned nonliving material.","contrary_outcome":"Thermal diffusivity is isotropic after water-content correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Nonliving sections separate anatomy from metabolic heat.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0018","id":"S2-0018","volume":"900v2","title":"A mechanically opened stomatal pore in an isolated epidermal strip will change local evaporative cooling over a larger area than its own aperture.","prediction":"A mechanically opened stomatal pore in an isolated epidermal strip will change local evaporative cooling over a larger area than its own aperture.","test":"Map infrared temperature while fixing pore geometry mechanically.","contrary":"Cooling remains confined to the aperture at the optical resolution limit.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0018","prediction":"A mechanically opened stomatal pore in an isolated epidermal strip will change local evaporative cooling over a larger area than its own aperture.","feasible_test":"Map infrared temperature while fixing pore geometry mechanically.","contrary_outcome":"Cooling remains confined to the aperture at the optical resolution limit.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0018","prediction":"A mechanically opened stomatal pore in an isolated epidermal strip will change local evaporative cooling over a larger area than its own aperture.","feasible_test":"Map infrared temperature while fixing pore geometry mechanically.","contrary_outcome":"Cooling remains confined to the aperture at the optical resolution limit.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Mechanically fixed apertures isolate an evaporative geometry effect.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0019","id":"S2-0019","volume":"900v2","title":"A hollow reed segment will dissipate bending energy through gas compression when both ends are sealed.","prediction":"A hollow reed segment will dissipate bending energy through gas compression when both ends are sealed.","test":"Measure cyclic mechanical loss before and after reversible venting.","contrary":"Sealing changes neither phase lag nor energy loss.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0019","prediction":"A hollow reed segment will dissipate bending energy through gas compression when both ends are sealed.","feasible_test":"Measure cyclic mechanical loss before and after reversible venting.","contrary_outcome":"Sealing changes neither phase lag nor energy loss.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0019","prediction":"A hollow reed segment will dissipate bending energy through gas compression when both ends are sealed.","feasible_test":"Measure cyclic mechanical loss before and after reversible venting.","contrary_outcome":"Sealing changes neither phase lag nor energy loss.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Reversible venting isolates cavity-gas contribution.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0020","id":"S2-0020","volume":"900v2","title":"A fungal fruiting-body gill will wick condensed water preferentially toward its thicker support junction.","prediction":"A fungal fruiting-body gill will wick condensed water preferentially toward its thicker support junction.","test":"Track droplets on isolated gills held at equal height.","contrary":"Water transport has no directional bias after contact-angle correction.","layers":[1,2],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0020","prediction":"A fungal fruiting-body gill will wick condensed water preferentially toward its thicker support junction.","feasible_test":"Track droplets on isolated gills held at equal height.","contrary_outcome":"Water transport has no directional bias after contact-angle correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0020","prediction":"A fungal fruiting-body gill will wick condensed water preferentially toward its thicker support junction.","feasible_test":"Track droplets on isolated gills held at equal height.","contrary_outcome":"Water transport has no directional bias after contact-angle correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Level gills permit a gravity-controlled wicking test.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0021","id":"S2-0021","volume":"900v2","title":"A wax crystal layer on a leaf replica will resist droplet impalement better after reversible lateral compression.","prediction":"A wax crystal layer on a leaf replica will resist droplet impalement better after reversible lateral compression.","test":"Measure breakthrough pressure while imaging crystal spacing.","contrary":"Compression provides no increase beyond changes in exposed solid fraction.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0021","prediction":"A wax crystal layer on a leaf replica will resist droplet impalement better after reversible lateral compression.","feasible_test":"Measure breakthrough pressure while imaging crystal spacing.","contrary_outcome":"Compression provides no increase beyond changes in exposed solid fraction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0021","prediction":"A wax crystal layer on a leaf replica will resist droplet impalement better after reversible lateral compression.","feasible_test":"Measure breakthrough pressure while imaging crystal spacing.","contrary_outcome":"Compression provides no increase beyond changes in exposed solid fraction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Crystal spacing and breakthrough pressure can be measured independently.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0022","id":"S2-0022","volume":"900v2","title":"A rhizoid mat will keep sediment suspended longer by elastic recoil after a flow pulse ends.","prediction":"A rhizoid mat will keep sediment suspended longer by elastic recoil after a flow pulse ends.","test":"Track sediment and mat motion in a transparent flume.","contrary":"Suspension decay matches rigid-mat controls of equal roughness.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0022","prediction":"A rhizoid mat will keep sediment suspended longer by elastic recoil after a flow pulse ends.","feasible_test":"Track sediment and mat motion in a transparent flume.","contrary_outcome":"Suspension decay matches rigid-mat controls of equal roughness.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0022","prediction":"A rhizoid mat will keep sediment suspended longer by elastic recoil after a flow pulse ends.","feasible_test":"Track sediment and mat motion in a transparent flume.","contrary_outcome":"Suspension decay matches rigid-mat controls of equal roughness.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Rigid geometry controls separate recoil from roughness.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0023","id":"S2-0023","volume":"900v2","title":"A detached leaf's acoustic resonance will reveal midrib delamination before the delamination becomes visible in reflectance.","prediction":"A detached leaf's acoustic resonance will reveal midrib delamination before the delamination becomes visible in reflectance.","test":"Compare vibrational spectra with blinded destructive sectioning.","contrary":"Resonance shifts cannot distinguish delamination from water loss.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0023","prediction":"A detached leaf's acoustic resonance will reveal midrib delamination before the delamination becomes visible in reflectance.","feasible_test":"Compare vibrational spectra with blinded destructive sectioning.","contrary_outcome":"Resonance shifts cannot distinguish delamination from water loss.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0023","prediction":"A detached leaf's acoustic resonance will reveal midrib delamination before the delamination becomes visible in reflectance.","feasible_test":"Compare vibrational spectra with blinded destructive sectioning.","contrary_outcome":"Resonance shifts cannot distinguish delamination from water loss.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Destructive sectioning can validate an early acoustic predictor.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0024","id":"S2-0024","volume":"900v2","title":"A dried fruit valve will release stored energy in two stages if its inner tissue remains partially hydrated.","prediction":"A dried fruit valve will release stored energy in two stages if its inner tissue remains partially hydrated.","test":"Measure force and high-speed shape during humidity-controlled opening.","contrary":"Release is single-stage across verified hydration contrasts.","layers":[1,2],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0024","prediction":"A dried fruit valve will release stored energy in two stages if its inner tissue remains partially hydrated.","feasible_test":"Measure force and high-speed shape during humidity-controlled opening.","contrary_outcome":"Release is single-stage across verified hydration contrasts.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0024","prediction":"A dried fruit valve will release stored energy in two stages if its inner tissue remains partially hydrated.","feasible_test":"Measure force and high-speed shape during humidity-controlled opening.","contrary_outcome":"Release is single-stage across verified hydration contrasts.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Humidity and force measurements resolve staged release.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0025","id":"S2-0025","volume":"900v2","title":"A plant-derived porous membrane will concentrate dissolved solute at fiber crossings during intermittent evaporation.","prediction":"A plant-derived porous membrane will concentrate dissolved solute at fiber crossings during intermittent evaporation.","test":"Map fluorescence around crossings under pulsed and steady equal-loss evaporation.","contrary":"Concentration profiles are indistinguishable after total water-loss matching.","layers":[1,2],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0025","prediction":"A plant-derived porous membrane will concentrate dissolved solute at fiber crossings during intermittent evaporation.","feasible_test":"Map fluorescence around crossings under pulsed and steady equal-loss evaporation.","contrary_outcome":"Concentration profiles are indistinguishable after total water-loss matching.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0025","prediction":"A plant-derived porous membrane will concentrate dissolved solute at fiber crossings during intermittent evaporation.","feasible_test":"Map fluorescence around crossings under pulsed and steady equal-loss evaporation.","contrary_outcome":"Concentration profiles are indistinguishable after total water-loss matching.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Pulsed and steady drying can be matched by water loss.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0026","id":"S2-0026","volume":"900v2","title":"A dead wood vessel network will trap a reproducible residual liquid fraction determined by junction connectivity rather than mean pore diameter.","prediction":"A dead wood vessel network will trap a reproducible residual liquid fraction determined by junction connectivity rather than mean pore diameter.","test":"Image drainage in matched reconstructed networks with distinct connectivity.","contrary":"Residual fractions follow pore diameter and ignore connectivity.","layers":[1,2],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0026","prediction":"A dead wood vessel network will trap a reproducible residual liquid fraction determined by junction connectivity rather than mean pore diameter.","feasible_test":"Image drainage in matched reconstructed networks with distinct connectivity.","contrary_outcome":"Residual fractions follow pore diameter and ignore connectivity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0026","prediction":"A dead wood vessel network will trap a reproducible residual liquid fraction determined by junction connectivity rather than mean pore diameter.","feasible_test":"Image drainage in matched reconstructed networks with distinct connectivity.","contrary_outcome":"Residual fractions follow pore diameter and ignore connectivity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Reconstructed networks isolate connectivity from pore diameter.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0027","id":"S2-0027","volume":"900v2","title":"A cellulose fibril bundle will recover tensile stiffness after rest because interfibril water redistributes away from highly stressed contacts.","prediction":"A cellulose fibril bundle will recover tensile stiffness after rest because interfibril water redistributes away from highly stressed contacts.","test":"Measure stiffness recovery alongside spatial water spectroscopy.","contrary":"Recovery occurs without contact-water redistribution or persists in dry controls.","layers":[1,2],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0027","prediction":"A cellulose fibril bundle will recover tensile stiffness after rest because interfibril water redistributes away from highly stressed contacts.","feasible_test":"Measure stiffness recovery alongside spatial water spectroscopy.","contrary_outcome":"Recovery occurs without contact-water redistribution or persists in dry controls.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0027","prediction":"A cellulose fibril bundle will recover tensile stiffness after rest because interfibril water redistributes away from highly stressed contacts.","feasible_test":"Measure stiffness recovery alongside spatial water spectroscopy.","contrary_outcome":"Recovery occurs without contact-water redistribution or persists in dry controls.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Spatial water measurements test a proposed stiffness-recovery mediator.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0028","id":"S2-0028","volume":"900v2","title":"A fungal mycelium sheet will transmit a local indentation through tensile strands farther than predicted by its bulk elastic modulus.","prediction":"A fungal mycelium sheet will transmit a local indentation through tensile strands farther than predicted by its bulk elastic modulus.","test":"Map displacement and compare a homogeneous continuum fitted independently.","contrary":"Far-field motion agrees with the homogeneous prediction.","layers":[1,2],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0028","prediction":"A fungal mycelium sheet will transmit a local indentation through tensile strands farther than predicted by its bulk elastic modulus.","feasible_test":"Map displacement and compare a homogeneous continuum fitted independently.","contrary_outcome":"Far-field motion agrees with the homogeneous prediction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0028","prediction":"A fungal mycelium sheet will transmit a local indentation through tensile strands farther than predicted by its bulk elastic modulus.","feasible_test":"Map displacement and compare a homogeneous continuum fitted independently.","contrary_outcome":"Far-field motion agrees with the homogeneous prediction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Full-field indentation tests a falsifiable continuum prediction.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0029","id":"S2-0029","volume":"900v2","title":"A seed mucilage halo will delay salt entry more than a neutral tracer of matched diffusivity because fixed charges exclude ions.","prediction":"A seed mucilage halo will delay salt entry more than a neutral tracer of matched diffusivity because fixed charges exclude ions.","test":"Measure salt and neutral tracer profiles in intact halos.","contrary":"Salt enters at the same normalized rate after partition correction.","layers":[1,2,3],"categories":["measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0029","prediction":"A seed mucilage halo will delay salt entry more than a neutral tracer of matched diffusivity because fixed charges exclude ions.","feasible_test":"Measure salt and neutral tracer profiles in intact halos.","contrary_outcome":"Salt enters at the same normalized rate after partition correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0029","prediction":"A seed mucilage halo will delay salt entry more than a neutral tracer of matched diffusivity because fixed charges exclude ions.","feasible_test":"Measure salt and neutral tracer profiles in intact halos.","contrary_outcome":"Salt enters at the same normalized rate after partition correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Neutral tracers and ionic screening challenge electrostatic exclusion.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":{"id":"S2-0029","prediction":"A seed mucilage halo will delay salt entry more than a neutral tracer of matched diffusivity because fixed charges exclude ions.","feasible_test":"Measure salt and neutral tracer profiles in intact halos.","contrary_outcome":"Salt enters at the same normalized rate after partition correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Neutral tracers and ionic screening challenge electrostatic exclusion.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability","dossier":"S2-0029_dossier.md","final_selection_rationale":"Mechanism can be challenged by an independent observable and a specific intervention; retained to include both plausible proposals and strong counterevidence cases, not a claim of high truth probability."},"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0030","id":"S2-0030","volume":"900v2","title":"A dry grass stem will twist under a radial thermal gradient even when humidity is fixed.","prediction":"A dry grass stem will twist under a radial thermal gradient even when humidity is fixed.","test":"Measure torsion under reversed heating direction in sealed dry gas.","contrary":"Twist disappears after removing residual humidity gradients.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0030","prediction":"A dry grass stem will twist under a radial thermal gradient even when humidity is fixed.","feasible_test":"Measure torsion under reversed heating direction in sealed dry gas.","contrary_outcome":"Twist disappears after removing residual humidity gradients.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0030","prediction":"A dry grass stem will twist under a radial thermal gradient even when humidity is fixed.","feasible_test":"Measure torsion under reversed heating direction in sealed dry gas.","contrary_outcome":"Twist disappears after removing residual humidity gradients.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Sealed dry gas removes hygroscopic torsion confounds.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0031","id":"S2-0031","volume":"900v2","title":"A cell-free actin ring tethered sparsely to a membrane will redistribute anchors before undergoing oval collapse.","prediction":"A cell-free actin ring tethered sparsely to a membrane will redistribute anchors before undergoing oval collapse.","test":"Image anchor locations and ring modes while controlling filament turnover.","contrary":"Ovalization precedes anchor redistribution or occurs with immobile anchors equally.","layers":[1,2],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0031","prediction":"A cell-free actin ring tethered sparsely to a membrane will redistribute anchors before undergoing oval collapse.","feasible_test":"Image anchor locations and ring modes while controlling filament turnover.","contrary_outcome":"Ovalization precedes anchor redistribution or occurs with immobile anchors equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0031","prediction":"A cell-free actin ring tethered sparsely to a membrane will redistribute anchors before undergoing oval collapse.","feasible_test":"Image anchor locations and ring modes while controlling filament turnover.","contrary_outcome":"Ovalization precedes anchor redistribution or occurs with immobile anchors equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Anchor mobility can be manipulated independently of ring shape.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0032","id":"S2-0032","volume":"900v2","title":"A lipid tube will develop a stationary radius gradient when membrane-bound enzymes alter curvature only near one end.","prediction":"A lipid tube will develop a stationary radius gradient when membrane-bound enzymes alter curvature only near one end.","test":"Image tube radius and enzyme location while preventing bulk flow.","contrary":"Radius remains uniform despite verified localized enzymatic activity.","layers":[1,2],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0032","prediction":"A lipid tube will develop a stationary radius gradient when membrane-bound enzymes alter curvature only near one end.","feasible_test":"Image tube radius and enzyme location while preventing bulk flow.","contrary_outcome":"Radius remains uniform despite verified localized enzymatic activity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0032","prediction":"A lipid tube will develop a stationary radius gradient when membrane-bound enzymes alter curvature only near one end.","feasible_test":"Image tube radius and enzyme location while preventing bulk flow.","contrary_outcome":"Radius remains uniform despite verified localized enzymatic activity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Localized enzyme activity predicts a spatial radius profile.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0033","id":"S2-0033","volume":"900v2","title":"An encapsulated enzymatic reaction will synchronize two vesicle shape oscillations through exchange of a membrane-permeable product.","prediction":"An encapsulated enzymatic reaction will synchronize two vesicle shape oscillations through exchange of a membrane-permeable product.","test":"Track paired vesicles and compare impermeable-product controls.","contrary":"Oscillations show no excess phase coordination over isolated vesicles.","layers":[1,2],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0033","prediction":"An encapsulated enzymatic reaction will synchronize two vesicle shape oscillations through exchange of a membrane-permeable product.","feasible_test":"Track paired vesicles and compare impermeable-product controls.","contrary_outcome":"Oscillations show no excess phase coordination over isolated vesicles.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0033","prediction":"An encapsulated enzymatic reaction will synchronize two vesicle shape oscillations through exchange of a membrane-permeable product.","feasible_test":"Track paired vesicles and compare impermeable-product controls.","contrary_outcome":"Oscillations show no excess phase coordination over isolated vesicles.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Product permeability provides a specific coupling intervention.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0034","id":"S2-0034","volume":"900v2","title":"A supported lipid membrane containing immobile obstacles will preserve an adsorption pattern after soluble protein is washed away.","prediction":"A supported lipid membrane containing immobile obstacles will preserve an adsorption pattern after soluble protein is washed away.","test":"Track fluorescent protein retention around obstacles after washout.","contrary":"Retention is spatially uniform or explained entirely by direct obstacle binding.","layers":[1,2],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0034","prediction":"A supported lipid membrane containing immobile obstacles will preserve an adsorption pattern after soluble protein is washed away.","feasible_test":"Track fluorescent protein retention around obstacles after washout.","contrary_outcome":"Retention is spatially uniform or explained entirely by direct obstacle binding.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0034","prediction":"A supported lipid membrane containing immobile obstacles will preserve an adsorption pattern after soluble protein is washed away.","feasible_test":"Track fluorescent protein retention around obstacles after washout.","contrary_outcome":"Retention is spatially uniform or explained entirely by direct obstacle binding.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Obstacle binding can be distinguished from diffusion trapping.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0035","id":"S2-0035","volume":"900v2","title":"A DNA origami hinge will exhibit a nonmonotonic closing rate when its charged arms approach within the ion-screening length.","prediction":"A DNA origami hinge will exhibit a nonmonotonic closing rate when its charged arms approach within the ion-screening length.","test":"Measure single-hinge kinetics while independently calibrating electrostatic interaction.","contrary":"Closing kinetics remain monotonic within resolved distances.","layers":[1,2],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0035","prediction":"A DNA origami hinge will exhibit a nonmonotonic closing rate when its charged arms approach within the ion-screening length.","feasible_test":"Measure single-hinge kinetics while independently calibrating electrostatic interaction.","contrary_outcome":"Closing kinetics remain monotonic within resolved distances.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0035","prediction":"A DNA origami hinge will exhibit a nonmonotonic closing rate when its charged arms approach within the ion-screening length.","feasible_test":"Measure single-hinge kinetics while independently calibrating electrostatic interaction.","contrary_outcome":"Closing kinetics remain monotonic within resolved distances.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Single-hinge kinetics permits distance-resolved testing.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0036","id":"S2-0036","volume":"900v2","title":"A coacervate droplet containing a reversible binding scaffold will retain substrate after dilution longer than partition equilibrium predicts.","prediction":"A coacervate droplet containing a reversible binding scaffold will retain substrate after dilution longer than partition equilibrium predicts.","test":"Measure substrate efflux and compare equilibrium partition coefficients.","contrary":"Efflux follows a diffusion model using measured partitioning alone.","layers":[1,2,3],"categories":["measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0036","prediction":"A coacervate droplet containing a reversible binding scaffold will retain substrate after dilution longer than partition equilibrium predicts.","feasible_test":"Measure substrate efflux and compare equilibrium partition coefficients.","contrary_outcome":"Efflux follows a diffusion model using measured partitioning alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0036","prediction":"A coacervate droplet containing a reversible binding scaffold will retain substrate after dilution longer than partition equilibrium predicts.","feasible_test":"Measure substrate efflux and compare equilibrium partition coefficients.","contrary_outcome":"Efflux follows a diffusion model using measured partitioning alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Measured partitioning defines an explicit null release model.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":{"id":"S2-0036","prediction":"A coacervate droplet containing a reversible binding scaffold will retain substrate after dilution longer than partition equilibrium predicts.","feasible_test":"Measure substrate efflux and compare equilibrium partition coefficients.","contrary_outcome":"Efflux follows a diffusion model using measured partitioning alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Measured partitioning defines an explicit null release model.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability","dossier":"S2-0036_dossier.md","final_selection_rationale":"Mechanism can be challenged by an independent observable and a specific intervention; retained to include both plausible proposals and strong counterevidence cases, not a claim of high truth probability."},"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0037","id":"S2-0037","volume":"900v2","title":"An RNA hairpin tethered near a lipid surface will unfold asymmetrically under alternating pulling directions.","prediction":"An RNA hairpin tethered near a lipid surface will unfold asymmetrically under alternating pulling directions.","test":"Use optical tweezers with matched force-loading rates and tether lengths.","contrary":"Unfolding distributions coincide after geometric correction.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0037","prediction":"An RNA hairpin tethered near a lipid surface will unfold asymmetrically under alternating pulling directions.","feasible_test":"Use optical tweezers with matched force-loading rates and tether lengths.","contrary_outcome":"Unfolding distributions coincide after geometric correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0037","prediction":"An RNA hairpin tethered near a lipid surface will unfold asymmetrically under alternating pulling directions.","feasible_test":"Use optical tweezers with matched force-loading rates and tether lengths.","contrary_outcome":"Unfolding distributions coincide after geometric correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Direction reversal tests tether-surface asymmetry.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0038","id":"S2-0038","volume":"900v2","title":"A cell-free protein condensate will form a persistent hollow core when a reaction consumes its scaffold faster at the center than the boundary.","prediction":"A cell-free protein condensate will form a persistent hollow core when a reaction consumes its scaffold faster at the center than the boundary.","test":"Image scaffold and product during spatially resolved catalysis.","contrary":"Droplets shrink uniformly despite the intended reaction profile.","layers":[1,2],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0038","prediction":"A cell-free protein condensate will form a persistent hollow core when a reaction consumes its scaffold faster at the center than the boundary.","feasible_test":"Image scaffold and product during spatially resolved catalysis.","contrary_outcome":"Droplets shrink uniformly despite the intended reaction profile.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0038","prediction":"A cell-free protein condensate will form a persistent hollow core when a reaction consumes its scaffold faster at the center than the boundary.","feasible_test":"Image scaffold and product during spatially resolved catalysis.","contrary_outcome":"Droplets shrink uniformly despite the intended reaction profile.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Reaction and scaffold maps expose hollow-core formation.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0039","id":"S2-0039","volume":"900v2","title":"A synthetic membrane pore with a flexible rim will pass pulsed solute flux more efficiently than steady flux at equal mean pressure.","prediction":"A synthetic membrane pore with a flexible rim will pass pulsed solute flux more efficiently than steady flux at equal mean pressure.","test":"Measure integrated transport while imaging pore deformation.","contrary":"Integrated transport equals the steady-pressure baseline.","layers":[1,2],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0039","prediction":"A synthetic membrane pore with a flexible rim will pass pulsed solute flux more efficiently than steady flux at equal mean pressure.","feasible_test":"Measure integrated transport while imaging pore deformation.","contrary_outcome":"Integrated transport equals the steady-pressure baseline.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0039","prediction":"A synthetic membrane pore with a flexible rim will pass pulsed solute flux more efficiently than steady flux at equal mean pressure.","feasible_test":"Measure integrated transport while imaging pore deformation.","contrary_outcome":"Integrated transport equals the steady-pressure baseline.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Equal-pressure-integral protocols test a nonlinear transport claim.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0040","id":"S2-0040","volume":"900v2","title":"A surface-tethered enzyme will recover activity after reversible unfolding faster when neighboring tethers prevent lateral aggregation.","prediction":"A surface-tethered enzyme will recover activity after reversible unfolding faster when neighboring tethers prevent lateral aggregation.","test":"Measure folding-sensitive fluorescence and catalytic recovery at controlled spacing.","contrary":"Recovery is independent of spacing after substrate access correction.","layers":[1,2],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0040","prediction":"A surface-tethered enzyme will recover activity after reversible unfolding faster when neighboring tethers prevent lateral aggregation.","feasible_test":"Measure folding-sensitive fluorescence and catalytic recovery at controlled spacing.","contrary_outcome":"Recovery is independent of spacing after substrate access correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0040","prediction":"A surface-tethered enzyme will recover activity after reversible unfolding faster when neighboring tethers prevent lateral aggregation.","feasible_test":"Measure folding-sensitive fluorescence and catalytic recovery at controlled spacing.","contrary_outcome":"Recovery is independent of spacing after substrate access correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Spacing controls separate aggregation from substrate access.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0041","id":"S2-0041","volume":"900v2","title":"A rotating magnetic bead inside a vesicle will organize membrane domains at a preferred phase of the rotation cycle.","prediction":"A rotating magnetic bead inside a vesicle will organize membrane domains at a preferred phase of the rotation cycle.","test":"Correlate domain motion with internal flow and bead phase.","contrary":"Domain positions remain phase-independent above thermal noise.","layers":[1,2],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0041","prediction":"A rotating magnetic bead inside a vesicle will organize membrane domains at a preferred phase of the rotation cycle.","feasible_test":"Correlate domain motion with internal flow and bead phase.","contrary_outcome":"Domain positions remain phase-independent above thermal noise.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0041","prediction":"A rotating magnetic bead inside a vesicle will organize membrane domains at a preferred phase of the rotation cycle.","feasible_test":"Correlate domain motion with internal flow and bead phase.","contrary_outcome":"Domain positions remain phase-independent above thermal noise.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Rotation phase creates an unambiguous synchronization observable.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0042","id":"S2-0042","volume":"900v2","title":"A ribozyme trapped inside a porous gel bead will show reaction bursts caused by local product-mediated swelling.","prediction":"A ribozyme trapped inside a porous gel bead will show reaction bursts caused by local product-mediated swelling.","test":"Measure product release and bead radius simultaneously.","contrary":"Product release is smooth or bursts persist without swelling.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0042","prediction":"A ribozyme trapped inside a porous gel bead will show reaction bursts caused by local product-mediated swelling.","feasible_test":"Measure product release and bead radius simultaneously.","contrary_outcome":"Product release is smooth or bursts persist without swelling.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0042","prediction":"A ribozyme trapped inside a porous gel bead will show reaction bursts caused by local product-mediated swelling.","feasible_test":"Measure product release and bead radius simultaneously.","contrary_outcome":"Product release is smooth or bursts persist without swelling.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Product and radius traces test swelling-mediated bursts.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0043","id":"S2-0043","volume":"900v2","title":"A pair of complementary DNA-coated droplets will detach faster under oscillatory shear when bond exchange resonates with the forcing period.","prediction":"A pair of complementary DNA-coated droplets will detach faster under oscillatory shear when bond exchange resonates with the forcing period.","test":"Measure survival curves against independently measured exchange times.","contrary":"Detachment has no period-specific excess beyond peak shear.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0043","prediction":"A pair of complementary DNA-coated droplets will detach faster under oscillatory shear when bond exchange resonates with the forcing period.","feasible_test":"Measure survival curves against independently measured exchange times.","contrary_outcome":"Detachment has no period-specific excess beyond peak shear.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0043","prediction":"A pair of complementary DNA-coated droplets will detach faster under oscillatory shear when bond exchange resonates with the forcing period.","feasible_test":"Measure survival curves against independently measured exchange times.","contrary_outcome":"Detachment has no period-specific excess beyond peak shear.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Independent exchange times predict a shear-period optimum.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0044","id":"S2-0044","volume":"900v2","title":"A reconstituted microtubule bundle will redirect a propagating bend at an abrupt change in crosslink mobility.","prediction":"A reconstituted microtubule bundle will redirect a propagating bend at an abrupt change in crosslink mobility.","test":"Track bending waves across patterned crosslink regions.","contrary":"Transmission and reflection match uniform-mobility controls.","layers":[1,2,3],"categories":["physical"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0044","prediction":"A reconstituted microtubule bundle will redirect a propagating bend at an abrupt change in crosslink mobility.","feasible_test":"Track bending waves across patterned crosslink regions.","contrary_outcome":"Transmission and reflection match uniform-mobility controls.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0044","prediction":"A reconstituted microtubule bundle will redirect a propagating bend at an abrupt change in crosslink mobility.","feasible_test":"Track bending waves across patterned crosslink regions.","contrary_outcome":"Transmission and reflection match uniform-mobility controls.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Patterned crosslink regions permit localized wave-scattering tests.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":{"id":"S2-0044","prediction":"A reconstituted microtubule bundle will redirect a propagating bend at an abrupt change in crosslink mobility.","feasible_test":"Track bending waves across patterned crosslink regions.","contrary_outcome":"Transmission and reflection match uniform-mobility controls.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Patterned crosslink regions permit localized wave-scattering tests.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability","dossier":"S2-0044_dossier.md","final_selection_rationale":"Mechanism can be challenged by an independent observable and a specific intervention; retained to include both plausible proposals and strong counterevidence cases, not a claim of high truth probability."},"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0045","id":"S2-0045","volume":"900v2","title":"A membrane-enclosed phase-separated droplet will migrate away from a locally stiffened membrane patch through curvature energy alone.","prediction":"A membrane-enclosed phase-separated droplet will migrate away from a locally stiffened membrane patch through curvature energy alone.","test":"Photostiffen one membrane patch while tracking droplet position and temperature.","contrary":"Migration vanishes after accounting for illumination-driven flow.","layers":[1,2],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0045","prediction":"A membrane-enclosed phase-separated droplet will migrate away from a locally stiffened membrane patch through curvature energy alone.","feasible_test":"Photostiffen one membrane patch while tracking droplet position and temperature.","contrary_outcome":"Migration vanishes after accounting for illumination-driven flow.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0045","prediction":"A membrane-enclosed phase-separated droplet will migrate away from a locally stiffened membrane patch through curvature energy alone.","feasible_test":"Photostiffen one membrane patch while tracking droplet position and temperature.","contrary_outcome":"Migration vanishes after accounting for illumination-driven flow.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Curvature and flow controls challenge the migration mechanism.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0046","id":"S2-0046","volume":"900v2","title":"A short peptide assembly will retain chirality after its soluble monomer pool is rendered racemic if end exchange is kinetically blocked.","prediction":"A short peptide assembly will retain chirality after its soluble monomer pool is rendered racemic if end exchange is kinetically blocked.","test":"Measure circular dichroism and monomer composition during end-capping and uncapping.","contrary":"Chiral signal follows monomer racemization regardless of end access.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0046","prediction":"A short peptide assembly will retain chirality after its soluble monomer pool is rendered racemic if end exchange is kinetically blocked.","feasible_test":"Measure circular dichroism and monomer composition during end-capping and uncapping.","contrary_outcome":"Chiral signal follows monomer racemization regardless of end access.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0046","prediction":"A short peptide assembly will retain chirality after its soluble monomer pool is rendered racemic if end exchange is kinetically blocked.","feasible_test":"Measure circular dichroism and monomer composition during end-capping and uncapping.","contrary_outcome":"Chiral signal follows monomer racemization regardless of end access.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"End blocking tests kinetic preservation of chirality.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0047","id":"S2-0047","volume":"900v2","title":"A compartmentalized enzyme cascade will reduce intermediate loss when its compartments deform to increase contact area.","prediction":"A compartmentalized enzyme cascade will reduce intermediate loss when its compartments deform to increase contact area.","test":"Compare product yield and contact geometry in deformable and rigid matched compartments.","contrary":"Yield gains disappear after correcting permeability and enzyme loading.","layers":[1,2],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0047","prediction":"A compartmentalized enzyme cascade will reduce intermediate loss when its compartments deform to increase contact area.","feasible_test":"Compare product yield and contact geometry in deformable and rigid matched compartments.","contrary_outcome":"Yield gains disappear after correcting permeability and enzyme loading.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0047","prediction":"A compartmentalized enzyme cascade will reduce intermediate loss when its compartments deform to increase contact area.","feasible_test":"Compare product yield and contact geometry in deformable and rigid matched compartments.","contrary_outcome":"Yield gains disappear after correcting permeability and enzyme loading.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Rigid and deformable compartments isolate contact adaptation.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0048","id":"S2-0048","volume":"900v2","title":"A fluid membrane on a corrugated support will suppress protein clustering at convex ridges by raising the cost of local deformation.","prediction":"A fluid membrane on a corrugated support will suppress protein clustering at convex ridges by raising the cost of local deformation.","test":"Map clusters and curvature with uniform protein density.","contrary":"Clusters show no curvature preference after accessibility correction.","layers":[1,2],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0048","prediction":"A fluid membrane on a corrugated support will suppress protein clustering at convex ridges by raising the cost of local deformation.","feasible_test":"Map clusters and curvature with uniform protein density.","contrary_outcome":"Clusters show no curvature preference after accessibility correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0048","prediction":"A fluid membrane on a corrugated support will suppress protein clustering at convex ridges by raising the cost of local deformation.","feasible_test":"Map clusters and curvature with uniform protein density.","contrary_outcome":"Clusters show no curvature preference after accessibility correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Support curvature permits a spatial clustering contrast.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0049","id":"S2-0049","volume":"900v2","title":"A DNA hydrogel strand will rectify swelling under symmetric salt cycles if one end is mechanically clamped.","prediction":"A DNA hydrogel strand will rectify swelling under symmetric salt cycles if one end is mechanically clamped.","test":"Track directional solvent motion and strain during repeated symmetric cycles.","contrary":"Net motion is zero within drift uncertainty.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0049","prediction":"A DNA hydrogel strand will rectify swelling under symmetric salt cycles if one end is mechanically clamped.","feasible_test":"Track directional solvent motion and strain during repeated symmetric cycles.","contrary_outcome":"Net motion is zero within drift uncertainty.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0049","prediction":"A DNA hydrogel strand will rectify swelling under symmetric salt cycles if one end is mechanically clamped.","feasible_test":"Track directional solvent motion and strain during repeated symmetric cycles.","contrary_outcome":"Net motion is zero within drift uncertainty.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Clamping tests a proposed cyclic swelling rectifier.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0050","id":"S2-0050","volume":"900v2","title":"A light-driven proton gradient in synthetic vesicles will alter their collision coalescence probability before measurable bulk heating.","prediction":"A light-driven proton gradient in synthetic vesicles will alter their collision coalescence probability before measurable bulk heating.","test":"Measure pH, temperature, and fusion events under pulsed illumination.","contrary":"Fusion changes are fully reproduced by matched heating alone.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0050","prediction":"A light-driven proton gradient in synthetic vesicles will alter their collision coalescence probability before measurable bulk heating.","feasible_test":"Measure pH, temperature, and fusion events under pulsed illumination.","contrary_outcome":"Fusion changes are fully reproduced by matched heating alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0050","prediction":"A light-driven proton gradient in synthetic vesicles will alter their collision coalescence probability before measurable bulk heating.","feasible_test":"Measure pH, temperature, and fusion events under pulsed illumination.","contrary_outcome":"Fusion changes are fully reproduced by matched heating alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Temperature monitoring challenges photothermal fusion alternatives.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0051","id":"S2-0051","volume":"900v2","title":"A clay aggregate containing an internal gas pocket will fragment earlier during rapid rewetting because compressed gas opens existing cracks.","prediction":"A clay aggregate containing an internal gas pocket will fragment earlier during rapid rewetting because compressed gas opens existing cracks.","test":"Compare fragmentation and pressure with evacuated matched aggregates.","contrary":"Evacuating gas does not change fragmentation at matched wetting rate.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0051","prediction":"A clay aggregate containing an internal gas pocket will fragment earlier during rapid rewetting because compressed gas opens existing cracks.","feasible_test":"Compare fragmentation and pressure with evacuated matched aggregates.","contrary_outcome":"Evacuating gas does not change fragmentation at matched wetting rate.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0051","prediction":"A clay aggregate containing an internal gas pocket will fragment earlier during rapid rewetting because compressed gas opens existing cracks.","feasible_test":"Compare fragmentation and pressure with evacuated matched aggregates.","contrary_outcome":"Evacuating gas does not change fragmentation at matched wetting rate.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Evacuated aggregates isolate trapped-gas fragmentation.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0052","id":"S2-0052","volume":"900v2","title":"An iron oxide surface with a moving redox boundary will accumulate phosphate at the boundary rather than uniformly across reduced areas.","prediction":"An iron oxide surface with a moving redox boundary will accumulate phosphate at the boundary rather than uniformly across reduced areas.","test":"Map oxidation state and phosphate during controlled electrochemical reduction.","contrary":"Phosphate follows only total reduced surface area.","layers":[1,2],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0052","prediction":"An iron oxide surface with a moving redox boundary will accumulate phosphate at the boundary rather than uniformly across reduced areas.","feasible_test":"Map oxidation state and phosphate during controlled electrochemical reduction.","contrary_outcome":"Phosphate follows only total reduced surface area.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0052","prediction":"An iron oxide surface with a moving redox boundary will accumulate phosphate at the boundary rather than uniformly across reduced areas.","feasible_test":"Map oxidation state and phosphate during controlled electrochemical reduction.","contrary_outcome":"Phosphate follows only total reduced surface area.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Spatial redox mapping tests boundary-localized adsorption.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0053","id":"S2-0053","volume":"900v2","title":"A thin mineral film will develop lateral electrical conductivity before bulk crystallinity becomes detectable during dehydration.","prediction":"A thin mineral film will develop lateral electrical conductivity before bulk crystallinity becomes detectable during dehydration.","test":"Measure in-plane impedance and diffraction simultaneously.","contrary":"Conductivity changes appear only after detectable bulk crystallization.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0053","prediction":"A thin mineral film will develop lateral electrical conductivity before bulk crystallinity becomes detectable during dehydration.","feasible_test":"Measure in-plane impedance and diffraction simultaneously.","contrary_outcome":"Conductivity changes appear only after detectable bulk crystallization.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0053","prediction":"A thin mineral film will develop lateral electrical conductivity before bulk crystallinity becomes detectable during dehydration.","feasible_test":"Measure in-plane impedance and diffraction simultaneously.","contrary_outcome":"Conductivity changes appear only after detectable bulk crystallization.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Simultaneous diffraction challenges a precrystalline conduction claim.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0054","id":"S2-0054","volume":"900v2","title":"A dissolving carbonate grain will emit intermittent acoustic events when internal stress is released at impurity bands.","prediction":"A dissolving carbonate grain will emit intermittent acoustic events when internal stress is released at impurity bands.","test":"Record acoustic emission and image exposed band positions during dissolution.","contrary":"Events have no spatial or temporal relation to band exposure.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0054","prediction":"A dissolving carbonate grain will emit intermittent acoustic events when internal stress is released at impurity bands.","feasible_test":"Record acoustic emission and image exposed band positions during dissolution.","contrary_outcome":"Events have no spatial or temporal relation to band exposure.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0054","prediction":"A dissolving carbonate grain will emit intermittent acoustic events when internal stress is released at impurity bands.","feasible_test":"Record acoustic emission and image exposed band positions during dissolution.","contrary_outcome":"Events have no spatial or temporal relation to band exposure.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Bands and acoustic events can be registered in space.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0055","id":"S2-0055","volume":"900v2","title":"A freeze-thaw cycle will preferentially expel dissolved silica from narrow dead-end pores into connecting channels.","prediction":"A freeze-thaw cycle will preferentially expel dissolved silica from narrow dead-end pores into connecting channels.","test":"Map silica in transparent pore replicas before and after freezing.","contrary":"Redistribution follows melt mixing alone and lacks dead-end enrichment loss.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0055","prediction":"A freeze-thaw cycle will preferentially expel dissolved silica from narrow dead-end pores into connecting channels.","feasible_test":"Map silica in transparent pore replicas before and after freezing.","contrary_outcome":"Redistribution follows melt mixing alone and lacks dead-end enrichment loss.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0055","prediction":"A freeze-thaw cycle will preferentially expel dissolved silica from narrow dead-end pores into connecting channels.","feasible_test":"Map silica in transparent pore replicas before and after freezing.","contrary_outcome":"Redistribution follows melt mixing alone and lacks dead-end enrichment loss.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Transparent dead-end pores permit direct solute tracking.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0056","id":"S2-0056","volume":"900v2","title":"A mineral colloid with a patchy charge distribution will form chains under a salt gradient even when its mean zeta potential is zero.","prediction":"A mineral colloid with a patchy charge distribution will form chains under a salt gradient even when its mean zeta potential is zero.","test":"Image assembly while measuring individual charge heterogeneity and flow.","contrary":"Chains vanish when bulk flow is eliminated or require nonzero mean charge.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0056","prediction":"A mineral colloid with a patchy charge distribution will form chains under a salt gradient even when its mean zeta potential is zero.","feasible_test":"Image assembly while measuring individual charge heterogeneity and flow.","contrary_outcome":"Chains vanish when bulk flow is eliminated or require nonzero mean charge.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0056","prediction":"A mineral colloid with a patchy charge distribution will form chains under a salt gradient even when its mean zeta potential is zero.","feasible_test":"Image assembly while measuring individual charge heterogeneity and flow.","contrary_outcome":"Chains vanish when bulk flow is eliminated or require nonzero mean charge.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Flow markers challenge apparent gradient-induced chain formation.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0057","id":"S2-0057","volume":"900v2","title":"A sulfide-free iron redox gel will generate a transient permeability minimum at the moving oxidation front.","prediction":"A sulfide-free iron redox gel will generate a transient permeability minimum at the moving oxidation front.","test":"Track tracer permeability and oxidation state in a thin gel.","contrary":"Permeability changes remain spatially uniform.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0057","prediction":"A sulfide-free iron redox gel will generate a transient permeability minimum at the moving oxidation front.","feasible_test":"Track tracer permeability and oxidation state in a thin gel.","contrary_outcome":"Permeability changes remain spatially uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0057","prediction":"A sulfide-free iron redox gel will generate a transient permeability minimum at the moving oxidation front.","feasible_test":"Track tracer permeability and oxidation state in a thin gel.","contrary_outcome":"Permeability changes remain spatially uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"A moving front offers a localized permeability contrast.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0058","id":"S2-0058","volume":"900v2","title":"An evaporating brine inside a porous stone will form a salt crust that redirects subsequent vapor escape through previously inactive pores.","prediction":"An evaporating brine inside a porous stone will form a salt crust that redirects subsequent vapor escape through previously inactive pores.","test":"Map vapor flux before and after crust formation.","contrary":"Vapor pathways remain proportional to their initial conductance.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0058","prediction":"An evaporating brine inside a porous stone will form a salt crust that redirects subsequent vapor escape through previously inactive pores.","feasible_test":"Map vapor flux before and after crust formation.","contrary_outcome":"Vapor pathways remain proportional to their initial conductance.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0058","prediction":"An evaporating brine inside a porous stone will form a salt crust that redirects subsequent vapor escape through previously inactive pores.","feasible_test":"Map vapor flux before and after crust formation.","contrary_outcome":"Vapor pathways remain proportional to their initial conductance.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Vapor mapping tests rerouting after crust formation.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0059","id":"S2-0059","volume":"900v2","title":"A manganese oxide film will retain a local redox history as a measurable change in adsorption hysteresis after returning to its original average oxidation state.","prediction":"A manganese oxide film will retain a local redox history as a measurable change in adsorption hysteresis after returning to its original average oxidation state.","test":"Cycle potential and compare adsorption on locally resolved regions.","contrary":"Hysteresis collapses when average oxidation state is restored.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0059","prediction":"A manganese oxide film will retain a local redox history as a measurable change in adsorption hysteresis after returning to its original average oxidation state.","feasible_test":"Cycle potential and compare adsorption on locally resolved regions.","contrary_outcome":"Hysteresis collapses when average oxidation state is restored.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0059","prediction":"A manganese oxide film will retain a local redox history as a measurable change in adsorption hysteresis after returning to its original average oxidation state.","feasible_test":"Cycle potential and compare adsorption on locally resolved regions.","contrary_outcome":"Hysteresis collapses when average oxidation state is restored.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Restored mean oxidation distinguishes local from bulk history.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0060","id":"S2-0060","volume":"900v2","title":"An organic coating on a mineral grain will rupture first where a passing air-water interface changes curvature most rapidly.","prediction":"An organic coating on a mineral grain will rupture first where a passing air-water interface changes curvature most rapidly.","test":"Image coating defects during controlled interface motion.","contrary":"Rupture sites are unrelated to interface curvature change.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0060","prediction":"An organic coating on a mineral grain will rupture first where a passing air-water interface changes curvature most rapidly.","feasible_test":"Image coating defects during controlled interface motion.","contrary_outcome":"Rupture sites are unrelated to interface curvature change.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0060","prediction":"An organic coating on a mineral grain will rupture first where a passing air-water interface changes curvature most rapidly.","feasible_test":"Image coating defects during controlled interface motion.","contrary_outcome":"Rupture sites are unrelated to interface curvature change.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Interface motion can be varied without changing coating chemistry.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0061","id":"S2-0061","volume":"900v2","title":"A layered sediment analogue will develop a temporary upward solute flux after surface cooling despite stable mean density stratification.","prediction":"A layered sediment analogue will develop a temporary upward solute flux after surface cooling despite stable mean density stratification.","test":"Measure temperature and concentration profiles with flow tracers.","contrary":"Any upward flux is explained by bulk overturning or measurement drift.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0061","prediction":"A layered sediment analogue will develop a temporary upward solute flux after surface cooling despite stable mean density stratification.","feasible_test":"Measure temperature and concentration profiles with flow tracers.","contrary_outcome":"Any upward flux is explained by bulk overturning or measurement drift.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0061","prediction":"A layered sediment analogue will develop a temporary upward solute flux after surface cooling despite stable mean density stratification.","feasible_test":"Measure temperature and concentration profiles with flow tracers.","contrary_outcome":"Any upward flux is explained by bulk overturning or measurement drift.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Stable density controls challenge a nonconvective upward flux.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0062","id":"S2-0062","volume":"900v2","title":"A trapped nanobubble population will delay mineral precipitation by sequestering nucleation-active organic molecules at gas interfaces.","prediction":"A trapped nanobubble population will delay mineral precipitation by sequestering nucleation-active organic molecules at gas interfaces.","test":"Compare precipitation lag, interfacial organic concentration, and degassed controls.","contrary":"Lag is unchanged after bubble removal at matched dissolved gas.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0062","prediction":"A trapped nanobubble population will delay mineral precipitation by sequestering nucleation-active organic molecules at gas interfaces.","feasible_test":"Compare precipitation lag, interfacial organic concentration, and degassed controls.","contrary_outcome":"Lag is unchanged after bubble removal at matched dissolved gas.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0062","prediction":"A trapped nanobubble population will delay mineral precipitation by sequestering nucleation-active organic molecules at gas interfaces.","feasible_test":"Compare precipitation lag, interfacial organic concentration, and degassed controls.","contrary_outcome":"Lag is unchanged after bubble removal at matched dissolved gas.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Bubble removal directly tests interfacial sequestration.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0063","id":"S2-0063","volume":"900v2","title":"A porous electrode will lose accessible reactive area before its electrical conductivity changes when precipitation selectively blocks pore throats.","prediction":"A porous electrode will lose accessible reactive area before its electrical conductivity changes when precipitation selectively blocks pore throats.","test":"Measure electrochemical area, tomography, and conductivity during fouling.","contrary":"Area decline coincides with bulk conductivity loss or uniform coating.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0063","prediction":"A porous electrode will lose accessible reactive area before its electrical conductivity changes when precipitation selectively blocks pore throats.","feasible_test":"Measure electrochemical area, tomography, and conductivity during fouling.","contrary_outcome":"Area decline coincides with bulk conductivity loss or uniform coating.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0063","prediction":"A porous electrode will lose accessible reactive area before its electrical conductivity changes when precipitation selectively blocks pore throats.","feasible_test":"Measure electrochemical area, tomography, and conductivity during fouling.","contrary_outcome":"Area decline coincides with bulk conductivity loss or uniform coating.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Independent conductivity and area measurements separate fouling mechanisms.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0064","id":"S2-0064","volume":"900v2","title":"A calcite surface exposed to intermittent undersaturation will retain deeper etch pits than one exposed continuously to the same integrated dissolution drive.","prediction":"A calcite surface exposed to intermittent undersaturation will retain deeper etch pits than one exposed continuously to the same integrated dissolution drive.","test":"Measure pit topography and total dissolved mass under matched exposure integrals.","contrary":"Pit-depth distributions coincide after dissolved-mass matching.","layers":[1,2,3],"categories":["measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0064","prediction":"A calcite surface exposed to intermittent undersaturation will retain deeper etch pits than one exposed continuously to the same integrated dissolution drive.","feasible_test":"Measure pit topography and total dissolved mass under matched exposure integrals.","contrary_outcome":"Pit-depth distributions coincide after dissolved-mass matching.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0064","prediction":"A calcite surface exposed to intermittent undersaturation will retain deeper etch pits than one exposed continuously to the same integrated dissolution drive.","feasible_test":"Measure pit topography and total dissolved mass under matched exposure integrals.","contrary_outcome":"Pit-depth distributions coincide after dissolved-mass matching.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"AFM can resolve a pulse-history effect on pit geometry.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":{"id":"S2-0064","prediction":"A calcite surface exposed to intermittent undersaturation will retain deeper etch pits than one exposed continuously to the same integrated dissolution drive.","feasible_test":"Measure pit topography and total dissolved mass under matched exposure integrals.","contrary_outcome":"Pit-depth distributions coincide after dissolved-mass matching.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"AFM can resolve a pulse-history effect on pit geometry.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability","dossier":"S2-0064_dossier.md","final_selection_rationale":"Mechanism can be challenged by an independent observable and a specific intervention; retained to include both plausible proposals and strong counterevidence cases, not a claim of high truth probability."},"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0065","id":"S2-0065","volume":"900v2","title":"A layered clay film will pump interlayer water laterally during a traveling thermal wave without net bulk evaporation.","prediction":"A layered clay film will pump interlayer water laterally during a traveling thermal wave without net bulk evaporation.","test":"Measure isotopic water displacement in a sealed cell with reversed wave direction.","contrary":"Displacement does not reverse or remains within diffusive uncertainty.","layers":[1,2],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0065","prediction":"A layered clay film will pump interlayer water laterally during a traveling thermal wave without net bulk evaporation.","feasible_test":"Measure isotopic water displacement in a sealed cell with reversed wave direction.","contrary_outcome":"Displacement does not reverse or remains within diffusive uncertainty.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0065","prediction":"A layered clay film will pump interlayer water laterally during a traveling thermal wave without net bulk evaporation.","feasible_test":"Measure isotopic water displacement in a sealed cell with reversed wave direction.","contrary_outcome":"Displacement does not reverse or remains within diffusive uncertainty.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"A sealed cell makes net evaporation an exclusion control.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0066","id":"S2-0066","volume":"900v2","title":"A chemically oscillating droplet will imprint oscillation periods as discrete mineral bands when its boundary feeds a supersaturated solution.","prediction":"A chemically oscillating droplet will imprint oscillation periods as discrete mineral bands when its boundary feeds a supersaturated solution.","test":"Measure chemical oscillations and band spacing during growth.","contrary":"Band chronology does not correlate with recorded oscillations.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0066","prediction":"A chemically oscillating droplet will imprint oscillation periods as discrete mineral bands when its boundary feeds a supersaturated solution.","feasible_test":"Measure chemical oscillations and band spacing during growth.","contrary_outcome":"Band chronology does not correlate with recorded oscillations.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0066","prediction":"A chemically oscillating droplet will imprint oscillation periods as discrete mineral bands when its boundary feeds a supersaturated solution.","feasible_test":"Measure chemical oscillations and band spacing during growth.","contrary_outcome":"Band chronology does not correlate with recorded oscillations.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Recorded oscillations provide an external mineral-band clock.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0067","id":"S2-0067","volume":"900v2","title":"A wetted silica crack will arrest abruptly when condensation at its narrow tip changes local surface stress.","prediction":"A wetted silica crack will arrest abruptly when condensation at its narrow tip changes local surface stress.","test":"Measure crack velocity and tip water uptake under humidity control.","contrary":"Arrest lacks a tip-condensation threshold and follows bulk humidity only.","layers":[1,2,3],"categories":["measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0067","prediction":"A wetted silica crack will arrest abruptly when condensation at its narrow tip changes local surface stress.","feasible_test":"Measure crack velocity and tip water uptake under humidity control.","contrary_outcome":"Arrest lacks a tip-condensation threshold and follows bulk humidity only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0067","prediction":"A wetted silica crack will arrest abruptly when condensation at its narrow tip changes local surface stress.","feasible_test":"Measure crack velocity and tip water uptake under humidity control.","contrary_outcome":"Arrest lacks a tip-condensation threshold and follows bulk humidity only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Tip-condensation imaging challenges a sharp arrest mechanism.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":{"id":"S2-0067","prediction":"A wetted silica crack will arrest abruptly when condensation at its narrow tip changes local surface stress.","feasible_test":"Measure crack velocity and tip water uptake under humidity control.","contrary_outcome":"Arrest lacks a tip-condensation threshold and follows bulk humidity only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Tip-condensation imaging challenges a sharp arrest mechanism.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability","dossier":"S2-0067_dossier.md","final_selection_rationale":"Mechanism can be challenged by an independent observable and a specific intervention; retained to include both plausible proposals and strong counterevidence cases, not a claim of high truth probability."},"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0068","id":"S2-0068","volume":"900v2","title":"A redox-active mineral bed will release a sharper concentration pulse after flow reversal than an inert bed with equal sorption capacity.","prediction":"A redox-active mineral bed will release a sharper concentration pulse after flow reversal than an inert bed with equal sorption capacity.","test":"Compare tracer breakthrough and oxidation states during reversed flow.","contrary":"Pulse sharpening is reproduced by inert sorption alone.","layers":[1,2],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0068","prediction":"A redox-active mineral bed will release a sharper concentration pulse after flow reversal than an inert bed with equal sorption capacity.","feasible_test":"Compare tracer breakthrough and oxidation states during reversed flow.","contrary_outcome":"Pulse sharpening is reproduced by inert sorption alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0068","prediction":"A redox-active mineral bed will release a sharper concentration pulse after flow reversal than an inert bed with equal sorption capacity.","feasible_test":"Compare tracer breakthrough and oxidation states during reversed flow.","contrary_outcome":"Pulse sharpening is reproduced by inert sorption alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Inert sorption controls challenge a redox-specific pulse.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0069","id":"S2-0069","volume":"900v2","title":"A sparse biochar network will transport heat preferentially through condensed water bridges during humidification before bulk saturation.","prediction":"A sparse biochar network will transport heat preferentially through condensed water bridges during humidification before bulk saturation.","test":"Measure thermal conductance and water-bridge formation simultaneously.","contrary":"Conductance rises only with continuous bulk liquid pathways.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0069","prediction":"A sparse biochar network will transport heat preferentially through condensed water bridges during humidification before bulk saturation.","feasible_test":"Measure thermal conductance and water-bridge formation simultaneously.","contrary_outcome":"Conductance rises only with continuous bulk liquid pathways.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0069","prediction":"A sparse biochar network will transport heat preferentially through condensed water bridges during humidification before bulk saturation.","feasible_test":"Measure thermal conductance and water-bridge formation simultaneously.","contrary_outcome":"Conductance rises only with continuous bulk liquid pathways.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Water bridges and heat transfer can be measured jointly.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0070","id":"S2-0070","volume":"900v2","title":"A dissolution-generated porous shell will slow reaction through internal stress closure of pores rather than increasing diffusion length alone.","prediction":"A dissolution-generated porous shell will slow reaction through internal stress closure of pores rather than increasing diffusion length alone.","test":"Measure reaction rate, strain, and porosity before and after mechanical unloading.","contrary":"Unloading does not restore transport at unchanged shell thickness.","layers":[1,2],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0070","prediction":"A dissolution-generated porous shell will slow reaction through internal stress closure of pores rather than increasing diffusion length alone.","feasible_test":"Measure reaction rate, strain, and porosity before and after mechanical unloading.","contrary_outcome":"Unloading does not restore transport at unchanged shell thickness.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0070","prediction":"A dissolution-generated porous shell will slow reaction through internal stress closure of pores rather than increasing diffusion length alone.","feasible_test":"Measure reaction rate, strain, and porosity before and after mechanical unloading.","contrary_outcome":"Unloading does not restore transport at unchanged shell thickness.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Mechanical unloading tests stress-closed transport pathways.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0071","id":"S2-0071","volume":"900v2","title":"A photonic hydrogel containing trapped solvent domains will exhibit spectral hysteresis proportional to domain coalescence events.","prediction":"A photonic hydrogel containing trapped solvent domains will exhibit spectral hysteresis proportional to domain coalescence events.","test":"Count coalescence and spectral shifts during a reversible temperature cycle.","contrary":"Spectral hysteresis persists without coalescence or follows equilibrium swelling alone.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0071","prediction":"A photonic hydrogel containing trapped solvent domains will exhibit spectral hysteresis proportional to domain coalescence events.","feasible_test":"Count coalescence and spectral shifts during a reversible temperature cycle.","contrary_outcome":"Spectral hysteresis persists without coalescence or follows equilibrium swelling alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0071","prediction":"A photonic hydrogel containing trapped solvent domains will exhibit spectral hysteresis proportional to domain coalescence events.","feasible_test":"Count coalescence and spectral shifts during a reversible temperature cycle.","contrary_outcome":"Spectral hysteresis persists without coalescence or follows equilibrium swelling alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Coalescence counts provide a specific optical hysteresis mediator.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0072","id":"S2-0072","volume":"900v2","title":"A dielectric microsphere resting on a soft film will alter its optical resonance through mechanically induced indentation at constant refractive index.","prediction":"A dielectric microsphere resting on a soft film will alter its optical resonance through mechanically induced indentation at constant refractive index.","test":"Measure resonance and indentation while varying load independently of chemistry.","contrary":"Resonance shifts disappear after refractive-index correction.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0072","prediction":"A dielectric microsphere resting on a soft film will alter its optical resonance through mechanically induced indentation at constant refractive index.","feasible_test":"Measure resonance and indentation while varying load independently of chemistry.","contrary_outcome":"Resonance shifts disappear after refractive-index correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0072","prediction":"A dielectric microsphere resting on a soft film will alter its optical resonance through mechanically induced indentation at constant refractive index.","feasible_test":"Measure resonance and indentation while varying load independently of chemistry.","contrary_outcome":"Resonance shifts disappear after refractive-index correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Load variation separates indentation from chemistry.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0073","id":"S2-0073","volume":"900v2","title":"A patterned absorber will create an annular condensation zone by radiatively cooling its edge faster than its center.","prediction":"A patterned absorber will create an annular condensation zone by radiatively cooling its edge faster than its center.","test":"Map temperature and condensation with convection suppressed.","contrary":"Condensation lacks an edge maximum despite verified radiative contrast.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0073","prediction":"A patterned absorber will create an annular condensation zone by radiatively cooling its edge faster than its center.","feasible_test":"Map temperature and condensation with convection suppressed.","contrary_outcome":"Condensation lacks an edge maximum despite verified radiative contrast.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0073","prediction":"A patterned absorber will create an annular condensation zone by radiatively cooling its edge faster than its center.","feasible_test":"Map temperature and condensation with convection suppressed.","contrary_outcome":"Condensation lacks an edge maximum despite verified radiative contrast.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Suppressed convection tests radiative edge condensation.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0074","id":"S2-0074","volume":"900v2","title":"A thin transparent laminate will display an optical precursor to interfacial slip through polarization-dependent phase changes.","prediction":"A thin transparent laminate will display an optical precursor to interfacial slip through polarization-dependent phase changes.","test":"Compare interferometry with displacement microscopy during shear.","contrary":"Phase changes begin only after resolved macroscopic slip.","layers":[1,2,3],"categories":["physical"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0074","prediction":"A thin transparent laminate will display an optical precursor to interfacial slip through polarization-dependent phase changes.","feasible_test":"Compare interferometry with displacement microscopy during shear.","contrary_outcome":"Phase changes begin only after resolved macroscopic slip.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0074","prediction":"A thin transparent laminate will display an optical precursor to interfacial slip through polarization-dependent phase changes.","feasible_test":"Compare interferometry with displacement microscopy during shear.","contrary_outcome":"Phase changes begin only after resolved macroscopic slip.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Independent displacement can validate an optical slip precursor.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":{"id":"S2-0074","prediction":"A thin transparent laminate will display an optical precursor to interfacial slip through polarization-dependent phase changes.","feasible_test":"Compare interferometry with displacement microscopy during shear.","contrary_outcome":"Phase changes begin only after resolved macroscopic slip.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Independent displacement can validate an optical slip precursor.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability","dossier":"S2-0074_dossier.md","final_selection_rationale":"Mechanism can be challenged by an independent observable and a specific intervention; retained to include both plausible proposals and strong counterevidence cases, not a claim of high truth probability."},"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0075","id":"S2-0075","volume":"900v2","title":"A rough reflective membrane will narrow its scattering lobe under acoustic excitation because reversible wrinkles align with stress nodes.","prediction":"A rough reflective membrane will narrow its scattering lobe under acoustic excitation because reversible wrinkles align with stress nodes.","test":"Measure angular scattering and wrinkle orientation during a standing wave.","contrary":"Scattering changes are explained by rigid-body motion alone.","layers":[1,2],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0075","prediction":"A rough reflective membrane will narrow its scattering lobe under acoustic excitation because reversible wrinkles align with stress nodes.","feasible_test":"Measure angular scattering and wrinkle orientation during a standing wave.","contrary_outcome":"Scattering changes are explained by rigid-body motion alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0075","prediction":"A rough reflective membrane will narrow its scattering lobe under acoustic excitation because reversible wrinkles align with stress nodes.","feasible_test":"Measure angular scattering and wrinkle orientation during a standing wave.","contrary_outcome":"Scattering changes are explained by rigid-body motion alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Rigid-motion controls challenge a wrinkle-based scattering effect.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0076","id":"S2-0076","volume":"900v2","title":"A fluorescent nanoparticle aggregate will show a delayed color recovery after strain release because interparticle gaps relax through solvent drainage.","prediction":"A fluorescent nanoparticle aggregate will show a delayed color recovery after strain release because interparticle gaps relax through solvent drainage.","test":"Measure emission spectrum, gap spacing, and solvent motion after unloading.","contrary":"Color recovery follows immediate elastic recovery without drainage dependence.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0076","prediction":"A fluorescent nanoparticle aggregate will show a delayed color recovery after strain release because interparticle gaps relax through solvent drainage.","feasible_test":"Measure emission spectrum, gap spacing, and solvent motion after unloading.","contrary_outcome":"Color recovery follows immediate elastic recovery without drainage dependence.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0076","prediction":"A fluorescent nanoparticle aggregate will show a delayed color recovery after strain release because interparticle gaps relax through solvent drainage.","feasible_test":"Measure emission spectrum, gap spacing, and solvent motion after unloading.","contrary_outcome":"Color recovery follows immediate elastic recovery without drainage dependence.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Gap spacing tests drainage-mediated color recovery.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0077","id":"S2-0077","volume":"900v2","title":"A porous optical film will distinguish vapor condensation from surface adsorption through opposite signs of angular resonance shift.","prediction":"A porous optical film will distinguish vapor condensation from surface adsorption through opposite signs of angular resonance shift.","test":"Measure resonance versus angle alongside independent water uptake and imaging.","contrary":"Both uptake modes generate indistinguishable signed angular responses.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0077","prediction":"A porous optical film will distinguish vapor condensation from surface adsorption through opposite signs of angular resonance shift.","feasible_test":"Measure resonance versus angle alongside independent water uptake and imaging.","contrary_outcome":"Both uptake modes generate indistinguishable signed angular responses.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0077","prediction":"A porous optical film will distinguish vapor condensation from surface adsorption through opposite signs of angular resonance shift.","feasible_test":"Measure resonance versus angle alongside independent water uptake and imaging.","contrary_outcome":"Both uptake modes generate indistinguishable signed angular responses.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Water imaging distinguishes pore filling from adsorption.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0078","id":"S2-0078","volume":"900v2","title":"A mechanically bistable optical grating will retain a readable strain-event record after its external force returns to zero.","prediction":"A mechanically bistable optical grating will retain a readable strain-event record after its external force returns to zero.","test":"Apply threshold-crossing pulses and read diffraction after unloading.","contrary":"Diffraction returns to its starting pattern on every cycle.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0078","prediction":"A mechanically bistable optical grating will retain a readable strain-event record after its external force returns to zero.","feasible_test":"Apply threshold-crossing pulses and read diffraction after unloading.","contrary_outcome":"Diffraction returns to its starting pattern on every cycle.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0078","prediction":"A mechanically bistable optical grating will retain a readable strain-event record after its external force returns to zero.","feasible_test":"Apply threshold-crossing pulses and read diffraction after unloading.","contrary_outcome":"Diffraction returns to its starting pattern on every cycle.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"A bistable grating gives a simple retained-event readout.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0079","id":"S2-0079","volume":"900v2","title":"A levitated droplet containing absorbing particles will stabilize an off-center particle cloud through a balance of thermophoresis and internal recirculation.","prediction":"A levitated droplet containing absorbing particles will stabilize an off-center particle cloud through a balance of thermophoresis and internal recirculation.","test":"Image temperature and particle distribution while reversing illumination direction.","contrary":"Cloud position follows only gravity or acoustic trapping.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0079","prediction":"A levitated droplet containing absorbing particles will stabilize an off-center particle cloud through a balance of thermophoresis and internal recirculation.","feasible_test":"Image temperature and particle distribution while reversing illumination direction.","contrary_outcome":"Cloud position follows only gravity or acoustic trapping.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0079","prediction":"A levitated droplet containing absorbing particles will stabilize an off-center particle cloud through a balance of thermophoresis and internal recirculation.","feasible_test":"Image temperature and particle distribution while reversing illumination direction.","contrary_outcome":"Cloud position follows only gravity or acoustic trapping.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Illumination reversal tests cloud-position feedback.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0080","id":"S2-0080","volume":"900v2","title":"A transparent crack filled with a volatile liquid will produce a moving interference fringe that predicts the location of subsequent crack reopening.","prediction":"A transparent crack filled with a volatile liquid will produce a moving interference fringe that predicts the location of subsequent crack reopening.","test":"Map fringes and reopening under calibrated tensile loading.","contrary":"Fringe position has no predictive value beyond crack geometry.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0080","prediction":"A transparent crack filled with a volatile liquid will produce a moving interference fringe that predicts the location of subsequent crack reopening.","feasible_test":"Map fringes and reopening under calibrated tensile loading.","contrary_outcome":"Fringe position has no predictive value beyond crack geometry.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0080","prediction":"A transparent crack filled with a volatile liquid will produce a moving interference fringe that predicts the location of subsequent crack reopening.","feasible_test":"Map fringes and reopening under calibrated tensile loading.","contrary_outcome":"Fringe position has no predictive value beyond crack geometry.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Reopening can be predicted prospectively from fringe location.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0081","id":"S2-0081","volume":"900v2","title":"A metallic mesh embedded in a hydrogel will concentrate optical heating at newly formed microcracks before its electrical resistance changes.","prediction":"A metallic mesh embedded in a hydrogel will concentrate optical heating at newly formed microcracks before its electrical resistance changes.","test":"Map thermal hotspots, cracks, and resistance under subfailure strain.","contrary":"Hotspots are absent or appear only after resistance changes.","layers":[1,2],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0081","prediction":"A metallic mesh embedded in a hydrogel will concentrate optical heating at newly formed microcracks before its electrical resistance changes.","feasible_test":"Map thermal hotspots, cracks, and resistance under subfailure strain.","contrary_outcome":"Hotspots are absent or appear only after resistance changes.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0081","prediction":"A metallic mesh embedded in a hydrogel will concentrate optical heating at newly formed microcracks before its electrical resistance changes.","feasible_test":"Map thermal hotspots, cracks, and resistance under subfailure strain.","contrary_outcome":"Hotspots are absent or appear only after resistance changes.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Electrical resistance provides an independent crack-detection benchmark.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0082","id":"S2-0082","volume":"900v2","title":"A water film on a tilted textured surface will exhibit a directional infrared emission difference caused by thickness gradients at pinned menisci.","prediction":"A water film on a tilted textured surface will exhibit a directional infrared emission difference caused by thickness gradients at pinned menisci.","test":"Measure polarized directional emissivity and film thickness under reversed tilt.","contrary":"Emission asymmetry remains unchanged when meniscus gradients reverse.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0082","prediction":"A water film on a tilted textured surface will exhibit a directional infrared emission difference caused by thickness gradients at pinned menisci.","feasible_test":"Measure polarized directional emissivity and film thickness under reversed tilt.","contrary_outcome":"Emission asymmetry remains unchanged when meniscus gradients reverse.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0082","prediction":"A water film on a tilted textured surface will exhibit a directional infrared emission difference caused by thickness gradients at pinned menisci.","feasible_test":"Measure polarized directional emissivity and film thickness under reversed tilt.","contrary_outcome":"Emission asymmetry remains unchanged when meniscus gradients reverse.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Tilt reversal tests meniscus-induced emissivity asymmetry.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0083","id":"S2-0083","volume":"900v2","title":"A laser-heated mineral grain will produce a thermal relaxation shoulder that reports a hidden fluid inclusion's phase change.","prediction":"A laser-heated mineral grain will produce a thermal relaxation shoulder that reports a hidden fluid inclusion's phase change.","test":"Compare thermal transients with independently imaged inclusions and calorimetry.","contrary":"Relaxation shoulders occur equally in inclusion-free grains.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0083","prediction":"A laser-heated mineral grain will produce a thermal relaxation shoulder that reports a hidden fluid inclusion's phase change.","feasible_test":"Compare thermal transients with independently imaged inclusions and calorimetry.","contrary_outcome":"Relaxation shoulders occur equally in inclusion-free grains.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0083","prediction":"A laser-heated mineral grain will produce a thermal relaxation shoulder that reports a hidden fluid inclusion's phase change.","feasible_test":"Compare thermal transients with independently imaged inclusions and calorimetry.","contrary_outcome":"Relaxation shoulders occur equally in inclusion-free grains.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Inclusion tomography validates thermal phase-change attribution.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0084","id":"S2-0084","volume":"900v2","title":"A flexible waveguide will discriminate bending from axial stretch through the ratio of two guided-mode losses.","prediction":"A flexible waveguide will discriminate bending from axial stretch through the ratio of two guided-mode losses.","test":"Calibrate independent loading modes and test blinded combined loads.","contrary":"Mode-loss ratios cannot separate bending and stretch beyond noise.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0084","prediction":"A flexible waveguide will discriminate bending from axial stretch through the ratio of two guided-mode losses.","feasible_test":"Calibrate independent loading modes and test blinded combined loads.","contrary_outcome":"Mode-loss ratios cannot separate bending and stretch beyond noise.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0084","prediction":"A flexible waveguide will discriminate bending from axial stretch through the ratio of two guided-mode losses.","feasible_test":"Calibrate independent loading modes and test blinded combined loads.","contrary_outcome":"Mode-loss ratios cannot separate bending and stretch beyond noise.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Blinded combined loads test mode-ratio identifiability.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0085","id":"S2-0085","volume":"900v2","title":"A chiral array of passive resonators will reverse the rotation of a floating object when acoustic frequency crosses a collective resonance.","prediction":"A chiral array of passive resonators will reverse the rotation of a floating object when acoustic frequency crosses a collective resonance.","test":"Track torque and pressure fields across the resonance.","contrary":"Torque retains its sign after accounting for streaming.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0085","prediction":"A chiral array of passive resonators will reverse the rotation of a floating object when acoustic frequency crosses a collective resonance.","feasible_test":"Track torque and pressure fields across the resonance.","contrary_outcome":"Torque retains its sign after accounting for streaming.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0085","prediction":"A chiral array of passive resonators will reverse the rotation of a floating object when acoustic frequency crosses a collective resonance.","feasible_test":"Track torque and pressure fields across the resonance.","contrary_outcome":"Torque retains its sign after accounting for streaming.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Torque and pressure mapping challenge streaming explanations.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0086","id":"S2-0086","volume":"900v2","title":"A wetting front in a disordered optical fiber bundle will produce a reproducible speckle transition before liquid reaches the observation face.","prediction":"A wetting front in a disordered optical fiber bundle will produce a reproducible speckle transition before liquid reaches the observation face.","test":"Correlate speckle statistics with tomographic front position.","contrary":"Speckle changes begin only when the front reaches the face.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0086","prediction":"A wetting front in a disordered optical fiber bundle will produce a reproducible speckle transition before liquid reaches the observation face.","feasible_test":"Correlate speckle statistics with tomographic front position.","contrary_outcome":"Speckle changes begin only when the front reaches the face.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0086","prediction":"A wetting front in a disordered optical fiber bundle will produce a reproducible speckle transition before liquid reaches the observation face.","feasible_test":"Correlate speckle statistics with tomographic front position.","contrary_outcome":"Speckle changes begin only when the front reaches the face.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Tomography establishes whether speckle precedes front arrival.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0087","id":"S2-0087","volume":"900v2","title":"A phase-changing microcapsule layer will reduce thermal overshoot more when capsules communicate through contact than when dispersed at identical loading.","prediction":"A phase-changing microcapsule layer will reduce thermal overshoot more when capsules communicate through contact than when dispersed at identical loading.","test":"Measure temperature transients and capsule phase fractions with contact topology controlled.","contrary":"Overshoot depends only on total latent heat.","layers":[1,2,3],"categories":["energy","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0087","prediction":"A phase-changing microcapsule layer will reduce thermal overshoot more when capsules communicate through contact than when dispersed at identical loading.","feasible_test":"Measure temperature transients and capsule phase fractions with contact topology controlled.","contrary_outcome":"Overshoot depends only on total latent heat.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0087","prediction":"A phase-changing microcapsule layer will reduce thermal overshoot more when capsules communicate through contact than when dispersed at identical loading.","feasible_test":"Measure temperature transients and capsule phase fractions with contact topology controlled.","contrary_outcome":"Overshoot depends only on total latent heat.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Equal latent heat isolates capsule-contact topology.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":{"id":"S2-0087","prediction":"A phase-changing microcapsule layer will reduce thermal overshoot more when capsules communicate through contact than when dispersed at identical loading.","feasible_test":"Measure temperature transients and capsule phase fractions with contact topology controlled.","contrary_outcome":"Overshoot depends only on total latent heat.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Equal latent heat isolates capsule-contact topology.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability","dossier":"S2-0087_dossier.md","final_selection_rationale":"Mechanism can be challenged by an independent observable and a specific intervention; retained to include both plausible proposals and strong counterevidence cases, not a claim of high truth probability."},"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0088","id":"S2-0088","volume":"900v2","title":"A suspended membrane with asymmetric edge damping will direct vibrational energy toward the less damped boundary after an initially symmetric impulse.","prediction":"A suspended membrane with asymmetric edge damping will direct vibrational energy toward the less damped boundary after an initially symmetric impulse.","test":"Map transient vibration and energy flux with reversed damping pattern.","contrary":"Energy remains symmetric after geometric imperfections are controlled.","layers":[1,2],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0088","prediction":"A suspended membrane with asymmetric edge damping will direct vibrational energy toward the less damped boundary after an initially symmetric impulse.","feasible_test":"Map transient vibration and energy flux with reversed damping pattern.","contrary_outcome":"Energy remains symmetric after geometric imperfections are controlled.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0088","prediction":"A suspended membrane with asymmetric edge damping will direct vibrational energy toward the less damped boundary after an initially symmetric impulse.","feasible_test":"Map transient vibration and energy flux with reversed damping pattern.","contrary_outcome":"Energy remains symmetric after geometric imperfections are controlled.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Reversed damping tests transient directional energy flow.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0089","id":"S2-0089","volume":"900v2","title":"A granular transparent screen will retain an optical signature of prior sound exposure through irreversible contact rearrangements below bulk yielding.","prediction":"A granular transparent screen will retain an optical signature of prior sound exposure through irreversible contact rearrangements below bulk yielding.","test":"Measure speckle and contact positions before and after calibrated sound pulses.","contrary":"Optical changes vanish after environmental drift correction.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0089","prediction":"A granular transparent screen will retain an optical signature of prior sound exposure through irreversible contact rearrangements below bulk yielding.","feasible_test":"Measure speckle and contact positions before and after calibrated sound pulses.","contrary_outcome":"Optical changes vanish after environmental drift correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0089","prediction":"A granular transparent screen will retain an optical signature of prior sound exposure through irreversible contact rearrangements below bulk yielding.","feasible_test":"Measure speckle and contact positions before and after calibrated sound pulses.","contrary_outcome":"Optical changes vanish after environmental drift correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Contact imaging challenges a persistent acoustic speckle memory.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0090","id":"S2-0090","volume":"900v2","title":"A sealed capillary containing a liquid-vapor plug will convert a symmetric temperature oscillation into net plug displacement when its wall has a sawtooth wettability profile.","prediction":"A sealed capillary containing a liquid-vapor plug will convert a symmetric temperature oscillation into net plug displacement when its wall has a sawtooth wettability profile.","test":"Track plug motion while reversing the wall pattern.","contrary":"Net displacement is zero or does not reverse with the pattern.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0090","prediction":"A sealed capillary containing a liquid-vapor plug will convert a symmetric temperature oscillation into net plug displacement when its wall has a sawtooth wettability profile.","feasible_test":"Track plug motion while reversing the wall pattern.","contrary_outcome":"Net displacement is zero or does not reverse with the pattern.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S2-0090","prediction":"A sealed capillary containing a liquid-vapor plug will convert a symmetric temperature oscillation into net plug displacement when its wall has a sawtooth wettability profile.","feasible_test":"Track plug motion while reversing the wall pattern.","contrary_outcome":"Net displacement is zero or does not reverse with the pattern.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Pattern reversal provides a decisive capillary rectification control.","selection_basis":"subjective feasibility/plausibility triage; not a calibrated truth probability"},"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0091","id":"S2-0091","volume":"900v2","title":"Dried algae films should delaminate along pigment-rich bands during rewetting.","prediction":"Dried algae films should delaminate along pigment-rich bands during rewetting.","test":"Image peeling and pigment maps.","contrary":"Peeling ignores pigment bands.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0091","prediction":"Dried algae films should delaminate along pigment-rich bands during rewetting.","feasible_test":"Image peeling and pigment maps.","contrary_outcome":"Peeling ignores pigment bands.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0092","id":"S2-0092","volume":"900v2","title":"Moss leaf teeth should direct condensation droplets toward basal tissue.","prediction":"Moss leaf teeth should direct condensation droplets toward basal tissue.","test":"Track dew on isolated leaves.","contrary":"Droplets move without basal bias.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0092","prediction":"Moss leaf teeth should direct condensation droplets toward basal tissue.","feasible_test":"Track dew on isolated leaves.","contrary_outcome":"Droplets move without basal bias.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0093","id":"S2-0093","volume":"900v2","title":"Root-cap mucilage should reduce stick-slip during passage through angular grains.","prediction":"Root-cap mucilage should reduce stick-slip during passage through angular grains.","test":"Measure root-analogue friction with native mucilage.","contrary":"Stick-slip remains unchanged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0093","prediction":"Root-cap mucilage should reduce stick-slip during passage through angular grains.","feasible_test":"Measure root-analogue friction with native mucilage.","contrary_outcome":"Stick-slip remains unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0094","id":"S2-0094","volume":"900v2","title":"Wood ray cells should interrupt transverse drying cracks by opening local compliance zones.","prediction":"Wood ray cells should interrupt transverse drying cracks by opening local compliance zones.","test":"Map strain near advancing cracks.","contrary":"Cracks ignore ray-associated compliance.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0094","prediction":"Wood ray cells should interrupt transverse drying cracks by opening local compliance zones.","feasible_test":"Map strain near advancing cracks.","contrary_outcome":"Cracks ignore ray-associated compliance.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0095","id":"S2-0095","volume":"900v2","title":"Pollen wall apertures should close in a reproducible sequence set by elastic coupling.","prediction":"Pollen wall apertures should close in a reproducible sequence set by elastic coupling.","test":"Image isolated pollen during drying.","contrary":"Closure order is random between matched grains.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0095","prediction":"Pollen wall apertures should close in a reproducible sequence set by elastic coupling.","feasible_test":"Image isolated pollen during drying.","contrary_outcome":"Closure order is random between matched grains.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0096","id":"S2-0096","volume":"900v2","title":"Lichen cortical pores should open mechanically before hydrated tissue expands appreciably.","prediction":"Lichen cortical pores should open mechanically before hydrated tissue expands appreciably.","test":"Measure pore geometry and bulk swelling.","contrary":"Pore opening follows bulk expansion.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0096","prediction":"Lichen cortical pores should open mechanically before hydrated tissue expands appreciably.","feasible_test":"Measure pore geometry and bulk swelling.","contrary_outcome":"Pore opening follows bulk expansion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0097","id":"S2-0097","volume":"900v2","title":"A severed tendril should unwind faster under transverse compression that releases fiber friction.","prediction":"A severed tendril should unwind faster under transverse compression that releases fiber friction.","test":"Measure recoil with reversible compression.","contrary":"Compression produces only greater friction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0097","prediction":"A severed tendril should unwind faster under transverse compression that releases fiber friction.","feasible_test":"Measure recoil with reversible compression.","contrary_outcome":"Compression produces only greater friction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0098","id":"S2-0098","volume":"900v2","title":"Aerial root velamen should buffer evaporation through disconnected liquid pockets.","prediction":"Aerial root velamen should buffer evaporation through disconnected liquid pockets.","test":"Image internal liquid and mass loss.","contrary":"Water remains hydraulically continuous until dry.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0098","prediction":"Aerial root velamen should buffer evaporation through disconnected liquid pockets.","feasible_test":"Image internal liquid and mass loss.","contrary_outcome":"Water remains hydraulically continuous until dry.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0099","id":"S2-0099","volume":"900v2","title":"Fungal wall scars should localize bending under transverse loading.","prediction":"Fungal wall scars should localize bending under transverse loading.","test":"Map strain around identified scars.","contrary":"Scar locations do not predict bending.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0099","prediction":"Fungal wall scars should localize bending under transverse loading.","feasible_test":"Map strain around identified scars.","contrary_outcome":"Scar locations do not predict bending.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0100","id":"S2-0100","volume":"900v2","title":"Seed appendage hairs should collapse cooperatively when neighboring menisci merge.","prediction":"Seed appendage hairs should collapse cooperatively when neighboring menisci merge.","test":"Record wetting and hair geometry.","contrary":"Hairs collapse independently of meniscus mergers.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0100","prediction":"Seed appendage hairs should collapse cooperatively when neighboring menisci merge.","feasible_test":"Record wetting and hair geometry.","contrary_outcome":"Hairs collapse independently of meniscus mergers.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0101","id":"S2-0101","volume":"900v2","title":"Bamboo nodes should scatter torsional waves more strongly than longitudinal waves.","prediction":"Bamboo nodes should scatter torsional waves more strongly than longitudinal waves.","test":"Measure directional impulse transmission.","contrary":"Scattering ratios match homogeneous controls.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0101","prediction":"Bamboo nodes should scatter torsional waves more strongly than longitudinal waves.","feasible_test":"Measure directional impulse transmission.","contrary_outcome":"Scattering ratios match homogeneous controls.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0102","id":"S2-0102","volume":"900v2","title":"Leaf trichomes should delay frost bridging by mechanically separating adjacent droplets.","prediction":"Leaf trichomes should delay frost bridging by mechanically separating adjacent droplets.","test":"Image freezing fronts and contact geometry.","contrary":"Bridging is unchanged after spacing adjustment.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0102","prediction":"Leaf trichomes should delay frost bridging by mechanically separating adjacent droplets.","feasible_test":"Image freezing fronts and contact geometry.","contrary_outcome":"Bridging is unchanged after spacing adjustment.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0103","id":"S2-0103","volume":"900v2","title":"Plant fibers extracted without drying should resist knot-induced damage through interfibril sliding.","prediction":"Plant fibers extracted without drying should resist knot-induced damage through interfibril sliding.","test":"Compare knot strength and sliding markers.","contrary":"Sliding does not predict retained strength.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0103","prediction":"Plant fibers extracted without drying should resist knot-induced damage through interfibril sliding.","feasible_test":"Compare knot strength and sliding markers.","contrary_outcome":"Sliding does not predict retained strength.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0104","id":"S2-0104","volume":"900v2","title":"Fungal cords should redistribute indentation load after localized drying stiffens their outer sheath.","prediction":"Fungal cords should redistribute indentation load after localized drying stiffens their outer sheath.","test":"Map force transmission before and after drying.","contrary":"Transmission follows unchanged internal paths.","layers":[1],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0104","prediction":"Fungal cords should redistribute indentation load after localized drying stiffens their outer sheath.","feasible_test":"Map force transmission before and after drying.","contrary_outcome":"Transmission follows unchanged internal paths.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0105","id":"S2-0105","volume":"900v2","title":"A diatom frustule's pores should vent trapped air fast enough to suppress water-entry pressure spikes.","prediction":"A diatom frustule's pores should vent trapped air fast enough to suppress water-entry pressure spikes.","test":"Measure wetting transients with pore-blocked controls.","contrary":"Blocking pores leaves pressure spikes unchanged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0105","prediction":"A diatom frustule's pores should vent trapped air fast enough to suppress water-entry pressure spikes.","feasible_test":"Measure wetting transients with pore-blocked controls.","contrary_outcome":"Blocking pores leaves pressure spikes unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0106","id":"S2-0106","volume":"900v2","title":"A fern leaf underside should retain evaporative anisotropy after flattening because grooves guide vapor escape.","prediction":"A fern leaf underside should retain evaporative anisotropy after flattening because grooves guide vapor escape.","test":"Measure directional vapor flux on flattened samples.","contrary":"Flux becomes isotropic.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0106","prediction":"A fern leaf underside should retain evaporative anisotropy after flattening because grooves guide vapor escape.","feasible_test":"Measure directional vapor flux on flattened samples.","contrary_outcome":"Flux becomes isotropic.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0107","id":"S2-0107","volume":"900v2","title":"A tree bark fissure should capture fog through repeated inertial droplet impacts at its branching junctions.","prediction":"A tree bark fissure should capture fog through repeated inertial droplet impacts at its branching junctions.","test":"Map capture in a wind tunnel.","contrary":"Capture follows exposed area alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0107","prediction":"A tree bark fissure should capture fog through repeated inertial droplet impacts at its branching junctions.","feasible_test":"Map capture in a wind tunnel.","contrary_outcome":"Capture follows exposed area alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0108","id":"S2-0108","volume":"900v2","title":"A fungal spore's ornamentation should shift its tumbling threshold in slow shear.","prediction":"A fungal spore's ornamentation should shift its tumbling threshold in slow shear.","test":"Track rotation and reconstructed surface geometry.","contrary":"Smooth matched replicas tumble identically.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0108","prediction":"A fungal spore's ornamentation should shift its tumbling threshold in slow shear.","feasible_test":"Track rotation and reconstructed surface geometry.","contrary_outcome":"Smooth matched replicas tumble identically.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0109","id":"S2-0109","volume":"900v2","title":"An onion epidermal wall should concentrate shear strain at cell corners before tearing.","prediction":"An onion epidermal wall should concentrate shear strain at cell corners before tearing.","test":"Image strain under biaxial loading.","contrary":"Tearing initiates without corner strain localization.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0109","prediction":"An onion epidermal wall should concentrate shear strain at cell corners before tearing.","feasible_test":"Image strain under biaxial loading.","contrary_outcome":"Tearing initiates without corner strain localization.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0110","id":"S2-0110","volume":"900v2","title":"Plant cuticle wrinkles should relax unevenly when underlying wax redistributes above its softening range.","prediction":"Plant cuticle wrinkles should relax unevenly when underlying wax redistributes above its softening range.","test":"Measure wrinkle topography and wax mobility.","contrary":"Relaxation is uniform and independent of wax motion.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0110","prediction":"Plant cuticle wrinkles should relax unevenly when underlying wax redistributes above its softening range.","feasible_test":"Measure wrinkle topography and wax mobility.","contrary_outcome":"Relaxation is uniform and independent of wax motion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0111","id":"S2-0111","volume":"900v2","title":"A dried mushroom cap should rehydrate faster from its rim because lamellar gaps form parallel capillaries.","prediction":"A dried mushroom cap should rehydrate faster from its rim because lamellar gaps form parallel capillaries.","test":"Measure uptake after rim sealing.","contrary":"Sealing the rim has no effect.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0111","prediction":"A dried mushroom cap should rehydrate faster from its rim because lamellar gaps form parallel capillaries.","feasible_test":"Measure uptake after rim sealing.","contrary_outcome":"Sealing the rim has no effect.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0112","id":"S2-0112","volume":"900v2","title":"A seed coat's electrical impedance should distinguish internal imbibition from surface wetness.","prediction":"A seed coat's electrical impedance should distinguish internal imbibition from surface wetness.","test":"Measure impedance spectra with independent water imaging.","contrary":"Spectra cannot separate internal and surface water.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0112","prediction":"A seed coat's electrical impedance should distinguish internal imbibition from surface wetness.","feasible_test":"Measure impedance spectra with independent water imaging.","contrary_outcome":"Spectra cannot separate internal and surface water.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0113","id":"S2-0113","volume":"900v2","title":"A root crossing an air gap should retain a liquid bridge longer when mucilage strands bear tension.","prediction":"A root crossing an air gap should retain a liquid bridge longer when mucilage strands bear tension.","test":"Measure bridge lifetime and strand extension.","contrary":"Lifetime is independent of strand tension.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0113","prediction":"A root crossing an air gap should retain a liquid bridge longer when mucilage strands bear tension.","feasible_test":"Measure bridge lifetime and strand extension.","contrary_outcome":"Lifetime is independent of strand tension.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0114","id":"S2-0114","volume":"900v2","title":"A leaf litter layer should muffle rain impacts through sequential air-pocket collapse.","prediction":"A leaf litter layer should muffle rain impacts through sequential air-pocket collapse.","test":"Record sound and high-speed compression.","contrary":"Sound attenuation lacks associated pocket collapse.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0114","prediction":"A leaf litter layer should muffle rain impacts through sequential air-pocket collapse.","feasible_test":"Record sound and high-speed compression.","contrary_outcome":"Sound attenuation lacks associated pocket collapse.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0115","id":"S2-0115","volume":"900v2","title":"A cork strip should recover compression through gas re-entry rather than polymer elasticity alone.","prediction":"A cork strip should recover compression through gas re-entry rather than polymer elasticity alone.","test":"Measure recovery under controlled ambient pressure.","contrary":"Recovery is pressure-independent.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0115","prediction":"A cork strip should recover compression through gas re-entry rather than polymer elasticity alone.","feasible_test":"Measure recovery under controlled ambient pressure.","contrary_outcome":"Recovery is pressure-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0116","id":"S2-0116","volume":"900v2","title":"A cotton fiber's lumen should collapse progressively from twist reversals during drying.","prediction":"A cotton fiber's lumen should collapse progressively from twist reversals during drying.","test":"Image lumen cross-sections along the fiber.","contrary":"Collapse sites ignore twist reversals.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0116","prediction":"A cotton fiber's lumen should collapse progressively from twist reversals during drying.","feasible_test":"Image lumen cross-sections along the fiber.","contrary_outcome":"Collapse sites ignore twist reversals.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0117","id":"S2-0117","volume":"900v2","title":"A dead kelp blade should flutter at lower flow speed when internal hydration gradients soften its edges.","prediction":"A dead kelp blade should flutter at lower flow speed when internal hydration gradients soften its edges.","test":"Measure flutter and local modulus.","contrary":"Threshold follows mean stiffness alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0117","prediction":"A dead kelp blade should flutter at lower flow speed when internal hydration gradients soften its edges.","feasible_test":"Measure flutter and local modulus.","contrary_outcome":"Threshold follows mean stiffness alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0118","id":"S2-0118","volume":"900v2","title":"A closed pinecone should retain a humidity gradient that predicts opening delay after transfer.","prediction":"A closed pinecone should retain a humidity gradient that predicts opening delay after transfer.","test":"Map internal humidity and opening latency.","contrary":"Latency lacks dependence on the initial gradient.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0118","prediction":"A closed pinecone should retain a humidity gradient that predicts opening delay after transfer.","feasible_test":"Map internal humidity and opening latency.","contrary_outcome":"Latency lacks dependence on the initial gradient.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0119","id":"S2-0119","volume":"900v2","title":"A fungal rhizomorph junction should mechanically isolate branches through localized shear compliance.","prediction":"A fungal rhizomorph junction should mechanically isolate branches through localized shear compliance.","test":"Measure branch-to-branch impulse transfer.","contrary":"Junction transfer matches a rigid fork.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0119","prediction":"A fungal rhizomorph junction should mechanically isolate branches through localized shear compliance.","feasible_test":"Measure branch-to-branch impulse transfer.","contrary_outcome":"Junction transfer matches a rigid fork.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0120","id":"S2-0120","volume":"900v2","title":"A cereal husk should trap dew preferentially at overlapping ridge intersections.","prediction":"A cereal husk should trap dew preferentially at overlapping ridge intersections.","test":"Image droplet nucleation and growth.","contrary":"Intersections show no excess capture after area correction.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0120","prediction":"A cereal husk should trap dew preferentially at overlapping ridge intersections.","feasible_test":"Image droplet nucleation and growth.","contrary_outcome":"Intersections show no excess capture after area correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0121","id":"S2-0121","volume":"900v2","title":"A cell-free lipid neck should resist fission when a scaffold bridges both sides of the saddle.","prediction":"A cell-free lipid neck should resist fission when a scaffold bridges both sides of the saddle.","test":"Measure fission forces with scaffold localization.","contrary":"Bridging does not raise fission force.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0121","prediction":"A cell-free lipid neck should resist fission when a scaffold bridges both sides of the saddle.","feasible_test":"Measure fission forces with scaffold localization.","contrary_outcome":"Bridging does not raise fission force.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0122","id":"S2-0122","volume":"900v2","title":"Coacervate droplets should exchange cargo asymmetrically after a brief contact because bridge rupture traps unequal fluid volumes.","prediction":"Coacervate droplets should exchange cargo asymmetrically after a brief contact because bridge rupture traps unequal fluid volumes.","test":"Measure cargo balance and rupture geometry.","contrary":"Exchange is symmetric after volume correction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0122","prediction":"Coacervate droplets should exchange cargo asymmetrically after a brief contact because bridge rupture traps unequal fluid volumes.","feasible_test":"Measure cargo balance and rupture geometry.","contrary_outcome":"Exchange is symmetric after volume correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0123","id":"S2-0123","volume":"900v2","title":"A DNA loop should show tension-dependent knot migration without changing knot topology.","prediction":"A DNA loop should show tension-dependent knot migration without changing knot topology.","test":"Track fluorescent knot position under force.","contrary":"Position remains force-independent.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0123","prediction":"A DNA loop should show tension-dependent knot migration without changing knot topology.","feasible_test":"Track fluorescent knot position under force.","contrary_outcome":"Position remains force-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0124","id":"S2-0124","volume":"900v2","title":"A protein gel should retain directional permeability after flow aligns its strands during assembly.","prediction":"A protein gel should retain directional permeability after flow aligns its strands during assembly.","test":"Compare transverse and longitudinal tracer diffusion.","contrary":"Diffusion remains isotropic.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0124","prediction":"A protein gel should retain directional permeability after flow aligns its strands during assembly.","feasible_test":"Compare transverse and longitudinal tracer diffusion.","contrary_outcome":"Diffusion remains isotropic.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0125","id":"S2-0125","volume":"900v2","title":"A vesicle tether should buckle locally when membrane area arrives faster than enclosed fluid.","prediction":"A vesicle tether should buckle locally when membrane area arrives faster than enclosed fluid.","test":"Measure tether shape during rapid area injection.","contrary":"Tether remains cylindrical despite fluid lag.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0125","prediction":"A vesicle tether should buckle locally when membrane area arrives faster than enclosed fluid.","feasible_test":"Measure tether shape during rapid area injection.","contrary_outcome":"Tether remains cylindrical despite fluid lag.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0126","id":"S2-0126","volume":"900v2","title":"An immobilized enzyme patch should generate self-limiting substrate depletion zones that shrink under weak transverse flow.","prediction":"An immobilized enzyme patch should generate self-limiting substrate depletion zones that shrink under weak transverse flow.","test":"Map substrate concentration and flow.","contrary":"Depletion width is insensitive to transverse flow.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0126","prediction":"An immobilized enzyme patch should generate self-limiting substrate depletion zones that shrink under weak transverse flow.","feasible_test":"Map substrate concentration and flow.","contrary_outcome":"Depletion width is insensitive to transverse flow.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0127","id":"S2-0127","volume":"900v2","title":"A synthetic cilia carpet should synchronize through a compliant substrate even in a highly viscous fluid.","prediction":"A synthetic cilia carpet should synchronize through a compliant substrate even in a highly viscous fluid.","test":"Measure phase locking with substrate stiffness controls.","contrary":"Locking vanishes when hydrodynamic coupling is reduced.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0127","prediction":"A synthetic cilia carpet should synchronize through a compliant substrate even in a highly viscous fluid.","feasible_test":"Measure phase locking with substrate stiffness controls.","contrary_outcome":"Locking vanishes when hydrodynamic coupling is reduced.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0128","id":"S2-0128","volume":"900v2","title":"A peptide nanotube should conduct protons intermittently when confined water chains reconnect.","prediction":"A peptide nanotube should conduct protons intermittently when confined water chains reconnect.","test":"Measure conductance and water orientation signatures.","contrary":"Conductance lacks correlated water-chain transitions.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0128","prediction":"A peptide nanotube should conduct protons intermittently when confined water chains reconnect.","feasible_test":"Measure conductance and water orientation signatures.","contrary_outcome":"Conductance lacks correlated water-chain transitions.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0129","id":"S2-0129","volume":"900v2","title":"A lipid monolayer should remember compression direction through persistent domain-edge alignment.","prediction":"A lipid monolayer should remember compression direction through persistent domain-edge alignment.","test":"Image domain orientation after returning to equal area.","contrary":"Orientation becomes isotropic immediately.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0129","prediction":"A lipid monolayer should remember compression direction through persistent domain-edge alignment.","feasible_test":"Image domain orientation after returning to equal area.","contrary_outcome":"Orientation becomes isotropic immediately.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0130","id":"S2-0130","volume":"900v2","title":"A cell-free oscillator compartment should stop oscillating when its boundary adsorbs a limiting intermediate.","prediction":"A cell-free oscillator compartment should stop oscillating when its boundary adsorbs a limiting intermediate.","test":"Measure adsorption and reaction dynamics.","contrary":"Oscillation loss persists on nonadsorbing boundaries.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0130","prediction":"A cell-free oscillator compartment should stop oscillating when its boundary adsorbs a limiting intermediate.","feasible_test":"Measure adsorption and reaction dynamics.","contrary_outcome":"Oscillation loss persists on nonadsorbing boundaries.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0131","id":"S2-0131","volume":"900v2","title":"A crosslinked DNA cage should release cargo preferentially through its least tense face.","prediction":"A crosslinked DNA cage should release cargo preferentially through its least tense face.","test":"Map face deformation and individual escape events.","contrary":"Escape frequency ignores local tension.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0131","prediction":"A crosslinked DNA cage should release cargo preferentially through its least tense face.","feasible_test":"Map face deformation and individual escape events.","contrary_outcome":"Escape frequency ignores local tension.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0132","id":"S2-0132","volume":"900v2","title":"A self-assembled protein ribbon should switch handedness after a domain wall crosses its width.","prediction":"A self-assembled protein ribbon should switch handedness after a domain wall crosses its width.","test":"Image chirality changes at single-domain resolution.","contrary":"Handedness changes occur without domain-wall passage.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0132","prediction":"A self-assembled protein ribbon should switch handedness after a domain wall crosses its width.","feasible_test":"Image chirality changes at single-domain resolution.","contrary_outcome":"Handedness changes occur without domain-wall passage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0133","id":"S2-0133","volume":"900v2","title":"A lipid raft should slow near a membrane thickness step even without chemical binding.","prediction":"A lipid raft should slow near a membrane thickness step even without chemical binding.","test":"Track raft diffusion across patterned supports.","contrary":"Crossing kinetics match uniform-thickness controls.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0133","prediction":"A lipid raft should slow near a membrane thickness step even without chemical binding.","feasible_test":"Track raft diffusion across patterned supports.","contrary_outcome":"Crossing kinetics match uniform-thickness controls.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0134","id":"S2-0134","volume":"900v2","title":"A porous capsule should pulse cargo release when osmotic inflation periodically opens and reseals one seam.","prediction":"A porous capsule should pulse cargo release when osmotic inflation periodically opens and reseals one seam.","test":"Measure seam width, pressure, and flux.","contrary":"Flux pulses lack seam opening.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0134","prediction":"A porous capsule should pulse cargo release when osmotic inflation periodically opens and reseals one seam.","feasible_test":"Measure seam width, pressure, and flux.","contrary_outcome":"Flux pulses lack seam opening.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0135","id":"S2-0135","volume":"900v2","title":"An enzyme-loaded gel should produce an internal moving reaction boundary when product locally immobilizes the enzyme.","prediction":"An enzyme-loaded gel should produce an internal moving reaction boundary when product locally immobilizes the enzyme.","test":"Map enzyme mobility and product formation.","contrary":"Reaction remains spatially homogeneous.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0135","prediction":"An enzyme-loaded gel should produce an internal moving reaction boundary when product locally immobilizes the enzyme.","feasible_test":"Map enzyme mobility and product formation.","contrary_outcome":"Reaction remains spatially homogeneous.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0136","id":"S2-0136","volume":"900v2","title":"A branched DNA construct should exhibit force-history-dependent relaxation from topological trapping.","prediction":"A branched DNA construct should exhibit force-history-dependent relaxation from topological trapping.","test":"Compare equal final forces after distinct loading paths.","contrary":"Relaxation curves coincide.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0136","prediction":"A branched DNA construct should exhibit force-history-dependent relaxation from topological trapping.","feasible_test":"Compare equal final forces after distinct loading paths.","contrary_outcome":"Relaxation curves coincide.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0137","id":"S2-0137","volume":"900v2","title":"A condensate wetting a flexible fiber should wrap it once capillary torque exceeds bending resistance.","prediction":"A condensate wetting a flexible fiber should wrap it once capillary torque exceeds bending resistance.","test":"Measure wrapping thresholds and fiber stiffness.","contrary":"Threshold does not scale with measured bending resistance.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0137","prediction":"A condensate wetting a flexible fiber should wrap it once capillary torque exceeds bending resistance.","feasible_test":"Measure wrapping thresholds and fiber stiffness.","contrary_outcome":"Threshold does not scale with measured bending resistance.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0138","id":"S2-0138","volume":"900v2","title":"A membrane-bound molecular motor should move slower near a curvature saddle because its anchor diffuses anisotropically.","prediction":"A membrane-bound molecular motor should move slower near a curvature saddle because its anchor diffuses anisotropically.","test":"Track motor speed and anchor diffusion.","contrary":"Speed changes remain after anchor diffusion is equalized.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0138","prediction":"A membrane-bound molecular motor should move slower near a curvature saddle because its anchor diffuses anisotropically.","feasible_test":"Track motor speed and anchor diffusion.","contrary_outcome":"Speed changes remain after anchor diffusion is equalized.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0139","id":"S2-0139","volume":"900v2","title":"A reconstituted collagen network should create localized solvent jets when compressed through buckling transitions.","prediction":"A reconstituted collagen network should create localized solvent jets when compressed through buckling transitions.","test":"Image fluid velocity and fiber buckling.","contrary":"Flow follows smooth poroelastic compression only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0139","prediction":"A reconstituted collagen network should create localized solvent jets when compressed through buckling transitions.","feasible_test":"Image fluid velocity and fiber buckling.","contrary_outcome":"Flow follows smooth poroelastic compression only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0140","id":"S2-0140","volume":"900v2","title":"A spherical enzyme shell should outperform a filled particle when oxygen consumption otherwise creates an inactive core.","prediction":"A spherical enzyme shell should outperform a filled particle when oxygen consumption otherwise creates an inactive core.","test":"Measure oxygen profiles and turnover.","contrary":"Shell geometry provides no gain after enzyme normalization.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0140","prediction":"A spherical enzyme shell should outperform a filled particle when oxygen consumption otherwise creates an inactive core.","feasible_test":"Measure oxygen profiles and turnover.","contrary_outcome":"Shell geometry provides no gain after enzyme normalization.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0141","id":"S2-0141","volume":"900v2","title":"A mineral grain should rotate during dissolution when asymmetric etching shifts its buoyant center.","prediction":"A mineral grain should rotate during dissolution when asymmetric etching shifts its buoyant center.","test":"Track free grains and etched mass maps.","contrary":"Rotation lacks correlation with center-of-buoyancy shifts.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0141","prediction":"A mineral grain should rotate during dissolution when asymmetric etching shifts its buoyant center.","feasible_test":"Track free grains and etched mass maps.","contrary_outcome":"Rotation lacks correlation with center-of-buoyancy shifts.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0142","id":"S2-0142","volume":"900v2","title":"A clay suspension should retain shear memory as anisotropic ion diffusion after macroscopic flow stops.","prediction":"A clay suspension should retain shear memory as anisotropic ion diffusion after macroscopic flow stops.","test":"Measure directional diffusion and platelet alignment.","contrary":"Diffusion becomes isotropic before platelet relaxation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0142","prediction":"A clay suspension should retain shear memory as anisotropic ion diffusion after macroscopic flow stops.","feasible_test":"Measure directional diffusion and platelet alignment.","contrary_outcome":"Diffusion becomes isotropic before platelet relaxation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0143","id":"S2-0143","volume":"900v2","title":"A precipitating membrane should self-seal a pressure-induced pinhole through focused reactant delivery.","prediction":"A precipitating membrane should self-seal a pressure-induced pinhole through focused reactant delivery.","test":"Image pinhole conductance and new solid.","contrary":"Conductance does not recover through local deposition.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0143","prediction":"A precipitating membrane should self-seal a pressure-induced pinhole through focused reactant delivery.","feasible_test":"Image pinhole conductance and new solid.","contrary_outcome":"Conductance does not recover through local deposition.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0144","id":"S2-0144","volume":"900v2","title":"A silica gel should become less permeable during initial drying despite losing water because necks contract.","prediction":"A silica gel should become less permeable during initial drying despite losing water because necks contract.","test":"Measure pore necks and permeability simultaneously.","contrary":"Permeability changes follow water fraction without neck contraction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0144","prediction":"A silica gel should become less permeable during initial drying despite losing water because necks contract.","feasible_test":"Measure pore necks and permeability simultaneously.","contrary_outcome":"Permeability changes follow water fraction without neck contraction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0145","id":"S2-0145","volume":"900v2","title":"An evaporating mineral spring analogue should form terrace steps at flow-separation points.","prediction":"An evaporating mineral spring analogue should form terrace steps at flow-separation points.","test":"Track flow fields and precipitation topography.","contrary":"Steps nucleate independently of separation points.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0145","prediction":"An evaporating mineral spring analogue should form terrace steps at flow-separation points.","feasible_test":"Track flow fields and precipitation topography.","contrary_outcome":"Steps nucleate independently of separation points.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0146","id":"S2-0146","volume":"900v2","title":"A rust layer should redirect oxygen transport laterally when wet cracks temporarily seal.","prediction":"A rust layer should redirect oxygen transport laterally when wet cracks temporarily seal.","test":"Map oxygen flux and crack wetness.","contrary":"Flux remains normal to the surface.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0146","prediction":"A rust layer should redirect oxygen transport laterally when wet cracks temporarily seal.","feasible_test":"Map oxygen flux and crack wetness.","contrary_outcome":"Flux remains normal to the surface.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0147","id":"S2-0147","volume":"900v2","title":"A suspended dust aggregate should compact during humidity cycles even without liquid bridges visible at equilibrium.","prediction":"A suspended dust aggregate should compact during humidity cycles even without liquid bridges visible at equilibrium.","test":"Measure mass, size, and transient bridge formation.","contrary":"Compaction requires sustained equilibrium bridges.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0147","prediction":"A suspended dust aggregate should compact during humidity cycles even without liquid bridges visible at equilibrium.","feasible_test":"Measure mass, size, and transient bridge formation.","contrary_outcome":"Compaction requires sustained equilibrium bridges.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0148","id":"S2-0148","volume":"900v2","title":"A salt crystal growing against a soft wall should alternate between displacement and lateral spreading.","prediction":"A salt crystal growing against a soft wall should alternate between displacement and lateral spreading.","test":"Record wall strain and crystal geometry.","contrary":"Growth remains mechanically smooth without alternating modes.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0148","prediction":"A salt crystal growing against a soft wall should alternate between displacement and lateral spreading.","feasible_test":"Record wall strain and crystal geometry.","contrary_outcome":"Growth remains mechanically smooth without alternating modes.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0149","id":"S2-0149","volume":"900v2","title":"A mineral-rich gel should expel colloids ahead of a crystallization front through confinement pressure.","prediction":"A mineral-rich gel should expel colloids ahead of a crystallization front through confinement pressure.","test":"Track colloids and front curvature.","contrary":"Colloids are incorporated without enrichment ahead.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0149","prediction":"A mineral-rich gel should expel colloids ahead of a crystallization front through confinement pressure.","feasible_test":"Track colloids and front curvature.","contrary_outcome":"Colloids are incorporated without enrichment ahead.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0150","id":"S2-0150","volume":"900v2","title":"A clay-coated sand contact should retain water after neighboring open pores drain because confinement lowers evaporation flux.","prediction":"A clay-coated sand contact should retain water after neighboring open pores drain because confinement lowers evaporation flux.","test":"Image contact water and local vapor.","contrary":"Contact retention matches unconfined surface films.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0150","prediction":"A clay-coated sand contact should retain water after neighboring open pores drain because confinement lowers evaporation flux.","feasible_test":"Image contact water and local vapor.","contrary_outcome":"Contact retention matches unconfined surface films.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0151","id":"S2-0151","volume":"900v2","title":"A calcite twin boundary should guide dissolution channels farther than bulk crystal anisotropy predicts.","prediction":"A calcite twin boundary should guide dissolution channels farther than bulk crystal anisotropy predicts.","test":"Map channels relative to crystallographic orientation.","contrary":"Channels follow only lattice orientation.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0151","prediction":"A calcite twin boundary should guide dissolution channels farther than bulk crystal anisotropy predicts.","feasible_test":"Map channels relative to crystallographic orientation.","contrary_outcome":"Channels follow only lattice orientation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0152","id":"S2-0152","volume":"900v2","title":"A phosphate-loaded oxide should release a brief pulse when a drying front disconnects electrolyte pathways.","prediction":"A phosphate-loaded oxide should release a brief pulse when a drying front disconnects electrolyte pathways.","test":"Measure phosphate efflux and ionic connectivity.","contrary":"Release lacks a connectivity threshold.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0152","prediction":"A phosphate-loaded oxide should release a brief pulse when a drying front disconnects electrolyte pathways.","feasible_test":"Measure phosphate efflux and ionic connectivity.","contrary_outcome":"Release lacks a connectivity threshold.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0153","id":"S2-0153","volume":"900v2","title":"A gypsum crust should crack preferentially above hidden substrate stiffness transitions.","prediction":"A gypsum crust should crack preferentially above hidden substrate stiffness transitions.","test":"Map crack sites on mechanically patterned supports.","contrary":"Crack positions ignore stiffness boundaries.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0153","prediction":"A gypsum crust should crack preferentially above hidden substrate stiffness transitions.","feasible_test":"Map crack sites on mechanically patterned supports.","contrary_outcome":"Crack positions ignore stiffness boundaries.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0154","id":"S2-0154","volume":"900v2","title":"A sealed porous rock should exhibit pressure echoes from internal vapor redistribution after a heat pulse.","prediction":"A sealed porous rock should exhibit pressure echoes from internal vapor redistribution after a heat pulse.","test":"Record pressure at multiple sites.","contrary":"Signals match instantaneous thermal expansion alone.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0154","prediction":"A sealed porous rock should exhibit pressure echoes from internal vapor redistribution after a heat pulse.","feasible_test":"Record pressure at multiple sites.","contrary_outcome":"Signals match instantaneous thermal expansion alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0155","id":"S2-0155","volume":"900v2","title":"A mineral membrane should rectify ionic current only while precipitation maintains asymmetric pore charge.","prediction":"A mineral membrane should rectify ionic current only while precipitation maintains asymmetric pore charge.","test":"Measure current-voltage curves during growth and after equilibration.","contrary":"Rectification persists unchanged without active growth.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0155","prediction":"A mineral membrane should rectify ionic current only while precipitation maintains asymmetric pore charge.","feasible_test":"Measure current-voltage curves during growth and after equilibration.","contrary_outcome":"Rectification persists unchanged without active growth.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0156","id":"S2-0156","volume":"900v2","title":"A settling floc should shed fines when its internal drainage rate exceeds contact relaxation.","prediction":"A settling floc should shed fines when its internal drainage rate exceeds contact relaxation.","test":"Image fines release and internal compaction.","contrary":"Shedding depends only on external shear.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0156","prediction":"A settling floc should shed fines when its internal drainage rate exceeds contact relaxation.","feasible_test":"Image fines release and internal compaction.","contrary_outcome":"Shedding depends only on external shear.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0157","id":"S2-0157","volume":"900v2","title":"A sodium-free clay film should swell unevenly after an electric pulse because counterions remain trapped near dead-end pores.","prediction":"A sodium-free clay film should swell unevenly after an electric pulse because counterions remain trapped near dead-end pores.","test":"Map swelling and counterion profiles.","contrary":"Swelling follows uniform ion redistribution.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0157","prediction":"A sodium-free clay film should swell unevenly after an electric pulse because counterions remain trapped near dead-end pores.","feasible_test":"Map swelling and counterion profiles.","contrary_outcome":"Swelling follows uniform ion redistribution.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0158","id":"S2-0158","volume":"900v2","title":"A carbonate-coated bubble should survive compression by folding its shell before dissolving.","prediction":"A carbonate-coated bubble should survive compression by folding its shell before dissolving.","test":"Image shell shape and gas volume.","contrary":"Gas loss precedes any shell folding.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0158","prediction":"A carbonate-coated bubble should survive compression by folding its shell before dissolving.","feasible_test":"Image shell shape and gas volume.","contrary_outcome":"Gas loss precedes any shell folding.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0159","id":"S2-0159","volume":"900v2","title":"A granular bed should generate a transient conductivity maximum when a wetting front creates spanning thin films before pore filling.","prediction":"A granular bed should generate a transient conductivity maximum when a wetting front creates spanning thin films before pore filling.","test":"Measure conductivity and saturation topology.","contrary":"Conductivity rises monotonically with saturation.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0159","prediction":"A granular bed should generate a transient conductivity maximum when a wetting front creates spanning thin films before pore filling.","feasible_test":"Measure conductivity and saturation topology.","contrary_outcome":"Conductivity rises monotonically with saturation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0160","id":"S2-0160","volume":"900v2","title":"A mineral-organic composite should fracture along interfaces enriched by previous drying-induced solute migration.","prediction":"A mineral-organic composite should fracture along interfaces enriched by previous drying-induced solute migration.","test":"Map solute and fracture surfaces.","contrary":"Fractures ignore enrichment after mechanical matching.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0160","prediction":"A mineral-organic composite should fracture along interfaces enriched by previous drying-induced solute migration.","feasible_test":"Map solute and fracture surfaces.","contrary_outcome":"Fractures ignore enrichment after mechanical matching.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0161","id":"S2-0161","volume":"900v2","title":"A suspended photonic crystal should show a resonance shift when acoustic pressure changes its contact network.","prediction":"A suspended photonic crystal should show a resonance shift when acoustic pressure changes its contact network.","test":"Measure spectra and contact geometry.","contrary":"Shifts match bulk compression alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0161","prediction":"A suspended photonic crystal should show a resonance shift when acoustic pressure changes its contact network.","feasible_test":"Measure spectra and contact geometry.","contrary_outcome":"Shifts match bulk compression alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0162","id":"S2-0162","volume":"900v2","title":"An absorbing microdisk should bend toward weaker illumination when self-shadowing amplifies differential heating.","prediction":"An absorbing microdisk should bend toward weaker illumination when self-shadowing amplifies differential heating.","test":"Measure curvature under calibrated illumination gradients.","contrary":"Bending follows the hotter face without self-shadowing feedback.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0162","prediction":"An absorbing microdisk should bend toward weaker illumination when self-shadowing amplifies differential heating.","feasible_test":"Measure curvature under calibrated illumination gradients.","contrary_outcome":"Bending follows the hotter face without self-shadowing feedback.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0163","id":"S2-0163","volume":"900v2","title":"A wrinkled optical film should depolarize transmitted light anisotropically before wrinkles are resolvable by ordinary microscopy.","prediction":"A wrinkled optical film should depolarize transmitted light anisotropically before wrinkles are resolvable by ordinary microscopy.","test":"Compare polarimetry with high-resolution topography.","contrary":"Depolarization begins only after optically visible wrinkling.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0163","prediction":"A wrinkled optical film should depolarize transmitted light anisotropically before wrinkles are resolvable by ordinary microscopy.","feasible_test":"Compare polarimetry with high-resolution topography.","contrary_outcome":"Depolarization begins only after optically visible wrinkling.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0164","id":"S2-0164","volume":"900v2","title":"A liquid-filled photonic pore array should show stepwise resonance jumps as isolated menisci depin.","prediction":"A liquid-filled photonic pore array should show stepwise resonance jumps as isolated menisci depin.","test":"Synchronize spectra and meniscus imaging.","contrary":"Spectra vary continuously despite resolved depinning.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0164","prediction":"A liquid-filled photonic pore array should show stepwise resonance jumps as isolated menisci depin.","feasible_test":"Synchronize spectra and meniscus imaging.","contrary_outcome":"Spectra vary continuously despite resolved depinning.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0165","id":"S2-0165","volume":"900v2","title":"A fluorescent gel should report internal shear localization through spatial lifetime differences even when intensity is uniform.","prediction":"A fluorescent gel should report internal shear localization through spatial lifetime differences even when intensity is uniform.","test":"Map lifetime and displacement fields.","contrary":"Lifetime changes follow concentration alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0165","prediction":"A fluorescent gel should report internal shear localization through spatial lifetime differences even when intensity is uniform.","feasible_test":"Map lifetime and displacement fields.","contrary_outcome":"Lifetime changes follow concentration alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0166","id":"S2-0166","volume":"900v2","title":"A thin optical cavity should ring mechanically after a rapid humidity step because adsorption stress is impulsive.","prediction":"A thin optical cavity should ring mechanically after a rapid humidity step because adsorption stress is impulsive.","test":"Measure cavity displacement and vapor arrival.","contrary":"Response is entirely overdamped at measured material parameters.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0166","prediction":"A thin optical cavity should ring mechanically after a rapid humidity step because adsorption stress is impulsive.","feasible_test":"Measure cavity displacement and vapor arrival.","contrary_outcome":"Response is entirely overdamped at measured material parameters.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0167","id":"S2-0167","volume":"900v2","title":"A thermal emitter with rotating microfacets should modulate far-field spectrum at constant mean temperature.","prediction":"A thermal emitter with rotating microfacets should modulate far-field spectrum at constant mean temperature.","test":"Measure angular geometry, temperature, and emission.","contrary":"Spectral changes vanish after temperature correction.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0167","prediction":"A thermal emitter with rotating microfacets should modulate far-field spectrum at constant mean temperature.","feasible_test":"Measure angular geometry, temperature, and emission.","contrary_outcome":"Spectral changes vanish after temperature correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0168","id":"S2-0168","volume":"900v2","title":"A colloidal lens should change focal length through particle redistribution before its overall shape changes.","prediction":"A colloidal lens should change focal length through particle redistribution before its overall shape changes.","test":"Track focus, particle density, and boundary shape.","contrary":"Focus changes require resolved shape change.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0168","prediction":"A colloidal lens should change focal length through particle redistribution before its overall shape changes.","feasible_test":"Track focus, particle density, and boundary shape.","contrary_outcome":"Focus changes require resolved shape change.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0169","id":"S2-0169","volume":"900v2","title":"A stretched scattering sheet should retain a reversible optical caustic determined by aligned voids.","prediction":"A stretched scattering sheet should retain a reversible optical caustic determined by aligned voids.","test":"Image caustics and void orientation.","contrary":"Caustics do not reverse with void alignment.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0169","prediction":"A stretched scattering sheet should retain a reversible optical caustic determined by aligned voids.","feasible_test":"Image caustics and void orientation.","contrary_outcome":"Caustics do not reverse with void alignment.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0170","id":"S2-0170","volume":"900v2","title":"A porous anti-reflective layer should lose transmission abruptly when condensation connects neighboring pores.","prediction":"A porous anti-reflective layer should lose transmission abruptly when condensation connects neighboring pores.","test":"Measure transmission and water connectivity.","contrary":"Transmission depends smoothly on water volume only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0170","prediction":"A porous anti-reflective layer should lose transmission abruptly when condensation connects neighboring pores.","feasible_test":"Measure transmission and water connectivity.","contrary_outcome":"Transmission depends smoothly on water volume only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0171","id":"S2-0171","volume":"900v2","title":"An elastic optical fiber should emit a short polarization transient when an internal kink slips.","prediction":"An elastic optical fiber should emit a short polarization transient when an internal kink slips.","test":"Synchronize polarimetry and high-speed kink imaging.","contrary":"Transients occur independently of kink slip.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0171","prediction":"An elastic optical fiber should emit a short polarization transient when an internal kink slips.","feasible_test":"Synchronize polarimetry and high-speed kink imaging.","contrary_outcome":"Transients occur independently of kink slip.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0172","id":"S2-0172","volume":"900v2","title":"A resonant membrane should detect liquid-film rupture through a change in mode splitting.","prediction":"A resonant membrane should detect liquid-film rupture through a change in mode splitting.","test":"Measure modes during film thinning.","contrary":"Splitting tracks mass loss without rupture-specific change.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0172","prediction":"A resonant membrane should detect liquid-film rupture through a change in mode splitting.","feasible_test":"Measure modes during film thinning.","contrary_outcome":"Splitting tracks mass loss without rupture-specific change.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0173","id":"S2-0173","volume":"900v2","title":"A gold-free plasmonic analogue should retain optical nonreciprocity only while a traveling mechanical modulation is applied.","prediction":"A gold-free plasmonic analogue should retain optical nonreciprocity only while a traveling mechanical modulation is applied.","test":"Measure forward and reverse transmission with modulation reversal.","contrary":"Transmission remains reciprocal within calibrated sensitivity.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0173","prediction":"A gold-free plasmonic analogue should retain optical nonreciprocity only while a traveling mechanical modulation is applied.","feasible_test":"Measure forward and reverse transmission with modulation reversal.","contrary_outcome":"Transmission remains reciprocal within calibrated sensitivity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0174","id":"S2-0174","volume":"900v2","title":"An optical speckle field should distinguish reversible grain rocking from irreversible granular rearrangement through phase recovery.","prediction":"An optical speckle field should distinguish reversible grain rocking from irreversible granular rearrangement through phase recovery.","test":"Measure complex speckle during load cycles.","contrary":"Phase recovery cannot separate the two motions.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0174","prediction":"An optical speckle field should distinguish reversible grain rocking from irreversible granular rearrangement through phase recovery.","feasible_test":"Measure complex speckle during load cycles.","contrary_outcome":"Phase recovery cannot separate the two motions.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0175","id":"S2-0175","volume":"900v2","title":"A patterned hydrogel should focus sunlight more weakly as absorbed heat opens radial channels.","prediction":"A patterned hydrogel should focus sunlight more weakly as absorbed heat opens radial channels.","test":"Measure focal power and channel geometry.","contrary":"Focal power changes follow refractive index alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0175","prediction":"A patterned hydrogel should focus sunlight more weakly as absorbed heat opens radial channels.","feasible_test":"Measure focal power and channel geometry.","contrary_outcome":"Focal power changes follow refractive index alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0176","id":"S2-0176","volume":"900v2","title":"A sealed microfluidic prism should steer a beam by redistributing two immiscible liquids under vibration.","prediction":"A sealed microfluidic prism should steer a beam by redistributing two immiscible liquids under vibration.","test":"Track interface tilt and beam angle.","contrary":"Beam motion persists without interface redistribution.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0176","prediction":"A sealed microfluidic prism should steer a beam by redistributing two immiscible liquids under vibration.","feasible_test":"Track interface tilt and beam angle.","contrary_outcome":"Beam motion persists without interface redistribution.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0177","id":"S2-0177","volume":"900v2","title":"A transparent aerogel should reveal damage through increased photon residence time before visible opacity develops.","prediction":"A transparent aerogel should reveal damage through increased photon residence time before visible opacity develops.","test":"Measure time-resolved transmission during loading.","contrary":"Residence times remain unchanged before opacity.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0177","prediction":"A transparent aerogel should reveal damage through increased photon residence time before visible opacity develops.","feasible_test":"Measure time-resolved transmission during loading.","contrary_outcome":"Residence times remain unchanged before opacity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0178","id":"S2-0178","volume":"900v2","title":"A corrugated reflector should convert thermal expansion into a wavelength-selective angular shift.","prediction":"A corrugated reflector should convert thermal expansion into a wavelength-selective angular shift.","test":"Measure angle-resolved spectra across temperature cycles.","contrary":"Shift is wavelength-independent or fully rigid-body motion.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0178","prediction":"A corrugated reflector should convert thermal expansion into a wavelength-selective angular shift.","feasible_test":"Measure angle-resolved spectra across temperature cycles.","contrary_outcome":"Shift is wavelength-independent or fully rigid-body motion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0179","id":"S2-0179","volume":"900v2","title":"A passive optical tag should distinguish immersion from heavy fog through the lifetime of trapped-air resonance peaks.","prediction":"A passive optical tag should distinguish immersion from heavy fog through the lifetime of trapped-air resonance peaks.","test":"Measure spectra during controlled wetting modes.","contrary":"Resonance lifetimes overlap across modes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0179","prediction":"A passive optical tag should distinguish immersion from heavy fog through the lifetime of trapped-air resonance peaks.","feasible_test":"Measure spectra during controlled wetting modes.","contrary_outcome":"Resonance lifetimes overlap across modes.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0180","id":"S2-0180","volume":"900v2","title":"A flexible acoustic cavity should suppress one optical scattering mode by mechanically aligning suspended fibers.","prediction":"A flexible acoustic cavity should suppress one optical scattering mode by mechanically aligning suspended fibers.","test":"Measure simultaneous acoustic response and scattering modes.","contrary":"Mode suppression lacks fiber alignment.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0180","prediction":"A flexible acoustic cavity should suppress one optical scattering mode by mechanically aligning suspended fibers.","feasible_test":"Measure simultaneous acoustic response and scattering modes.","contrary_outcome":"Mode suppression lacks fiber alignment.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0181","id":"S2-0181","volume":"900v2","title":"An annular liquid film should rupture first where a substrate's elastic waves focus.","prediction":"An annular liquid film should rupture first where a substrate's elastic waves focus.","test":"Image rupture during calibrated substrate impulses.","contrary":"Rupture ignores wave focusing.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0181","prediction":"An annular liquid film should rupture first where a substrate's elastic waves focus.","feasible_test":"Image rupture during calibrated substrate impulses.","contrary_outcome":"Rupture ignores wave focusing.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0182","id":"S2-0182","volume":"900v2","title":"A droplet trapped between elastic posts should jump after slow evaporation crosses a geometric instability.","prediction":"A droplet trapped between elastic posts should jump after slow evaporation crosses a geometric instability.","test":"Record contact angles and launch energy.","contrary":"Release remains quasistatic without jumping.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0182","prediction":"A droplet trapped between elastic posts should jump after slow evaporation crosses a geometric instability.","feasible_test":"Record contact angles and launch energy.","contrary_outcome":"Release remains quasistatic without jumping.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0183","id":"S2-0183","volume":"900v2","title":"A foam channel should rectify oscillatory flow when its walls deform with unequal relaxation times.","prediction":"A foam channel should rectify oscillatory flow when its walls deform with unequal relaxation times.","test":"Measure net transport under zero-mean forcing.","contrary":"Transport remains zero after drift correction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0183","prediction":"A foam channel should rectify oscillatory flow when its walls deform with unequal relaxation times.","feasible_test":"Measure net transport under zero-mean forcing.","contrary_outcome":"Transport remains zero after drift correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0184","id":"S2-0184","volume":"900v2","title":"A water bridge between rotating disks should develop a torsional buckling mode before breakup.","prediction":"A water bridge between rotating disks should develop a torsional buckling mode before breakup.","test":"Image bridge shape and torque.","contrary":"Breakup occurs without torsional deformation.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0184","prediction":"A water bridge between rotating disks should develop a torsional buckling mode before breakup.","feasible_test":"Image bridge shape and torque.","contrary_outcome":"Breakup occurs without torsional deformation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0185","id":"S2-0185","volume":"900v2","title":"A floating elastic loop should migrate toward a standing-wave node selected by its deformation state.","prediction":"A floating elastic loop should migrate toward a standing-wave node selected by its deformation state.","test":"Track loops with independently varied compliance.","contrary":"Migration depends only on displaced volume.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0185","prediction":"A floating elastic loop should migrate toward a standing-wave node selected by its deformation state.","feasible_test":"Track loops with independently varied compliance.","contrary_outcome":"Migration depends only on displaced volume.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0186","id":"S2-0186","volume":"900v2","title":"A porous bead should spin under a radial evaporation gradient because pore outflows carry unequal momentum.","prediction":"A porous bead should spin under a radial evaporation gradient because pore outflows carry unequal momentum.","test":"Track rotation with vapor flux mapping.","contrary":"Rotation vanishes when external convection is suppressed.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0186","prediction":"A porous bead should spin under a radial evaporation gradient because pore outflows carry unequal momentum.","feasible_test":"Track rotation with vapor flux mapping.","contrary_outcome":"Rotation vanishes when external convection is suppressed.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0187","id":"S2-0187","volume":"900v2","title":"A capillary valve should reopen after a delay set by dissolved-gas diffusion into its trapped bubble.","prediction":"A capillary valve should reopen after a delay set by dissolved-gas diffusion into its trapped bubble.","test":"Measure delay with bubble-volume imaging.","contrary":"Delay is independent of gas diffusivity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0187","prediction":"A capillary valve should reopen after a delay set by dissolved-gas diffusion into its trapped bubble.","feasible_test":"Measure delay with bubble-volume imaging.","contrary_outcome":"Delay is independent of gas diffusivity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0188","id":"S2-0188","volume":"900v2","title":"A thin oil lens should split when a neighboring surfactant front creates a transient compressive stress.","prediction":"A thin oil lens should split when a neighboring surfactant front creates a transient compressive stress.","test":"Measure surface flow and lens topology.","contrary":"Splitting requires direct front contact.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0188","prediction":"A thin oil lens should split when a neighboring surfactant front creates a transient compressive stress.","feasible_test":"Measure surface flow and lens topology.","contrary_outcome":"Splitting requires direct front contact.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0189","id":"S2-0189","volume":"900v2","title":"A falling liquid sheet should retain an upstream perturbation as downstream thickness stripes.","prediction":"A falling liquid sheet should retain an upstream perturbation as downstream thickness stripes.","test":"Map sheet thickness after localized pulses.","contrary":"Perturbations disperse without persistent stripes.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0189","prediction":"A falling liquid sheet should retain an upstream perturbation as downstream thickness stripes.","feasible_test":"Map sheet thickness after localized pulses.","contrary_outcome":"Perturbations disperse without persistent stripes.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0190","id":"S2-0190","volume":"900v2","title":"A confined bubble should translate under symmetric squeezing if its two contact lines have different aging rates.","prediction":"A confined bubble should translate under symmetric squeezing if its two contact lines have different aging rates.","test":"Measure displacement with contact-aging controls.","contrary":"Net motion disappears after geometric correction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0190","prediction":"A confined bubble should translate under symmetric squeezing if its two contact lines have different aging rates.","feasible_test":"Measure displacement with contact-aging controls.","contrary_outcome":"Net motion disappears after geometric correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0191","id":"S2-0191","volume":"900v2","title":"A hydrogel sphere should roll uphill on a warm wet incline through asymmetric swelling.","prediction":"A hydrogel sphere should roll uphill on a warm wet incline through asymmetric swelling.","test":"Measure torque and local swelling.","contrary":"Motion follows only evaporative airflow.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0191","prediction":"A hydrogel sphere should roll uphill on a warm wet incline through asymmetric swelling.","feasible_test":"Measure torque and local swelling.","contrary_outcome":"Motion follows only evaporative airflow.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0192","id":"S2-0192","volume":"900v2","title":"A flexible capillary should collapse in traveling segments when drained faster than its wall relaxes.","prediction":"A flexible capillary should collapse in traveling segments when drained faster than its wall relaxes.","test":"Record lumen shape and outlet flux.","contrary":"Collapse remains spatially uniform.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0192","prediction":"A flexible capillary should collapse in traveling segments when drained faster than its wall relaxes.","feasible_test":"Record lumen shape and outlet flux.","contrary_outcome":"Collapse remains spatially uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0193","id":"S2-0193","volume":"900v2","title":"A liquid rivulet should branch at a stiffness boundary on a chemically uniform soft substrate.","prediction":"A liquid rivulet should branch at a stiffness boundary on a chemically uniform soft substrate.","test":"Image flow and substrate strain.","contrary":"Branching ignores stiffness changes.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0193","prediction":"A liquid rivulet should branch at a stiffness boundary on a chemically uniform soft substrate.","feasible_test":"Image flow and substrate strain.","contrary_outcome":"Branching ignores stiffness changes.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0194","id":"S2-0194","volume":"900v2","title":"An evaporating droplet should entrain a floating filament into a stable spiral through a moving contact line.","prediction":"An evaporating droplet should entrain a floating filament into a stable spiral through a moving contact line.","test":"Track filament shape and contact line.","contrary":"Spirals require bulk rotational flow.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0194","prediction":"An evaporating droplet should entrain a floating filament into a stable spiral through a moving contact line.","feasible_test":"Track filament shape and contact line.","contrary_outcome":"Spirals require bulk rotational flow.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0195","id":"S2-0195","volume":"900v2","title":"A pendant drop should emit a narrow acoustic pulse when an internal gas inclusion merges with its surface.","prediction":"A pendant drop should emit a narrow acoustic pulse when an internal gas inclusion merges with its surface.","test":"Record pressure and high-speed merger geometry.","contrary":"Pulse lacks a reproducible merger-specific component.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0195","prediction":"A pendant drop should emit a narrow acoustic pulse when an internal gas inclusion merges with its surface.","feasible_test":"Record pressure and high-speed merger geometry.","contrary_outcome":"Pulse lacks a reproducible merger-specific component.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0196","id":"S2-0196","volume":"900v2","title":"A shallow liquid layer should suppress capillary waves over a buried compliant inclusion.","prediction":"A shallow liquid layer should suppress capillary waves over a buried compliant inclusion.","test":"Measure wave transmission and inclusion deformation.","contrary":"Transmission matches rigid inclusions of identical geometry.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0196","prediction":"A shallow liquid layer should suppress capillary waves over a buried compliant inclusion.","feasible_test":"Measure wave transmission and inclusion deformation.","contrary_outcome":"Transmission matches rigid inclusions of identical geometry.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0197","id":"S2-0197","volume":"900v2","title":"A water-filled flexible ring should develop a preferred out-of-plane shape after internal circulation stops.","prediction":"A water-filled flexible ring should develop a preferred out-of-plane shape after internal circulation stops.","test":"Track shape and residual angular momentum.","contrary":"Shape returns uniquely to a plane.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0197","prediction":"A water-filled flexible ring should develop a preferred out-of-plane shape after internal circulation stops.","feasible_test":"Track shape and residual angular momentum.","contrary_outcome":"Shape returns uniquely to a plane.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0198","id":"S2-0198","volume":"900v2","title":"A pinned droplet should display a force plateau while its contact line peels sequentially from microsteps.","prediction":"A pinned droplet should display a force plateau while its contact line peels sequentially from microsteps.","test":"Measure lateral force and contact position.","contrary":"Force varies smoothly without peeling plateaus.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0198","prediction":"A pinned droplet should display a force plateau while its contact line peels sequentially from microsteps.","feasible_test":"Measure lateral force and contact position.","contrary_outcome":"Force varies smoothly without peeling plateaus.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0199","id":"S2-0199","volume":"900v2","title":"A drainage film should form temporary flow channels along regions of lower interfacial viscosity.","prediction":"A drainage film should form temporary flow channels along regions of lower interfacial viscosity.","test":"Map film thickness and surface rheology.","contrary":"Channels follow thickness alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0199","prediction":"A drainage film should form temporary flow channels along regions of lower interfacial viscosity.","feasible_test":"Map film thickness and surface rheology.","contrary_outcome":"Channels follow thickness alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0200","id":"S2-0200","volume":"900v2","title":"A wet granular arch should survive unloading through capillary-force redistribution between contacts.","prediction":"A wet granular arch should survive unloading through capillary-force redistribution between contacts.","test":"Measure contact forces during load removal.","contrary":"Survival is explained by unchanged bridge forces.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0200","prediction":"A wet granular arch should survive unloading through capillary-force redistribution between contacts.","feasible_test":"Measure contact forces during load removal.","contrary_outcome":"Survival is explained by unchanged bridge forces.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0201","id":"S2-0201","volume":"900v2","title":"A compressible foam should expel liquid in bursts synchronized with cell-wall buckling.","prediction":"A compressible foam should expel liquid in bursts synchronized with cell-wall buckling.","test":"Measure outflow and local wall deformation.","contrary":"Outflow lacks temporal coupling to buckling.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0201","prediction":"A compressible foam should expel liquid in bursts synchronized with cell-wall buckling.","feasible_test":"Measure outflow and local wall deformation.","contrary_outcome":"Outflow lacks temporal coupling to buckling.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0202","id":"S2-0202","volume":"900v2","title":"A liquid bridge should distinguish a porous from a nonporous substrate through its neck-oscillation phase.","prediction":"A liquid bridge should distinguish a porous from a nonporous substrate through its neck-oscillation phase.","test":"Measure phase while matching static contact angle.","contrary":"Phase differences vanish after volume correction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0202","prediction":"A liquid bridge should distinguish a porous from a nonporous substrate through its neck-oscillation phase.","feasible_test":"Measure phase while matching static contact angle.","contrary_outcome":"Phase differences vanish after volume correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0203","id":"S2-0203","volume":"900v2","title":"A sealed droplet array should exchange vapor preferentially along thermally conductive links.","prediction":"A sealed droplet array should exchange vapor preferentially along thermally conductive links.","test":"Track individual volumes and link temperatures.","contrary":"Exchange depends only on droplet spacing.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0203","prediction":"A sealed droplet array should exchange vapor preferentially along thermally conductive links.","feasible_test":"Track individual volumes and link temperatures.","contrary_outcome":"Exchange depends only on droplet spacing.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0204","id":"S2-0204","volume":"900v2","title":"A spinning droplet should retain equatorial solute enrichment after rotation stops if viscosity rises locally.","prediction":"A spinning droplet should retain equatorial solute enrichment after rotation stops if viscosity rises locally.","test":"Map solute and velocity relaxation.","contrary":"Enrichment disappears on the measured diffusion timescale.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0204","prediction":"A spinning droplet should retain equatorial solute enrichment after rotation stops if viscosity rises locally.","feasible_test":"Map solute and velocity relaxation.","contrary_outcome":"Enrichment disappears on the measured diffusion timescale.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0205","id":"S2-0205","volume":"900v2","title":"A viscous thread should buckle helically at lower compression when its surface carries an elastic skin.","prediction":"A viscous thread should buckle helically at lower compression when its surface carries an elastic skin.","test":"Measure buckling threshold and skin modulus.","contrary":"Threshold follows bulk viscosity alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0205","prediction":"A viscous thread should buckle helically at lower compression when its surface carries an elastic skin.","feasible_test":"Measure buckling threshold and skin modulus.","contrary_outcome":"Threshold follows bulk viscosity alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0206","id":"S2-0206","volume":"900v2","title":"A droplet on a porous slope should reverse direction when imbibition shifts its center of mass uphill.","prediction":"A droplet on a porous slope should reverse direction when imbibition shifts its center of mass uphill.","test":"Track mass distribution and motion.","contrary":"Direction never reverses despite verified redistribution.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0206","prediction":"A droplet on a porous slope should reverse direction when imbibition shifts its center of mass uphill.","feasible_test":"Track mass distribution and motion.","contrary_outcome":"Direction never reverses despite verified redistribution.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0207","id":"S2-0207","volume":"900v2","title":"A nanofluidic slit should release trapped ions abruptly when elastic wall fluctuations exceed the hydrated-ion diameter.","prediction":"A nanofluidic slit should release trapped ions abruptly when elastic wall fluctuations exceed the hydrated-ion diameter.","test":"Measure current bursts and wall motion.","contrary":"Bursts remain unrelated to wall fluctuations.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0207","prediction":"A nanofluidic slit should release trapped ions abruptly when elastic wall fluctuations exceed the hydrated-ion diameter.","feasible_test":"Measure current bursts and wall motion.","contrary_outcome":"Bursts remain unrelated to wall fluctuations.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0208","id":"S2-0208","volume":"900v2","title":"A bubble train should develop alternating spacing through delayed elastic recovery of its channel walls.","prediction":"A bubble train should develop alternating spacing through delayed elastic recovery of its channel walls.","test":"Track bubble intervals in compliant channels.","contrary":"Spacing remains uniform or matches rigid channels.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0208","prediction":"A bubble train should develop alternating spacing through delayed elastic recovery of its channel walls.","feasible_test":"Track bubble intervals in compliant channels.","contrary_outcome":"Spacing remains uniform or matches rigid channels.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0209","id":"S2-0209","volume":"900v2","title":"A capillary wick should pause its front at a geometric expansion until adsorbed films connect downstream corners.","prediction":"A capillary wick should pause its front at a geometric expansion until adsorbed films connect downstream corners.","test":"Image films and front latency.","contrary":"Front advance occurs without film connection.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0209","prediction":"A capillary wick should pause its front at a geometric expansion until adsorbed films connect downstream corners.","feasible_test":"Image films and front latency.","contrary_outcome":"Front advance occurs without film connection.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0210","id":"S2-0210","volume":"900v2","title":"A liquid lens should stabilize a soft membrane wrinkle by concentrating pressure at its edges.","prediction":"A liquid lens should stabilize a soft membrane wrinkle by concentrating pressure at its edges.","test":"Measure wrinkle lifetime with movable lenses.","contrary":"Lens position does not alter wrinkle stability.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0210","prediction":"A liquid lens should stabilize a soft membrane wrinkle by concentrating pressure at its edges.","feasible_test":"Measure wrinkle lifetime with movable lenses.","contrary_outcome":"Lens position does not alter wrinkle stability.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0211","id":"S2-0211","volume":"900v2","title":"A frictional slider should emit a reproducible high-frequency precursor when contact junctions fail sequentially.","prediction":"A frictional slider should emit a reproducible high-frequency precursor when contact junctions fail sequentially.","test":"Measure acoustic emission and microscopic slip.","contrary":"Precursors occur only after global sliding.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0211","prediction":"A frictional slider should emit a reproducible high-frequency precursor when contact junctions fail sequentially.","feasible_test":"Measure acoustic emission and microscopic slip.","contrary_outcome":"Precursors occur only after global sliding.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0212","id":"S2-0212","volume":"900v2","title":"A twisted ribbon should localize a tear at a curvature singularity rather than the greatest tensile stress.","prediction":"A twisted ribbon should localize a tear at a curvature singularity rather than the greatest tensile stress.","test":"Map curvature, strain, and tear onset.","contrary":"Tear location follows tensile stress alone.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0212","prediction":"A twisted ribbon should localize a tear at a curvature singularity rather than the greatest tensile stress.","feasible_test":"Map curvature, strain, and tear onset.","contrary_outcome":"Tear location follows tensile stress alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0213","id":"S2-0213","volume":"900v2","title":"An elastic shell should retain a hidden indentation memory through residual ridge curvature.","prediction":"An elastic shell should retain a hidden indentation memory through residual ridge curvature.","test":"Compare reinsertion force at previous and fresh sites.","contrary":"Forces match after complete shape recovery.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0213","prediction":"An elastic shell should retain a hidden indentation memory through residual ridge curvature.","feasible_test":"Compare reinsertion force at previous and fresh sites.","contrary_outcome":"Forces match after complete shape recovery.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0214","id":"S2-0214","volume":"900v2","title":"A granular column should transmit a tensile-looking surface wave through reversible loss of contact.","prediction":"A granular column should transmit a tensile-looking surface wave through reversible loss of contact.","test":"Measure particle motion and contact forces.","contrary":"Wave transport requires continuous compressive contacts.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0214","prediction":"A granular column should transmit a tensile-looking surface wave through reversible loss of contact.","feasible_test":"Measure particle motion and contact forces.","contrary_outcome":"Wave transport requires continuous compressive contacts.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0215","id":"S2-0215","volume":"900v2","title":"A woven mesh should tighten around an inclusion under cyclic transverse loading.","prediction":"A woven mesh should tighten around an inclusion under cyclic transverse loading.","test":"Track pore geometry and inclusion retention.","contrary":"Retention remains unchanged after equal energy input.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0215","prediction":"A woven mesh should tighten around an inclusion under cyclic transverse loading.","feasible_test":"Track pore geometry and inclusion retention.","contrary_outcome":"Retention remains unchanged after equal energy input.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0216","id":"S2-0216","volume":"900v2","title":"A disordered beam lattice should arrest cracks by rotating a floppy mode ahead of the crack tip.","prediction":"A disordered beam lattice should arrest cracks by rotating a floppy mode ahead of the crack tip.","test":"Map local modes during fracture.","contrary":"Arrest occurs without mode reorientation.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0216","prediction":"A disordered beam lattice should arrest cracks by rotating a floppy mode ahead of the crack tip.","feasible_test":"Map local modes during fracture.","contrary_outcome":"Arrest occurs without mode reorientation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0217","id":"S2-0217","volume":"900v2","title":"A sealed elastomer cavity should delay cavitation through gas diffusion out of its wall.","prediction":"A sealed elastomer cavity should delay cavitation through gas diffusion out of its wall.","test":"Measure threshold after controlled resting times.","contrary":"Threshold is independent of wall gas content.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0217","prediction":"A sealed elastomer cavity should delay cavitation through gas diffusion out of its wall.","feasible_test":"Measure threshold after controlled resting times.","contrary_outcome":"Threshold is independent of wall gas content.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0218","id":"S2-0218","volume":"900v2","title":"An adhesive tape should produce alternating peel-force bands when backing twist couples to the peel front.","prediction":"An adhesive tape should produce alternating peel-force bands when backing twist couples to the peel front.","test":"Measure front shape and force.","contrary":"Banding persists unchanged with twist constrained.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0218","prediction":"An adhesive tape should produce alternating peel-force bands when backing twist couples to the peel front.","feasible_test":"Measure front shape and force.","contrary_outcome":"Banding persists unchanged with twist constrained.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0219","id":"S2-0219","volume":"900v2","title":"A folded sheet should route an impact along a crease whose tangent aligns with its softest mode.","prediction":"A folded sheet should route an impact along a crease whose tangent aligns with its softest mode.","test":"Image transient energy distribution.","contrary":"Energy routing follows geometric distance only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0219","prediction":"A folded sheet should route an impact along a crease whose tangent aligns with its softest mode.","feasible_test":"Image transient energy distribution.","contrary_outcome":"Energy routing follows geometric distance only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0220","id":"S2-0220","volume":"900v2","title":"A magnet-free mechanical chain should trap vibration near a moving stiffness defect.","prediction":"A magnet-free mechanical chain should trap vibration near a moving stiffness defect.","test":"Track energy while translating the defect.","contrary":"Energy remains stationary or radiates immediately.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0220","prediction":"A magnet-free mechanical chain should trap vibration near a moving stiffness defect.","feasible_test":"Track energy while translating the defect.","contrary_outcome":"Energy remains stationary or radiates immediately.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0221","id":"S2-0221","volume":"900v2","title":"A hollow bead packing should display two compression plateaus from contact rearrangement and shell collapse.","prediction":"A hollow bead packing should display two compression plateaus from contact rearrangement and shell collapse.","test":"Measure tomography and force curves.","contrary":"Only one mechanism accounts for all plateau strain.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0221","prediction":"A hollow bead packing should display two compression plateaus from contact rearrangement and shell collapse.","feasible_test":"Measure tomography and force curves.","contrary_outcome":"Only one mechanism accounts for all plateau strain.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0222","id":"S2-0222","volume":"900v2","title":"An elastic tube knot should open asymmetrically when internal pressure reduces contact friction locally.","prediction":"An elastic tube knot should open asymmetrically when internal pressure reduces contact friction locally.","test":"Image contact separation while pressurizing.","contrary":"Opening is symmetric after geometric correction.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0222","prediction":"An elastic tube knot should open asymmetrically when internal pressure reduces contact friction locally.","feasible_test":"Image contact separation while pressurizing.","contrary_outcome":"Opening is symmetric after geometric correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0223","id":"S2-0223","volume":"900v2","title":"A prestrained membrane should deflect a crack away from a weak interface by rotating its principal tension.","prediction":"A prestrained membrane should deflect a crack away from a weak interface by rotating its principal tension.","test":"Map stress and crack angle.","contrary":"Crack always follows the weak interface.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0223","prediction":"A prestrained membrane should deflect a crack away from a weak interface by rotating its principal tension.","feasible_test":"Map stress and crack angle.","contrary_outcome":"Crack always follows the weak interface.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0224","id":"S2-0224","volume":"900v2","title":"A foam block should become acoustically anisotropic after partial crushing even after dimensional recovery.","prediction":"A foam block should become acoustically anisotropic after partial crushing even after dimensional recovery.","test":"Measure directional sound speeds after recovery.","contrary":"Sound speeds return to isotropy.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0224","prediction":"A foam block should become acoustically anisotropic after partial crushing even after dimensional recovery.","feasible_test":"Measure directional sound speeds after recovery.","contrary_outcome":"Sound speeds return to isotropy.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0225","id":"S2-0225","volume":"900v2","title":"A rough elastic contact should stiffen after repeated subslip pulses through redistribution of true contact area.","prediction":"A rough elastic contact should stiffen after repeated subslip pulses through redistribution of true contact area.","test":"Measure contact maps and incremental stiffness.","contrary":"Stiffness changes lack contact-area redistribution.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0225","prediction":"A rough elastic contact should stiffen after repeated subslip pulses through redistribution of true contact area.","feasible_test":"Measure contact maps and incremental stiffness.","contrary_outcome":"Stiffness changes lack contact-area redistribution.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0226","id":"S2-0226","volume":"900v2","title":"A bistable beam pair should select opposite states under slow loading because their shared support stores antisymmetric strain.","prediction":"A bistable beam pair should select opposite states under slow loading because their shared support stores antisymmetric strain.","test":"Measure support strain and state selection.","contrary":"Selections remain independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0226","prediction":"A bistable beam pair should select opposite states under slow loading because their shared support stores antisymmetric strain.","feasible_test":"Measure support strain and state selection.","contrary_outcome":"Selections remain independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0227","id":"S2-0227","volume":"900v2","title":"A suspended plate should damp more strongly when liquid inclusions migrate toward bending antinodes.","prediction":"A suspended plate should damp more strongly when liquid inclusions migrate toward bending antinodes.","test":"Track inclusions and modal decay.","contrary":"Damping is independent of inclusion position.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0227","prediction":"A suspended plate should damp more strongly when liquid inclusions migrate toward bending antinodes.","feasible_test":"Track inclusions and modal decay.","contrary_outcome":"Damping is independent of inclusion position.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0228","id":"S2-0228","volume":"900v2","title":"A compressed fiber bundle should transmit torque through contact chirality even with achiral individual fibers.","prediction":"A compressed fiber bundle should transmit torque through contact chirality even with achiral individual fibers.","test":"Measure torque under mirrored packing preparation.","contrary":"Torque does not reverse with packing chirality.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0228","prediction":"A compressed fiber bundle should transmit torque through contact chirality even with achiral individual fibers.","feasible_test":"Measure torque under mirrored packing preparation.","contrary_outcome":"Torque does not reverse with packing chirality.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0229","id":"S2-0229","volume":"900v2","title":"A mechanical metamaterial should reveal a buried broken strut through localized mode splitting before static stiffness changes.","prediction":"A mechanical metamaterial should reveal a buried broken strut through localized mode splitting before static stiffness changes.","test":"Compare spectra with blinded strut damage.","contrary":"Splitting cannot discriminate damage.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0229","prediction":"A mechanical metamaterial should reveal a buried broken strut through localized mode splitting before static stiffness changes.","feasible_test":"Compare spectra with blinded strut damage.","contrary_outcome":"Splitting cannot discriminate damage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0230","id":"S2-0230","volume":"900v2","title":"A thin coating should blister in rings when interfacial fluid must drain through a central defect.","prediction":"A thin coating should blister in rings when interfacial fluid must drain through a central defect.","test":"Image pressure-driven blister growth.","contrary":"Blisters remain single domes without ring localization.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0230","prediction":"A thin coating should blister in rings when interfacial fluid must drain through a central defect.","feasible_test":"Image pressure-driven blister growth.","contrary_outcome":"Blisters remain single domes without ring localization.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0231","id":"S2-0231","volume":"900v2","title":"An ice lens should bend a compliant pore wall before visible crystal invasion.","prediction":"An ice lens should bend a compliant pore wall before visible crystal invasion.","test":"Measure wall displacement and crystal position.","contrary":"Deflection begins only after invasion.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0231","prediction":"An ice lens should bend a compliant pore wall before visible crystal invasion.","feasible_test":"Measure wall displacement and crystal position.","contrary_outcome":"Deflection begins only after invasion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0232","id":"S2-0232","volume":"900v2","title":"A frost layer should shed by torsional failure when thermal expansion differs along two support directions.","prediction":"A frost layer should shed by torsional failure when thermal expansion differs along two support directions.","test":"Measure torque and fracture paths.","contrary":"Shedding remains purely tensile.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0232","prediction":"A frost layer should shed by torsional failure when thermal expansion differs along two support directions.","feasible_test":"Measure torque and fracture paths.","contrary_outcome":"Shedding remains purely tensile.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0233","id":"S2-0233","volume":"900v2","title":"A snow bridge should strengthen during a short heat pulse through vapor redeposition at its narrowest neck.","prediction":"A snow bridge should strengthen during a short heat pulse through vapor redeposition at its narrowest neck.","test":"Image neck geometry and failure load.","contrary":"Strength follows temperature softening without neck growth.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0233","prediction":"A snow bridge should strengthen during a short heat pulse through vapor redeposition at its narrowest neck.","feasible_test":"Image neck geometry and failure load.","contrary_outcome":"Strength follows temperature softening without neck growth.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0234","id":"S2-0234","volume":"900v2","title":"A freezing droplet should trap a central liquid channel that conducts pressure until its final closure.","prediction":"A freezing droplet should trap a central liquid channel that conducts pressure until its final closure.","test":"Measure pressure communication and freezing fronts.","contrary":"Communication stops before channel closure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0234","prediction":"A freezing droplet should trap a central liquid channel that conducts pressure until its final closure.","feasible_test":"Measure pressure communication and freezing fronts.","contrary_outcome":"Communication stops before channel closure.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0235","id":"S2-0235","volume":"900v2","title":"A melting porous ice block should develop preferred drainage paths from elastic crack opening.","prediction":"A melting porous ice block should develop preferred drainage paths from elastic crack opening.","test":"Image cracks and melt flux.","contrary":"Drainage paths occur without crack deformation.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0235","prediction":"A melting porous ice block should develop preferred drainage paths from elastic crack opening.","feasible_test":"Image cracks and melt flux.","contrary_outcome":"Drainage paths occur without crack deformation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0236","id":"S2-0236","volume":"900v2","title":"A supercooled water film should freeze in bands when recalescence repeatedly halts the advancing front.","prediction":"A supercooled water film should freeze in bands when recalescence repeatedly halts the advancing front.","test":"Measure temperature and front velocity.","contrary":"Band formation lacks thermal stopping events.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0236","prediction":"A supercooled water film should freeze in bands when recalescence repeatedly halts the advancing front.","feasible_test":"Measure temperature and front velocity.","contrary_outcome":"Band formation lacks thermal stopping events.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0237","id":"S2-0237","volume":"900v2","title":"An ice-coated wire should detach its sheath after a traveling thermal pulse creates an interfacial stress wave.","prediction":"An ice-coated wire should detach its sheath after a traveling thermal pulse creates an interfacial stress wave.","test":"Measure detachment location and thermal timing.","contrary":"Detachment follows only local complete melting.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0237","prediction":"An ice-coated wire should detach its sheath after a traveling thermal pulse creates an interfacial stress wave.","feasible_test":"Measure detachment location and thermal timing.","contrary_outcome":"Detachment follows only local complete melting.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0238","id":"S2-0238","volume":"900v2","title":"A granular ice mixture should dissipate ultrasound through reversible brine-pocket deformation.","prediction":"A granular ice mixture should dissipate ultrasound through reversible brine-pocket deformation.","test":"Measure attenuation and pocket motion.","contrary":"Attenuation persists unchanged after pocket solidification.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0238","prediction":"A granular ice mixture should dissipate ultrasound through reversible brine-pocket deformation.","feasible_test":"Measure attenuation and pocket motion.","contrary_outcome":"Attenuation persists unchanged after pocket solidification.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0239","id":"S2-0239","volume":"900v2","title":"A frost-covered transparent film should recover transmission abruptly when percolating air gaps reopen during warming.","prediction":"A frost-covered transparent film should recover transmission abruptly when percolating air gaps reopen during warming.","test":"Image void connectivity and transmission.","contrary":"Recovery depends continuously on remaining ice mass.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0239","prediction":"A frost-covered transparent film should recover transmission abruptly when percolating air gaps reopen during warming.","feasible_test":"Image void connectivity and transmission.","contrary_outcome":"Recovery depends continuously on remaining ice mass.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0240","id":"S2-0240","volume":"900v2","title":"A frozen hydrogel should thaw faster along mechanically compressed channels that exclude ice.","prediction":"A frozen hydrogel should thaw faster along mechanically compressed channels that exclude ice.","test":"Map ice fraction and thaw-front velocity.","contrary":"Thawing ignores compressed-channel geometry.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0240","prediction":"A frozen hydrogel should thaw faster along mechanically compressed channels that exclude ice.","feasible_test":"Map ice fraction and thaw-front velocity.","contrary_outcome":"Thawing ignores compressed-channel geometry.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0241","id":"S2-0241","volume":"900v2","title":"A mineral hydrate should fracture acoustically before losing detectable bulk water when dehydration nucleates at inclusions.","prediction":"A mineral hydrate should fracture acoustically before losing detectable bulk water when dehydration nucleates at inclusions.","test":"Measure acoustic events, mass, and diffraction.","contrary":"Events begin only after bulk mass loss.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0241","prediction":"A mineral hydrate should fracture acoustically before losing detectable bulk water when dehydration nucleates at inclusions.","feasible_test":"Measure acoustic events, mass, and diffraction.","contrary_outcome":"Events begin only after bulk mass loss.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0242","id":"S2-0242","volume":"900v2","title":"A crystal growth front should inherit oscillatory spacing from intermittent elastic pinning at a soft boundary.","prediction":"A crystal growth front should inherit oscillatory spacing from intermittent elastic pinning at a soft boundary.","test":"Track growth and boundary motion.","contrary":"Spacing is unrelated to boundary pinning cycles.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0242","prediction":"A crystal growth front should inherit oscillatory spacing from intermittent elastic pinning at a soft boundary.","feasible_test":"Track growth and boundary motion.","contrary_outcome":"Spacing is unrelated to boundary pinning cycles.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0243","id":"S2-0243","volume":"900v2","title":"A molecular crystal should change its fracture plane after reversible guest uptake alters shear compliance.","prediction":"A molecular crystal should change its fracture plane after reversible guest uptake alters shear compliance.","test":"Measure guest loading, elastic constants, and cleavage.","contrary":"Cleavage remains fixed despite compliance changes.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0243","prediction":"A molecular crystal should change its fracture plane after reversible guest uptake alters shear compliance.","feasible_test":"Measure guest loading, elastic constants, and cleavage.","contrary_outcome":"Cleavage remains fixed despite compliance changes.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0244","id":"S2-0244","volume":"900v2","title":"A salt crust should detach in patches when crystallization pressure is released by dissolution at connected edges.","prediction":"A salt crust should detach in patches when crystallization pressure is released by dissolution at connected edges.","test":"Image dissolution and interfacial strain.","contrary":"Detachment is unrelated to edge connectivity.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0244","prediction":"A salt crust should detach in patches when crystallization pressure is released by dissolution at connected edges.","feasible_test":"Image dissolution and interfacial strain.","contrary_outcome":"Detachment is unrelated to edge connectivity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0245","id":"S2-0245","volume":"900v2","title":"A hydrate grain should sort isotopic water between core and shell during rapid reversible dehydration.","prediction":"A hydrate grain should sort isotopic water between core and shell during rapid reversible dehydration.","test":"Measure isotope profiles before and after cycling.","contrary":"Profiles match equilibrium fractionation alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0245","prediction":"A hydrate grain should sort isotopic water between core and shell during rapid reversible dehydration.","feasible_test":"Measure isotope profiles before and after cycling.","contrary_outcome":"Profiles match equilibrium fractionation alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0246","id":"S2-0246","volume":"900v2","title":"A growing crystal should rotate within a gel when asymmetric nutrient depletion shifts growth stress.","prediction":"A growing crystal should rotate within a gel when asymmetric nutrient depletion shifts growth stress.","test":"Image orientation, concentration, and gel strain.","contrary":"Rotation persists without asymmetric growth stress.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0246","prediction":"A growing crystal should rotate within a gel when asymmetric nutrient depletion shifts growth stress.","feasible_test":"Image orientation, concentration, and gel strain.","contrary_outcome":"Rotation persists without asymmetric growth stress.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0247","id":"S2-0247","volume":"900v2","title":"A crystal contact should become mechanically weaker after pressure dissolution smooths interlocking asperities.","prediction":"A crystal contact should become mechanically weaker after pressure dissolution smooths interlocking asperities.","test":"Measure topology and contact shear strength.","contrary":"Smoothing strengthens or leaves strength unchanged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0247","prediction":"A crystal contact should become mechanically weaker after pressure dissolution smooths interlocking asperities.","feasible_test":"Measure topology and contact shear strength.","contrary_outcome":"Smoothing strengthens or leaves strength unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0248","id":"S2-0248","volume":"900v2","title":"A porous salt aggregate should expand transiently during dissolution because internal bridges release precompression.","prediction":"A porous salt aggregate should expand transiently during dissolution because internal bridges release precompression.","test":"Track strain and dissolved mass.","contrary":"Aggregate contracts monotonically.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0248","prediction":"A porous salt aggregate should expand transiently during dissolution because internal bridges release precompression.","feasible_test":"Track strain and dissolved mass.","contrary_outcome":"Aggregate contracts monotonically.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0249","id":"S2-0249","volume":"900v2","title":"A supersaturated droplet should nucleate preferentially at a moving elastic wrinkle crest.","prediction":"A supersaturated droplet should nucleate preferentially at a moving elastic wrinkle crest.","test":"Map nucleation and wrinkle phase.","contrary":"Nucleation density ignores crest position.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0249","prediction":"A supersaturated droplet should nucleate preferentially at a moving elastic wrinkle crest.","feasible_test":"Map nucleation and wrinkle phase.","contrary_outcome":"Nucleation density ignores crest position.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0250","id":"S2-0250","volume":"900v2","title":"A polycrystalline film should redistribute residual stress through grain-boundary wetting before grain growth occurs.","prediction":"A polycrystalline film should redistribute residual stress through grain-boundary wetting before grain growth occurs.","test":"Measure stress, boundary liquid, and grain size.","contrary":"Stress changes require detectable grain growth.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0250","prediction":"A polycrystalline film should redistribute residual stress through grain-boundary wetting before grain growth occurs.","feasible_test":"Measure stress, boundary liquid, and grain size.","contrary_outcome":"Stress changes require detectable grain growth.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0251","id":"S2-0251","volume":"900v2","title":"An evaporatively cooled roof analogue should shift its peak cooling location upwind when capillary supply becomes limiting.","prediction":"An evaporatively cooled roof analogue should shift its peak cooling location upwind when capillary supply becomes limiting.","test":"Map heat flux and local wetness.","contrary":"Peak location follows airflow alone.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0251","prediction":"An evaporatively cooled roof analogue should shift its peak cooling location upwind when capillary supply becomes limiting.","feasible_test":"Map heat flux and local wetness.","contrary_outcome":"Peak location follows airflow alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0252","id":"S2-0252","volume":"900v2","title":"A radiative cooling panel should condense water intermittently because droplet shedding changes its infrared view factor.","prediction":"A radiative cooling panel should condense water intermittently because droplet shedding changes its infrared view factor.","test":"Measure emission, droplet coverage, and cooling.","contrary":"Cooling fluctuations lack dependence on shedding.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0252","prediction":"A radiative cooling panel should condense water intermittently because droplet shedding changes its infrared view factor.","feasible_test":"Measure emission, droplet coverage, and cooling.","contrary_outcome":"Cooling fluctuations lack dependence on shedding.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0253","id":"S2-0253","volume":"900v2","title":"A thermal diode made from a movable liquid bridge should rectify heat only beyond a capillary reconnection threshold.","prediction":"A thermal diode made from a movable liquid bridge should rectify heat only beyond a capillary reconnection threshold.","test":"Measure conductance and bridge topology under reversal.","contrary":"Rectification lacks a topology threshold.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0253","prediction":"A thermal diode made from a movable liquid bridge should rectify heat only beyond a capillary reconnection threshold.","feasible_test":"Measure conductance and bridge topology under reversal.","contrary_outcome":"Rectification lacks a topology threshold.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0254","id":"S2-0254","volume":"900v2","title":"A porous insulator should briefly conduct heat faster after partial wetting than after complete saturation because liquid bridges bypass gas gaps.","prediction":"A porous insulator should briefly conduct heat faster after partial wetting than after complete saturation because liquid bridges bypass gas gaps.","test":"Measure conductivity with resolved saturation topology.","contrary":"Conductivity rises monotonically to saturation.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0254","prediction":"A porous insulator should briefly conduct heat faster after partial wetting than after complete saturation because liquid bridges bypass gas gaps.","feasible_test":"Measure conductivity with resolved saturation topology.","contrary_outcome":"Conductivity rises monotonically to saturation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0255","id":"S2-0255","volume":"900v2","title":"A sealed thermal store should mix its phase-change material through buoyancy released by shell buckling.","prediction":"A sealed thermal store should mix its phase-change material through buoyancy released by shell buckling.","test":"Track internal flow and shell deformation.","contrary":"Mixing occurs without buckling or remains absent.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0255","prediction":"A sealed thermal store should mix its phase-change material through buoyancy released by shell buckling.","feasible_test":"Track internal flow and shell deformation.","contrary_outcome":"Mixing occurs without buckling or remains absent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0256","id":"S2-0256","volume":"900v2","title":"A microheater on a membrane should cool faster after a pulse when thermally induced tension suppresses an insulating wrinkle.","prediction":"A microheater on a membrane should cool faster after a pulse when thermally induced tension suppresses an insulating wrinkle.","test":"Measure relaxation and wrinkle geometry.","contrary":"Cooling rate depends only on temperature-dependent conductivity.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0256","prediction":"A microheater on a membrane should cool faster after a pulse when thermally induced tension suppresses an insulating wrinkle.","feasible_test":"Measure relaxation and wrinkle geometry.","contrary_outcome":"Cooling rate depends only on temperature-dependent conductivity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0257","id":"S2-0257","volume":"900v2","title":"A granular thermal contact should improve under vibration through contact renewal without bulk compaction.","prediction":"A granular thermal contact should improve under vibration through contact renewal without bulk compaction.","test":"Measure conductance and packing volume.","contrary":"Improvement requires measurable compaction.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0257","prediction":"A granular thermal contact should improve under vibration through contact renewal without bulk compaction.","feasible_test":"Measure conductance and packing volume.","contrary_outcome":"Improvement requires measurable compaction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0258","id":"S2-0258","volume":"900v2","title":"A transparent thermal barrier should suppress convection through humidity-dependent closure of nanoscale gaps.","prediction":"A transparent thermal barrier should suppress convection through humidity-dependent closure of nanoscale gaps.","test":"Measure gap width and heat transport.","contrary":"Transport changes remain after gaps are fixed open.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0258","prediction":"A transparent thermal barrier should suppress convection through humidity-dependent closure of nanoscale gaps.","feasible_test":"Measure gap width and heat transport.","contrary_outcome":"Transport changes remain after gaps are fixed open.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0259","id":"S2-0259","volume":"900v2","title":"A moving evaporation front should generate a thermal wake that persists after local water depletion.","prediction":"A moving evaporation front should generate a thermal wake that persists after local water depletion.","test":"Map temperature and residual moisture.","contrary":"Wake vanishes immediately after depletion.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0259","prediction":"A moving evaporation front should generate a thermal wake that persists after local water depletion.","feasible_test":"Map temperature and residual moisture.","contrary_outcome":"Wake vanishes immediately after depletion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0260","id":"S2-0260","volume":"900v2","title":"A periodic heat source should drive directional gas transport through a pore network with asymmetric thermal accommodation.","prediction":"A periodic heat source should drive directional gas transport through a pore network with asymmetric thermal accommodation.","test":"Measure zero-pressure gas flow and reverse network orientation.","contrary":"Net flow remains zero or fails to reverse.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0260","prediction":"A periodic heat source should drive directional gas transport through a pore network with asymmetric thermal accommodation.","feasible_test":"Measure zero-pressure gas flow and reverse network orientation.","contrary_outcome":"Net flow remains zero or fails to reverse.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0261","id":"S2-0261","volume":"900v2","title":"A dielectric liquid should develop a persistent particle-free corridor under a traveling electric-field minimum.","prediction":"A dielectric liquid should develop a persistent particle-free corridor under a traveling electric-field minimum.","test":"Track particles and fluid velocity.","contrary":"Clearance is entirely explained by bulk flow.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0261","prediction":"A dielectric liquid should develop a persistent particle-free corridor under a traveling electric-field minimum.","feasible_test":"Track particles and fluid velocity.","contrary_outcome":"Clearance is entirely explained by bulk flow.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0262","id":"S2-0262","volume":"900v2","title":"A charged hydrogel should change electrical noise statistics when counterion channels percolate.","prediction":"A charged hydrogel should change electrical noise statistics when counterion channels percolate.","test":"Measure noise and ionic connectivity during swelling.","contrary":"Noise follows mean conductance alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0262","prediction":"A charged hydrogel should change electrical noise statistics when counterion channels percolate.","feasible_test":"Measure noise and ionic connectivity during swelling.","contrary_outcome":"Noise follows mean conductance alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0263","id":"S2-0263","volume":"900v2","title":"A soft capacitor should show a transient capacitance overshoot when its electrodes slide relative to trapped liquid.","prediction":"A soft capacitor should show a transient capacitance overshoot when its electrodes slide relative to trapped liquid.","test":"Measure geometry and capacitance during shear.","contrary":"Capacitance follows instantaneous overlap alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0263","prediction":"A soft capacitor should show a transient capacitance overshoot when its electrodes slide relative to trapped liquid.","feasible_test":"Measure geometry and capacitance during shear.","contrary_outcome":"Capacitance follows instantaneous overlap alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0264","id":"S2-0264","volume":"900v2","title":"A porous triboelectric film should retain charge longer when capillary condensation disconnects conductive pathways.","prediction":"A porous triboelectric film should retain charge longer when capillary condensation disconnects conductive pathways.","test":"Measure charge decay and water topology.","contrary":"Condensation only accelerates discharge.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0264","prediction":"A porous triboelectric film should retain charge longer when capillary condensation disconnects conductive pathways.","feasible_test":"Measure charge decay and water topology.","contrary_outcome":"Condensation only accelerates discharge.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0265","id":"S2-0265","volume":"900v2","title":"A piezoelectric composite should localize voltage at mechanically shielded inclusions through strain-gradient concentration.","prediction":"A piezoelectric composite should localize voltage at mechanically shielded inclusions through strain-gradient concentration.","test":"Map voltage and strain.","contrary":"Voltage follows local strain magnitude alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0265","prediction":"A piezoelectric composite should localize voltage at mechanically shielded inclusions through strain-gradient concentration.","feasible_test":"Map voltage and strain.","contrary_outcome":"Voltage follows local strain magnitude alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0266","id":"S2-0266","volume":"900v2","title":"A liquid-metal channel should heal an electrical break faster when capillary recoil pulls its oxide skin inward.","prediction":"A liquid-metal channel should heal an electrical break faster when capillary recoil pulls its oxide skin inward.","test":"Image healing and resistance recovery.","contrary":"Healing is independent of recoil direction.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0266","prediction":"A liquid-metal channel should heal an electrical break faster when capillary recoil pulls its oxide skin inward.","feasible_test":"Image healing and resistance recovery.","contrary_outcome":"Healing is independent of recoil direction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0267","id":"S2-0267","volume":"900v2","title":"An ionic gel junction should rectify a pressure pulse through asymmetric solvent drag on fixed charges.","prediction":"An ionic gel junction should rectify a pressure pulse through asymmetric solvent drag on fixed charges.","test":"Measure pulse-induced current with reversed junction orientation.","contrary":"Current is reciprocal after electrode corrections.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0267","prediction":"An ionic gel junction should rectify a pressure pulse through asymmetric solvent drag on fixed charges.","feasible_test":"Measure pulse-induced current with reversed junction orientation.","contrary_outcome":"Current is reciprocal after electrode corrections.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0268","id":"S2-0268","volume":"900v2","title":"A magnetic particle chain should store mechanical stress as remanent spacing disorder after field removal.","prediction":"A magnetic particle chain should store mechanical stress as remanent spacing disorder after field removal.","test":"Measure spacing, force, and magnetic hysteresis.","contrary":"Disorder vanishes with the field.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0268","prediction":"A magnetic particle chain should store mechanical stress as remanent spacing disorder after field removal.","feasible_test":"Measure spacing, force, and magnetic hysteresis.","contrary_outcome":"Disorder vanishes with the field.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0269","id":"S2-0269","volume":"900v2","title":"An insulating powder should discharge in avalanches when humidity connects a spanning surface-water network.","prediction":"An insulating powder should discharge in avalanches when humidity connects a spanning surface-water network.","test":"Record current bursts and water connectivity.","contrary":"Discharge lacks a connectivity transition.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0269","prediction":"An insulating powder should discharge in avalanches when humidity connects a spanning surface-water network.","feasible_test":"Record current bursts and water connectivity.","contrary_outcome":"Discharge lacks a connectivity transition.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0270","id":"S2-0270","volume":"900v2","title":"A mechanically stretched electrolyte should exhibit directional diffusion before its electrical conductivity becomes anisotropic.","prediction":"A mechanically stretched electrolyte should exhibit directional diffusion before its electrical conductivity becomes anisotropic.","test":"Measure tracer diffusion and conductivity tensors.","contrary":"Both anisotropies emerge together within resolution.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0270","prediction":"A mechanically stretched electrolyte should exhibit directional diffusion before its electrical conductivity becomes anisotropic.","feasible_test":"Measure tracer diffusion and conductivity tensors.","contrary_outcome":"Both anisotropies emerge together within resolution.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0271","id":"S2-0271","volume":"900v2","title":"An immobilized photosensitizer should create a moving oxidation boundary when its product decreases oxygen permeability.","prediction":"An immobilized photosensitizer should create a moving oxidation boundary when its product decreases oxygen permeability.","test":"Map oxygen and oxidation in a polymer film.","contrary":"Oxidation remains homogeneous despite permeability changes.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0271","prediction":"An immobilized photosensitizer should create a moving oxidation boundary when its product decreases oxygen permeability.","feasible_test":"Map oxygen and oxidation in a polymer film.","contrary_outcome":"Oxidation remains homogeneous despite permeability changes.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0272","id":"S2-0272","volume":"900v2","title":"A photocatalyst cavity should accumulate product at its dark opening through light-driven internal convection.","prediction":"A photocatalyst cavity should accumulate product at its dark opening through light-driven internal convection.","test":"Measure product profiles and velocity.","contrary":"Accumulation persists without convection.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0272","prediction":"A photocatalyst cavity should accumulate product at its dark opening through light-driven internal convection.","feasible_test":"Measure product profiles and velocity.","contrary_outcome":"Accumulation persists without convection.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0273","id":"S2-0273","volume":"900v2","title":"A catalyst pellet should oscillate in activity when reaction heat reversibly opens transport cracks.","prediction":"A catalyst pellet should oscillate in activity when reaction heat reversibly opens transport cracks.","test":"Record temperature, cracks, and turnover.","contrary":"Activity fluctuations lack crack coupling.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0273","prediction":"A catalyst pellet should oscillate in activity when reaction heat reversibly opens transport cracks.","feasible_test":"Record temperature, cracks, and turnover.","contrary_outcome":"Activity fluctuations lack crack coupling.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0274","id":"S2-0274","volume":"900v2","title":"A supported catalyst should resist poisoning when adsorbate diffusion directs contaminants toward inactive edges.","prediction":"A supported catalyst should resist poisoning when adsorbate diffusion directs contaminants toward inactive edges.","test":"Map poison coverage and active-site turnover.","contrary":"Poison remains uniformly distributed.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0274","prediction":"A supported catalyst should resist poisoning when adsorbate diffusion directs contaminants toward inactive edges.","feasible_test":"Map poison coverage and active-site turnover.","contrary_outcome":"Poison remains uniformly distributed.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0275","id":"S2-0275","volume":"900v2","title":"An enzymatic electrode should recover output after a pause because a local pH gradient dissipates.","prediction":"An enzymatic electrode should recover output after a pause because a local pH gradient dissipates.","test":"Measure pH and current during rest cycles.","contrary":"Recovery occurs without pH relaxation.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0275","prediction":"An enzymatic electrode should recover output after a pause because a local pH gradient dissipates.","feasible_test":"Measure pH and current during rest cycles.","contrary_outcome":"Recovery occurs without pH relaxation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0276","id":"S2-0276","volume":"900v2","title":"A photocurable resin should retain conversion gradients after uniform illumination because early vitrification blocks radical transport.","prediction":"A photocurable resin should retain conversion gradients after uniform illumination because early vitrification blocks radical transport.","test":"Map conversion and segmental mobility.","contrary":"Conversion becomes uniform after dose matching.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0276","prediction":"A photocurable resin should retain conversion gradients after uniform illumination because early vitrification blocks radical transport.","feasible_test":"Map conversion and segmental mobility.","contrary_outcome":"Conversion becomes uniform after dose matching.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0277","id":"S2-0277","volume":"900v2","title":"A reversible covalent network should erase a scratch faster under compression that brings reactive chain ends together.","prediction":"A reversible covalent network should erase a scratch faster under compression that brings reactive chain ends together.","test":"Measure scratch closure and bond exchange.","contrary":"Closure lacks exchange-dependent mechanical acceleration.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0277","prediction":"A reversible covalent network should erase a scratch faster under compression that brings reactive chain ends together.","feasible_test":"Measure scratch closure and bond exchange.","contrary_outcome":"Closure lacks exchange-dependent mechanical acceleration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0278","id":"S2-0278","volume":"900v2","title":"A porous catalyst should exhibit an induction period set by displacement of adsorbed water rather than reactant activation.","prediction":"A porous catalyst should exhibit an induction period set by displacement of adsorbed water rather than reactant activation.","test":"Measure water release and product onset.","contrary":"Product onset precedes water displacement.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0278","prediction":"A porous catalyst should exhibit an induction period set by displacement of adsorbed water rather than reactant activation.","feasible_test":"Measure water release and product onset.","contrary_outcome":"Product onset precedes water displacement.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0279","id":"S2-0279","volume":"900v2","title":"A reaction-generated surfactant should arrest an otherwise autocatalytic spreading front by stiffening its interface.","prediction":"A reaction-generated surfactant should arrest an otherwise autocatalytic spreading front by stiffening its interface.","test":"Measure front speed and surface rheology.","contrary":"Arrest occurs without surface stiffening.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0279","prediction":"A reaction-generated surfactant should arrest an otherwise autocatalytic spreading front by stiffening its interface.","feasible_test":"Measure front speed and surface rheology.","contrary_outcome":"Arrest occurs without surface stiffening.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0280","id":"S2-0280","volume":"900v2","title":"A photoacid gel should form a persistent pH island after illumination ends if proton-binding groups redistribute.","prediction":"A photoacid gel should form a persistent pH island after illumination ends if proton-binding groups redistribute.","test":"Map pH and binding-group motion.","contrary":"The island decays by simple diffusion.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0280","prediction":"A photoacid gel should form a persistent pH island after illumination ends if proton-binding groups redistribute.","feasible_test":"Map pH and binding-group motion.","contrary_outcome":"The island decays by simple diffusion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0281","id":"S2-0281","volume":"900v2","title":"A gas-producing reaction in a microcavity should self-throttle when bubbles block reagent entry.","prediction":"A gas-producing reaction in a microcavity should self-throttle when bubbles block reagent entry.","test":"Measure bubble occupancy and reaction rate.","contrary":"Rate remains independent of inlet blockage.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0281","prediction":"A gas-producing reaction in a microcavity should self-throttle when bubbles block reagent entry.","feasible_test":"Measure bubble occupancy and reaction rate.","contrary_outcome":"Rate remains independent of inlet blockage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0282","id":"S2-0282","volume":"900v2","title":"A polymer-supported chelator should release bound ions in bursts when cooperative chain collapse exposes binding sites.","prediction":"A polymer-supported chelator should release bound ions in bursts when cooperative chain collapse exposes binding sites.","test":"Measure ion efflux and chain dimensions.","contrary":"Release is smooth and collapse-independent.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0282","prediction":"A polymer-supported chelator should release bound ions in bursts when cooperative chain collapse exposes binding sites.","feasible_test":"Measure ion efflux and chain dimensions.","contrary_outcome":"Release is smooth and collapse-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0283","id":"S2-0283","volume":"900v2","title":"An oxidizing polymer film should become more permeable before visible embrittlement because free-volume pathways connect.","prediction":"An oxidizing polymer film should become more permeable before visible embrittlement because free-volume pathways connect.","test":"Measure permeability, free volume, and fracture strain.","contrary":"Permeability rises only after mechanical damage.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0283","prediction":"An oxidizing polymer film should become more permeable before visible embrittlement because free-volume pathways connect.","feasible_test":"Measure permeability, free volume, and fracture strain.","contrary_outcome":"Permeability rises only after mechanical damage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0284","id":"S2-0284","volume":"900v2","title":"A reaction front between immiscible liquids should wrinkle when product adsorption lowers interfacial tension locally.","prediction":"A reaction front between immiscible liquids should wrinkle when product adsorption lowers interfacial tension locally.","test":"Map product and front shape.","contrary":"Wrinkling survives adsorption suppression.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0284","prediction":"A reaction front between immiscible liquids should wrinkle when product adsorption lowers interfacial tension locally.","feasible_test":"Map product and front shape.","contrary_outcome":"Wrinkling survives adsorption suppression.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0285","id":"S2-0285","volume":"900v2","title":"A catalyst-coated flexible strip should oscillate through delayed solvent uptake by its reaction product.","prediction":"A catalyst-coated flexible strip should oscillate through delayed solvent uptake by its reaction product.","test":"Track conversion, swelling, and curvature.","contrary":"Oscillations persist when product uptake is blocked.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0285","prediction":"A catalyst-coated flexible strip should oscillate through delayed solvent uptake by its reaction product.","feasible_test":"Track conversion, swelling, and curvature.","contrary_outcome":"Oscillations persist when product uptake is blocked.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0286","id":"S2-0286","volume":"900v2","title":"A reversible redox dye should report oxygen ingress with a lag proportional to interfacial partition resistance.","prediction":"A reversible redox dye should report oxygen ingress with a lag proportional to interfacial partition resistance.","test":"Compare fluorescence profiles with oxygen probes.","contrary":"Lag follows bulk diffusion alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0286","prediction":"A reversible redox dye should report oxygen ingress with a lag proportional to interfacial partition resistance.","feasible_test":"Compare fluorescence profiles with oxygen probes.","contrary_outcome":"Lag follows bulk diffusion alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0287","id":"S2-0287","volume":"900v2","title":"A reactive porous membrane should favor a short-lived intermediate when pressure pulses refresh its internal dead zones.","prediction":"A reactive porous membrane should favor a short-lived intermediate when pressure pulses refresh its internal dead zones.","test":"Measure intermediate yield and residence distribution.","contrary":"Yield depends only on average residence time.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0287","prediction":"A reactive porous membrane should favor a short-lived intermediate when pressure pulses refresh its internal dead zones.","feasible_test":"Measure intermediate yield and residence distribution.","contrary_outcome":"Yield depends only on average residence time.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0288","id":"S2-0288","volume":"900v2","title":"A supramolecular catalyst should lose selectivity when substrate-induced assembly outpaces structural relaxation.","prediction":"A supramolecular catalyst should lose selectivity when substrate-induced assembly outpaces structural relaxation.","test":"Measure assembly kinetics and product ratios.","contrary":"Selectivity is independent of kinetic ordering.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0288","prediction":"A supramolecular catalyst should lose selectivity when substrate-induced assembly outpaces structural relaxation.","feasible_test":"Measure assembly kinetics and product ratios.","contrary_outcome":"Selectivity is independent of kinetic ordering.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0289","id":"S2-0289","volume":"900v2","title":"A molecular cage should release its guest faster after a short torsional pulse than after equal-energy heating.","prediction":"A molecular cage should release its guest faster after a short torsional pulse than after equal-energy heating.","test":"Measure guest escape with temperature controls.","contrary":"Heating fully reproduces the escape increase.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0289","prediction":"A molecular cage should release its guest faster after a short torsional pulse than after equal-energy heating.","feasible_test":"Measure guest escape with temperature controls.","contrary_outcome":"Heating fully reproduces the escape increase.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0290","id":"S2-0290","volume":"900v2","title":"A nanoparticle catalyst should show correlated turnover bursts when adsorbate diffusion couples neighboring particles.","prediction":"A nanoparticle catalyst should show correlated turnover bursts when adsorbate diffusion couples neighboring particles.","test":"Track single-particle fluorescence with spacing controls.","contrary":"Burst correlations match independent-event statistics.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0290","prediction":"A nanoparticle catalyst should show correlated turnover bursts when adsorbate diffusion couples neighboring particles.","feasible_test":"Track single-particle fluorescence with spacing controls.","contrary_outcome":"Burst correlations match independent-event statistics.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0291","id":"S2-0291","volume":"900v2","title":"A self-assembled monolayer should develop permeable stripes when bound solvent migrates under lateral stress.","prediction":"A self-assembled monolayer should develop permeable stripes when bound solvent migrates under lateral stress.","test":"Map solvent and electrochemical permeability.","contrary":"Permeability changes lack striped solvent redistribution.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0291","prediction":"A self-assembled monolayer should develop permeable stripes when bound solvent migrates under lateral stress.","feasible_test":"Map solvent and electrochemical permeability.","contrary_outcome":"Permeability changes lack striped solvent redistribution.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0292","id":"S2-0292","volume":"900v2","title":"A polymer brush should sort equal-sized molecules by conformational flexibility during compression.","prediction":"A polymer brush should sort equal-sized molecules by conformational flexibility during compression.","test":"Measure transport of matched tracers.","contrary":"Transport follows size and partitioning alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0292","prediction":"A polymer brush should sort equal-sized molecules by conformational flexibility during compression.","feasible_test":"Measure transport of matched tracers.","contrary_outcome":"Transport follows size and partitioning alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0293","id":"S2-0293","volume":"900v2","title":"A host-guest gel should transmit a chemical trigger farther when mechanical tension prolongs bond lifetime.","prediction":"A host-guest gel should transmit a chemical trigger farther when mechanical tension prolongs bond lifetime.","test":"Measure propagation length and bond kinetics.","contrary":"Tension shortens or leaves propagation unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0293","prediction":"A host-guest gel should transmit a chemical trigger farther when mechanical tension prolongs bond lifetime.","feasible_test":"Measure propagation length and bond kinetics.","contrary_outcome":"Tension shortens or leaves propagation unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0294","id":"S2-0294","volume":"900v2","title":"A thin reaction layer should spontaneously split into active and inactive bands through solvent depletion.","prediction":"A thin reaction layer should spontaneously split into active and inactive bands through solvent depletion.","test":"Map reaction rate and solvent content.","contrary":"Banding occurs without solvent differences.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0294","prediction":"A thin reaction layer should spontaneously split into active and inactive bands through solvent depletion.","feasible_test":"Map reaction rate and solvent content.","contrary_outcome":"Banding occurs without solvent differences.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0295","id":"S2-0295","volume":"900v2","title":"A porous adsorbent should show faster desorption after a pressure reversal because menisci retreat through alternate throats.","prediction":"A porous adsorbent should show faster desorption after a pressure reversal because menisci retreat through alternate throats.","test":"Measure release and pore occupancy.","contrary":"Release follows the original drainage path.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0295","prediction":"A porous adsorbent should show faster desorption after a pressure reversal because menisci retreat through alternate throats.","feasible_test":"Measure release and pore occupancy.","contrary_outcome":"Release follows the original drainage path.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0296","id":"S2-0296","volume":"900v2","title":"A charged molecular film should exhibit lateral ion waves after a localized redox pulse.","prediction":"A charged molecular film should exhibit lateral ion waves after a localized redox pulse.","test":"Map ion-sensitive fluorescence over time.","contrary":"The response spreads only diffusively.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0296","prediction":"A charged molecular film should exhibit lateral ion waves after a localized redox pulse.","feasible_test":"Map ion-sensitive fluorescence over time.","contrary_outcome":"The response spreads only diffusively.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0297","id":"S2-0297","volume":"900v2","title":"A photoisomerizing molecule in a confined pore should retain orientation after switching because its return path is sterically blocked.","prediction":"A photoisomerizing molecule in a confined pore should retain orientation after switching because its return path is sterically blocked.","test":"Measure orientation and isomer fraction.","contrary":"Orientation relaxes independently of pore confinement.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0297","prediction":"A photoisomerizing molecule in a confined pore should retain orientation after switching because its return path is sterically blocked.","feasible_test":"Measure orientation and isomer fraction.","contrary_outcome":"Orientation relaxes independently of pore confinement.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0298","id":"S2-0298","volume":"900v2","title":"An oxygen-scavenging coating should protect a buried interface better when its reaction sites lie near pore entrances.","prediction":"An oxygen-scavenging coating should protect a buried interface better when its reaction sites lie near pore entrances.","test":"Measure interface oxygen with matched total scavenger.","contrary":"Protection depends only on total scavenger loading.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0298","prediction":"An oxygen-scavenging coating should protect a buried interface better when its reaction sites lie near pore entrances.","feasible_test":"Measure interface oxygen with matched total scavenger.","contrary_outcome":"Protection depends only on total scavenger loading.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0299","id":"S2-0299","volume":"900v2","title":"A reactive droplet should shed a product-rich daughter when interfacial elasticity exceeds a curvature threshold.","prediction":"A reactive droplet should shed a product-rich daughter when interfacial elasticity exceeds a curvature threshold.","test":"Track composition and fission geometry.","contrary":"Shedding occurs without product-rich interfacial elasticity.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0299","prediction":"A reactive droplet should shed a product-rich daughter when interfacial elasticity exceeds a curvature threshold.","feasible_test":"Track composition and fission geometry.","contrary_outcome":"Shedding occurs without product-rich interfacial elasticity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0300","id":"S2-0300","volume":"900v2","title":"A molecular assembly should amplify a weak chiral bias only during reversible bond exchange.","prediction":"A molecular assembly should amplify a weak chiral bias only during reversible bond exchange.","test":"Measure chirality during exchange activation and arrest.","contrary":"Amplification continues unchanged after exchange stops.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0300","prediction":"A molecular assembly should amplify a weak chiral bias only during reversible bond exchange.","feasible_test":"Measure chirality during exchange activation and arrest.","contrary_outcome":"Amplification continues unchanged after exchange stops.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0301","id":"S2-0301","volume":"900v2","title":"A soil aggregate analogue should retain nitrate in isolated pores after a clean-water flush.","prediction":"A soil aggregate analogue should retain nitrate in isolated pores after a clean-water flush.","test":"Map nitrate and connectivity using nonliving porous media.","contrary":"Retention follows equilibrium adsorption alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0301","prediction":"A soil aggregate analogue should retain nitrate in isolated pores after a clean-water flush.","feasible_test":"Map nitrate and connectivity using nonliving porous media.","contrary_outcome":"Retention follows equilibrium adsorption alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0302","id":"S2-0302","volume":"900v2","title":"A riverbed ripple analogue should release stored colloids during flow deceleration as pressure gradients reverse.","prediction":"A riverbed ripple analogue should release stored colloids during flow deceleration as pressure gradients reverse.","test":"Measure pore pressure and colloid flux.","contrary":"Release peaks only during increasing shear.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0302","prediction":"A riverbed ripple analogue should release stored colloids during flow deceleration as pressure gradients reverse.","feasible_test":"Measure pore pressure and colloid flux.","contrary_outcome":"Release peaks only during increasing shear.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0303","id":"S2-0303","volume":"900v2","title":"A fog collector should lose efficiency when captured droplets bridge adjacent fibers and redirect airflow.","prediction":"A fog collector should lose efficiency when captured droplets bridge adjacent fibers and redirect airflow.","test":"Image airflow and water bridges.","contrary":"Efficiency loss follows added mass alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0303","prediction":"A fog collector should lose efficiency when captured droplets bridge adjacent fibers and redirect airflow.","feasible_test":"Image airflow and water bridges.","contrary_outcome":"Efficiency loss follows added mass alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0304","id":"S2-0304","volume":"900v2","title":"A dust-coated ice analogue should melt unevenly because dust migrates toward preexisting depressions.","prediction":"A dust-coated ice analogue should melt unevenly because dust migrates toward preexisting depressions.","test":"Track particles and melt topography.","contrary":"Dust remains fixed while depressions deepen.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0304","prediction":"A dust-coated ice analogue should melt unevenly because dust migrates toward preexisting depressions.","feasible_test":"Track particles and melt topography.","contrary_outcome":"Dust remains fixed while depressions deepen.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0305","id":"S2-0305","volume":"900v2","title":"A wetland mineral analogue should generate short oxygen-free pockets behind advancing bubbles.","prediction":"A wetland mineral analogue should generate short oxygen-free pockets behind advancing bubbles.","test":"Map oxygen in transparent mineral beds.","contrary":"Oxygen depletion matches steady diffusion without bubble effects.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0305","prediction":"A wetland mineral analogue should generate short oxygen-free pockets behind advancing bubbles.","feasible_test":"Map oxygen in transparent mineral beds.","contrary_outcome":"Oxygen depletion matches steady diffusion without bubble effects.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0306","id":"S2-0306","volume":"900v2","title":"A rainfall simulator should reveal increased erosion after a dry crust locally detaches from its substrate.","prediction":"A rainfall simulator should reveal increased erosion after a dry crust locally detaches from its substrate.","test":"Measure crust separation before sediment loss.","contrary":"Erosion begins without interfacial detachment.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0306","prediction":"A rainfall simulator should reveal increased erosion after a dry crust locally detaches from its substrate.","feasible_test":"Measure crust separation before sediment loss.","contrary_outcome":"Erosion begins without interfacial detachment.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0307","id":"S2-0307","volume":"900v2","title":"A submerged leaf-litter analogue should trap fine particles through transient elastic flapping.","prediction":"A submerged leaf-litter analogue should trap fine particles through transient elastic flapping.","test":"Measure capture using flexible and rigid matched shapes.","contrary":"Capture is unchanged by flapping.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0307","prediction":"A submerged leaf-litter analogue should trap fine particles through transient elastic flapping.","feasible_test":"Measure capture using flexible and rigid matched shapes.","contrary_outcome":"Capture is unchanged by flapping.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0308","id":"S2-0308","volume":"900v2","title":"A coastal salt spray analogue should transport organics disproportionately in droplets produced by shell rupture.","prediction":"A coastal salt spray analogue should transport organics disproportionately in droplets produced by shell rupture.","test":"Analyze composition by droplet-generation mode.","contrary":"Organic enrichment is mode-independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0308","prediction":"A coastal salt spray analogue should transport organics disproportionately in droplets produced by shell rupture.","feasible_test":"Analyze composition by droplet-generation mode.","contrary_outcome":"Organic enrichment is mode-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0309","id":"S2-0309","volume":"900v2","title":"A suspended mineral dust cloud should aggregate faster after alternating humid and dry pulses than equal mean humidity.","prediction":"A suspended mineral dust cloud should aggregate faster after alternating humid and dry pulses than equal mean humidity.","test":"Measure cluster growth and surface water.","contrary":"Aggregation matches steady-humidity controls.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0309","prediction":"A suspended mineral dust cloud should aggregate faster after alternating humid and dry pulses than equal mean humidity.","feasible_test":"Measure cluster growth and surface water.","contrary_outcome":"Aggregation matches steady-humidity controls.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0310","id":"S2-0310","volume":"900v2","title":"A sediment cap should develop gas escape chimneys at intersections of weak shear bands.","prediction":"A sediment cap should develop gas escape chimneys at intersections of weak shear bands.","test":"Image bands and gas pathways.","contrary":"Chimneys follow pore size alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0310","prediction":"A sediment cap should develop gas escape chimneys at intersections of weak shear bands.","feasible_test":"Image bands and gas pathways.","contrary_outcome":"Chimneys follow pore size alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0311","id":"S2-0311","volume":"900v2","title":"A soil pore analogue should transport phosphate upstream locally when precipitation consumes a counterion downstream.","prediction":"A soil pore analogue should transport phosphate upstream locally when precipitation consumes a counterion downstream.","test":"Map ion gradients without bulk flow.","contrary":"Phosphate transport remains purely diffusive downstream.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0311","prediction":"A soil pore analogue should transport phosphate upstream locally when precipitation consumes a counterion downstream.","feasible_test":"Map ion gradients without bulk flow.","contrary_outcome":"Phosphate transport remains purely diffusive downstream.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0312","id":"S2-0312","volume":"900v2","title":"A sand surface should develop persistent thermal stripes after partial rain because capillary supply follows packing anisotropy.","prediction":"A sand surface should develop persistent thermal stripes after partial rain because capillary supply follows packing anisotropy.","test":"Measure packing, water flux, and temperature.","contrary":"Temperature stripes ignore packing direction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0312","prediction":"A sand surface should develop persistent thermal stripes after partial rain because capillary supply follows packing anisotropy.","feasible_test":"Measure packing, water flux, and temperature.","contrary_outcome":"Temperature stripes ignore packing direction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0313","id":"S2-0313","volume":"900v2","title":"A floating biofilm-free polymer mat should collect microfibers through curvature-driven capillary alignment.","prediction":"A floating biofilm-free polymer mat should collect microfibers through curvature-driven capillary alignment.","test":"Measure fiber capture around controlled curvature.","contrary":"Capture depends only on projected area.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0313","prediction":"A floating biofilm-free polymer mat should collect microfibers through curvature-driven capillary alignment.","feasible_test":"Measure fiber capture around controlled curvature.","contrary_outcome":"Capture depends only on projected area.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0314","id":"S2-0314","volume":"900v2","title":"A clay-rich river-water analogue should flocculate in localized bands near a salinity front's steepest curvature.","prediction":"A clay-rich river-water analogue should flocculate in localized bands near a salinity front's steepest curvature.","test":"Map front geometry and floc nucleation.","contrary":"Flocculation follows salinity magnitude alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0314","prediction":"A clay-rich river-water analogue should flocculate in localized bands near a salinity front's steepest curvature.","feasible_test":"Map front geometry and floc nucleation.","contrary_outcome":"Flocculation follows salinity magnitude alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0315","id":"S2-0315","volume":"900v2","title":"A porous snow analogue should vent gas in pulses when meltwater seals and reopens connected throats.","prediction":"A porous snow analogue should vent gas in pulses when meltwater seals and reopens connected throats.","test":"Measure gas flow and liquid topology.","contrary":"Gas flow varies smoothly with saturation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0315","prediction":"A porous snow analogue should vent gas in pulses when meltwater seals and reopens connected throats.","feasible_test":"Measure gas flow and liquid topology.","contrary_outcome":"Gas flow varies smoothly with saturation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0316","id":"S2-0316","volume":"900v2","title":"A sediment grain coated with oil should release the coating during osmotic swelling of a buried gel layer.","prediction":"A sediment grain coated with oil should release the coating during osmotic swelling of a buried gel layer.","test":"Image coating detachment and gel strain.","contrary":"Detachment does not depend on swelling.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0316","prediction":"A sediment grain coated with oil should release the coating during osmotic swelling of a buried gel layer.","feasible_test":"Image coating detachment and gel strain.","contrary_outcome":"Detachment does not depend on swelling.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0317","id":"S2-0317","volume":"900v2","title":"A floating dust raft should collapse after rain through defect growth rather than uniform sinking.","prediction":"A floating dust raft should collapse after rain through defect growth rather than uniform sinking.","test":"Track raft topology and local buoyancy.","contrary":"Sinking begins everywhere simultaneously.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0317","prediction":"A floating dust raft should collapse after rain through defect growth rather than uniform sinking.","feasible_test":"Track raft topology and local buoyancy.","contrary_outcome":"Sinking begins everywhere simultaneously.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0318","id":"S2-0318","volume":"900v2","title":"A soil crust analogue should retain a directional erosion memory after wind aligns loose surface platelets.","prediction":"A soil crust analogue should retain a directional erosion memory after wind aligns loose surface platelets.","test":"Measure erosion under reversed winds.","contrary":"Thresholds become direction-independent after speed matching.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0318","prediction":"A soil crust analogue should retain a directional erosion memory after wind aligns loose surface platelets.","feasible_test":"Measure erosion under reversed winds.","contrary_outcome":"Thresholds become direction-independent after speed matching.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0319","id":"S2-0319","volume":"900v2","title":"A water-saturated ash layer should generate excess pore pressure under rapid cooling through differential contraction.","prediction":"A water-saturated ash layer should generate excess pore pressure under rapid cooling through differential contraction.","test":"Measure pressure and skeleton strain.","contrary":"Pressure follows fluid contraction alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0319","prediction":"A water-saturated ash layer should generate excess pore pressure under rapid cooling through differential contraction.","feasible_test":"Measure pressure and skeleton strain.","contrary_outcome":"Pressure follows fluid contraction alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0320","id":"S2-0320","volume":"900v2","title":"A mineral-coated air bubble should transport attached colloids across a salinity barrier without releasing them.","prediction":"A mineral-coated air bubble should transport attached colloids across a salinity barrier without releasing them.","test":"Track colloid attachment through the gradient.","contrary":"Colloids detach at the same rate as uncoated controls.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0320","prediction":"A mineral-coated air bubble should transport attached colloids across a salinity barrier without releasing them.","feasible_test":"Track colloid attachment through the gradient.","contrary_outcome":"Colloids detach at the same rate as uncoated controls.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0321","id":"S2-0321","volume":"900v2","title":"A passive membrane sampler should misestimate pulse concentrations when adsorption changes its permeability during exposure.","prediction":"A passive membrane sampler should misestimate pulse concentrations when adsorption changes its permeability during exposure.","test":"Compare true and sampled pulse histories.","contrary":"Uptake remains linear despite adsorption.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0321","prediction":"A passive membrane sampler should misestimate pulse concentrations when adsorption changes its permeability during exposure.","feasible_test":"Compare true and sampled pulse histories.","contrary_outcome":"Uptake remains linear despite adsorption.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0322","id":"S2-0322","volume":"900v2","title":"A sediment capillary network should retain a rainfall sequence in the spatial ordering of dissolved tracer bands.","prediction":"A sediment capillary network should retain a rainfall sequence in the spatial ordering of dissolved tracer bands.","test":"Apply distinct tracer pulses and map final distributions.","contrary":"Final bands cannot reconstruct pulse order.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0322","prediction":"A sediment capillary network should retain a rainfall sequence in the spatial ordering of dissolved tracer bands.","feasible_test":"Apply distinct tracer pulses and map final distributions.","contrary_outcome":"Final bands cannot reconstruct pulse order.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0323","id":"S2-0323","volume":"900v2","title":"A porous volcanic analogue should generate acoustic precursors when trapped gas first connects across its pore network.","prediction":"A porous volcanic analogue should generate acoustic precursors when trapped gas first connects across its pore network.","test":"Measure sound and gas connectivity.","contrary":"Acoustic onset lacks a connectivity transition.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0323","prediction":"A porous volcanic analogue should generate acoustic precursors when trapped gas first connects across its pore network.","feasible_test":"Measure sound and gas connectivity.","contrary_outcome":"Acoustic onset lacks a connectivity transition.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0324","id":"S2-0324","volume":"900v2","title":"A shaded moss-free soil patch should condense more dew when adjacent warm grains drive vapor laterally.","prediction":"A shaded moss-free soil patch should condense more dew when adjacent warm grains drive vapor laterally.","test":"Measure lateral vapor flux and dew mass.","contrary":"Dew gains are explained by local cooling alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0324","prediction":"A shaded moss-free soil patch should condense more dew when adjacent warm grains drive vapor laterally.","feasible_test":"Measure lateral vapor flux and dew mass.","contrary_outcome":"Dew gains are explained by local cooling alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0325","id":"S2-0325","volume":"900v2","title":"A mineral surface should promote degradation of an organic film at triple contact lines faster than fully wetted areas.","prediction":"A mineral surface should promote degradation of an organic film at triple contact lines faster than fully wetted areas.","test":"Map degradation and contact-line position.","contrary":"Rates become uniform after oxygen correction.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0325","prediction":"A mineral surface should promote degradation of an organic film at triple contact lines faster than fully wetted areas.","feasible_test":"Map degradation and contact-line position.","contrary_outcome":"Rates become uniform after oxygen correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0326","id":"S2-0326","volume":"900v2","title":"A root-free soil column should show preferential drying along mechanically compacted vertical seams.","prediction":"A root-free soil column should show preferential drying along mechanically compacted vertical seams.","test":"Measure seam porosity and drying fronts.","contrary":"Drying ignores seam orientation.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0326","prediction":"A root-free soil column should show preferential drying along mechanically compacted vertical seams.","feasible_test":"Measure seam porosity and drying fronts.","contrary_outcome":"Drying ignores seam orientation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0327","id":"S2-0327","volume":"900v2","title":"A drainage ditch analogue should retain floating fibers at traveling wave stagnation points.","prediction":"A drainage ditch analogue should retain floating fibers at traveling wave stagnation points.","test":"Track fibers and wave-induced velocity fields.","contrary":"Retention is explained only by physical snagging.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0327","prediction":"A drainage ditch analogue should retain floating fibers at traveling wave stagnation points.","feasible_test":"Track fibers and wave-induced velocity fields.","contrary_outcome":"Retention is explained only by physical snagging.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0328","id":"S2-0328","volume":"900v2","title":"A cold mineral bed should transiently concentrate dissolved gas ahead of an advancing condensation front.","prediction":"A cold mineral bed should transiently concentrate dissolved gas ahead of an advancing condensation front.","test":"Map gas concentration and water phase.","contrary":"Concentrations follow local equilibrium without front enrichment.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0328","prediction":"A cold mineral bed should transiently concentrate dissolved gas ahead of an advancing condensation front.","feasible_test":"Map gas concentration and water phase.","contrary_outcome":"Concentrations follow local equilibrium without front enrichment.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0329","id":"S2-0329","volume":"900v2","title":"A soil thermal pulse should remobilize adsorbed organics through brief pore-scale pressure gradients.","prediction":"A soil thermal pulse should remobilize adsorbed organics through brief pore-scale pressure gradients.","test":"Measure organic flux with isothermal pressure controls.","contrary":"Mobilization is reproduced by temperature alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0329","prediction":"A soil thermal pulse should remobilize adsorbed organics through brief pore-scale pressure gradients.","feasible_test":"Measure organic flux with isothermal pressure controls.","contrary_outcome":"Mobilization is reproduced by temperature alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0330","id":"S2-0330","volume":"900v2","title":"A layered aquifer analogue should trap a solute plume at an interface through coupled diffusion and reversible swelling.","prediction":"A layered aquifer analogue should trap a solute plume at an interface through coupled diffusion and reversible swelling.","test":"Image plume shape and layer deformation.","contrary":"Trapping persists unchanged in nonswelling controls.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0330","prediction":"A layered aquifer analogue should trap a solute plume at an interface through coupled diffusion and reversible swelling.","feasible_test":"Image plume shape and layer deformation.","contrary_outcome":"Trapping persists unchanged in nonswelling controls.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0331","id":"S2-0331","volume":"900v2","title":"A piezo-driven liquid interface should sort droplets by internal viscosity at equal size.","prediction":"A piezo-driven liquid interface should sort droplets by internal viscosity at equal size.","test":"Measure trajectories and calibrated internal viscosity.","contrary":"Sorting follows size alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0331","prediction":"A piezo-driven liquid interface should sort droplets by internal viscosity at equal size.","feasible_test":"Measure trajectories and calibrated internal viscosity.","contrary_outcome":"Sorting follows size alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0332","id":"S2-0332","volume":"900v2","title":"A compliant sieve should pass elongated particles preferentially when pores open in phase with flow pulses.","prediction":"A compliant sieve should pass elongated particles preferentially when pores open in phase with flow pulses.","test":"Track pore width and particle passage.","contrary":"Phase timing does not affect selectivity.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0332","prediction":"A compliant sieve should pass elongated particles preferentially when pores open in phase with flow pulses.","feasible_test":"Track pore width and particle passage.","contrary_outcome":"Phase timing does not affect selectivity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0333","id":"S2-0333","volume":"900v2","title":"An acoustic node should stabilize a reactive droplet against buoyancy-driven shape distortion.","prediction":"An acoustic node should stabilize a reactive droplet against buoyancy-driven shape distortion.","test":"Measure shape during node displacement.","contrary":"Distortion follows buoyancy independently of trapping phase.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0333","prediction":"An acoustic node should stabilize a reactive droplet against buoyancy-driven shape distortion.","feasible_test":"Measure shape during node displacement.","contrary_outcome":"Distortion follows buoyancy independently of trapping phase.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0334","id":"S2-0334","volume":"900v2","title":"A microfluidic fork should sort flexible filaments by bending-relaxation time.","prediction":"A microfluidic fork should sort flexible filaments by bending-relaxation time.","test":"Track trajectories under matched flow.","contrary":"Sorting follows filament length alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0334","prediction":"A microfluidic fork should sort flexible filaments by bending-relaxation time.","feasible_test":"Track trajectories under matched flow.","contrary_outcome":"Sorting follows filament length alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0335","id":"S2-0335","volume":"900v2","title":"An evaporative pump should stall through salt-crystal bridging before its wick loses liquid continuity.","prediction":"An evaporative pump should stall through salt-crystal bridging before its wick loses liquid continuity.","test":"Measure pump flux, crystals, and connectivity.","contrary":"Stall occurs only after hydraulic disconnection.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0335","prediction":"An evaporative pump should stall through salt-crystal bridging before its wick loses liquid continuity.","feasible_test":"Measure pump flux, crystals, and connectivity.","contrary_outcome":"Stall occurs only after hydraulic disconnection.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0336","id":"S2-0336","volume":"900v2","title":"A passive check valve should fail selectively for bubbles because membrane curvature changes their entry pressure.","prediction":"A passive check valve should fail selectively for bubbles because membrane curvature changes their entry pressure.","test":"Compare gas and liquid backflow.","contrary":"Leakage is explained entirely by pressure amplitude.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0336","prediction":"A passive check valve should fail selectively for bubbles because membrane curvature changes their entry pressure.","feasible_test":"Compare gas and liquid backflow.","contrary_outcome":"Leakage is explained entirely by pressure amplitude.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0337","id":"S2-0337","volume":"900v2","title":"A compliant microchannel should store a transient concentration pulse as reversible wall adsorption.","prediction":"A compliant microchannel should store a transient concentration pulse as reversible wall adsorption.","test":"Measure outlet pulses and wall loading.","contrary":"Pulse delay follows fluid volume alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0337","prediction":"A compliant microchannel should store a transient concentration pulse as reversible wall adsorption.","feasible_test":"Measure outlet pulses and wall loading.","contrary_outcome":"Pulse delay follows fluid volume alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0338","id":"S2-0338","volume":"900v2","title":"A self-folding filter should shed deposited particles when swelling reverses local curvature.","prediction":"A self-folding filter should shed deposited particles when swelling reverses local curvature.","test":"Measure curvature and particle release.","contrary":"Release requires external flushing rather than curvature reversal.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0338","prediction":"A self-folding filter should shed deposited particles when swelling reverses local curvature.","feasible_test":"Measure curvature and particle release.","contrary_outcome":"Release requires external flushing rather than curvature reversal.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0339","id":"S2-0339","volume":"900v2","title":"A capillary junction should separate liquid mixtures by wetting kinetics before equilibrium contact angles diverge.","prediction":"A capillary junction should separate liquid mixtures by wetting kinetics before equilibrium contact angles diverge.","test":"Measure early composition and contact dynamics.","contrary":"Separation begins only after equilibrium contrast appears.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0339","prediction":"A capillary junction should separate liquid mixtures by wetting kinetics before equilibrium contact angles diverge.","feasible_test":"Measure early composition and contact dynamics.","contrary_outcome":"Separation begins only after equilibrium contrast appears.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0340","id":"S2-0340","volume":"900v2","title":"A soft gripper in liquid should increase adhesion through delayed drainage of a peripheral seal.","prediction":"A soft gripper in liquid should increase adhesion through delayed drainage of a peripheral seal.","test":"Measure grip force and interfacial fluid thickness.","contrary":"Force is independent of drainage history.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0340","prediction":"A soft gripper in liquid should increase adhesion through delayed drainage of a peripheral seal.","feasible_test":"Measure grip force and interfacial fluid thickness.","contrary_outcome":"Force is independent of drainage history.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0341","id":"S2-0341","volume":"900v2","title":"A droplet-based heat exchanger should improve heat transfer when deformation periodically renews its internal circulation.","prediction":"A droplet-based heat exchanger should improve heat transfer when deformation periodically renews its internal circulation.","test":"Map temperature and internal velocity.","contrary":"Improvement follows surface area alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0341","prediction":"A droplet-based heat exchanger should improve heat transfer when deformation periodically renews its internal circulation.","feasible_test":"Map temperature and internal velocity.","contrary_outcome":"Improvement follows surface area alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0342","id":"S2-0342","volume":"900v2","title":"A porous pressure sensor should distinguish static load from impact through different saturation pathways.","prediction":"A porous pressure sensor should distinguish static load from impact through different saturation pathways.","test":"Measure electrical response and liquid topology.","contrary":"Responses overlap after peak-load normalization.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0342","prediction":"A porous pressure sensor should distinguish static load from impact through different saturation pathways.","feasible_test":"Measure electrical response and liquid topology.","contrary_outcome":"Responses overlap after peak-load normalization.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0343","id":"S2-0343","volume":"900v2","title":"A microfluidic oscillator should entrain through vapor exchange between physically separate reservoirs.","prediction":"A microfluidic oscillator should entrain through vapor exchange between physically separate reservoirs.","test":"Measure phases with vapor barriers and open links.","contrary":"Coordination remains unchanged after blocking vapor exchange.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0343","prediction":"A microfluidic oscillator should entrain through vapor exchange between physically separate reservoirs.","feasible_test":"Measure phases with vapor barriers and open links.","contrary_outcome":"Coordination remains unchanged after blocking vapor exchange.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0344","id":"S2-0344","volume":"900v2","title":"A passive particle trap should release its cargo when a trapped bubble dissolves below a geometric threshold.","prediction":"A passive particle trap should release its cargo when a trapped bubble dissolves below a geometric threshold.","test":"Image bubble volume and escape events.","contrary":"Escape probability has no volume threshold.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0344","prediction":"A passive particle trap should release its cargo when a trapped bubble dissolves below a geometric threshold.","feasible_test":"Image bubble volume and escape events.","contrary_outcome":"Escape probability has no volume threshold.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0345","id":"S2-0345","volume":"900v2","title":"A flexible nozzle should narrow its droplet-size distribution through elastic recoil after each pinch-off.","prediction":"A flexible nozzle should narrow its droplet-size distribution through elastic recoil after each pinch-off.","test":"Measure nozzle motion and droplet sizes.","contrary":"Constraining recoil does not broaden the distribution.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0345","prediction":"A flexible nozzle should narrow its droplet-size distribution through elastic recoil after each pinch-off.","feasible_test":"Measure nozzle motion and droplet sizes.","contrary_outcome":"Constraining recoil does not broaden the distribution.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0346","id":"S2-0346","volume":"900v2","title":"A hydrogel valve should close faster after repeated pulses because solvent accumulates near its hinge.","prediction":"A hydrogel valve should close faster after repeated pulses because solvent accumulates near its hinge.","test":"Map solvent and closing latency.","contrary":"Latency changes occur without hinge enrichment.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0346","prediction":"A hydrogel valve should close faster after repeated pulses because solvent accumulates near its hinge.","feasible_test":"Map solvent and closing latency.","contrary_outcome":"Latency changes occur without hinge enrichment.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0347","id":"S2-0347","volume":"900v2","title":"A fluidic logic element should preserve state through a pinned meniscus after pressure returns to zero.","prediction":"A fluidic logic element should preserve state through a pinned meniscus after pressure returns to zero.","test":"Read state through reversible pressure cycles.","contrary":"State always resets after pressure removal.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0347","prediction":"A fluidic logic element should preserve state through a pinned meniscus after pressure returns to zero.","feasible_test":"Read state through reversible pressure cycles.","contrary_outcome":"State always resets after pressure removal.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0348","id":"S2-0348","volume":"900v2","title":"A microchannel's roughness should produce measurable flow-direction memory through persistent nanobubbles.","prediction":"A microchannel's roughness should produce measurable flow-direction memory through persistent nanobubbles.","test":"Measure resistance before and after reversal and degassing.","contrary":"Memory survives bubble removal unchanged.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0348","prediction":"A microchannel's roughness should produce measurable flow-direction memory through persistent nanobubbles.","feasible_test":"Measure resistance before and after reversal and degassing.","contrary_outcome":"Memory survives bubble removal unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0349","id":"S2-0349","volume":"900v2","title":"A thin-film pump should generate net flow from reciprocal bending when adsorption kinetics break time symmetry.","prediction":"A thin-film pump should generate net flow from reciprocal bending when adsorption kinetics break time symmetry.","test":"Measure flow with reversible adsorption suppressed.","contrary":"Flow is unchanged after adsorption suppression.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0349","prediction":"A thin-film pump should generate net flow from reciprocal bending when adsorption kinetics break time symmetry.","feasible_test":"Measure flow with reversible adsorption suppressed.","contrary_outcome":"Flow is unchanged after adsorption suppression.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0350","id":"S2-0350","volume":"900v2","title":"A liquid-metal sensor should distinguish tearing from stretching through the frequency dependence of impedance.","prediction":"A liquid-metal sensor should distinguish tearing from stretching through the frequency dependence of impedance.","test":"Measure blinded mechanical damage and spectra.","contrary":"Spectra cannot separate matched-resistance states.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0350","prediction":"A liquid-metal sensor should distinguish tearing from stretching through the frequency dependence of impedance.","feasible_test":"Measure blinded mechanical damage and spectra.","contrary_outcome":"Spectra cannot separate matched-resistance states.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0351","id":"S2-0351","volume":"900v2","title":"A granular jamming sleeve should loosen locally when a vapor pulse lubricates only high-force contacts.","prediction":"A granular jamming sleeve should loosen locally when a vapor pulse lubricates only high-force contacts.","test":"Map contact forces and release torque.","contrary":"Release follows uniform moisture uptake alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0351","prediction":"A granular jamming sleeve should loosen locally when a vapor pulse lubricates only high-force contacts.","feasible_test":"Map contact forces and release torque.","contrary_outcome":"Release follows uniform moisture uptake alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0352","id":"S2-0352","volume":"900v2","title":"A capillary assembly line should orient asymmetric particles through sequential rather than simultaneous wetting contacts.","prediction":"A capillary assembly line should orient asymmetric particles through sequential rather than simultaneous wetting contacts.","test":"Compare final orientation under matched total wetting.","contrary":"Orientation is independent of contact sequence.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0352","prediction":"A capillary assembly line should orient asymmetric particles through sequential rather than simultaneous wetting contacts.","feasible_test":"Compare final orientation under matched total wetting.","contrary_outcome":"Orientation is independent of contact sequence.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0353","id":"S2-0353","volume":"900v2","title":"A porous membrane should reject deformable capsules more strongly under pulsed than steady pressure at equal mean flux.","prediction":"A porous membrane should reject deformable capsules more strongly under pulsed than steady pressure at equal mean flux.","test":"Measure rejection and capsule deformation.","contrary":"Rejection follows peak pressure without pulse-history effects.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0353","prediction":"A porous membrane should reject deformable capsules more strongly under pulsed than steady pressure at equal mean flux.","feasible_test":"Measure rejection and capsule deformation.","contrary_outcome":"Rejection follows peak pressure without pulse-history effects.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0354","id":"S2-0354","volume":"900v2","title":"A flexible mixing vane should reverse its effective pumping direction after a buckling transition.","prediction":"A flexible mixing vane should reverse its effective pumping direction after a buckling transition.","test":"Measure flow before and after buckling.","contrary":"Flow direction remains unchanged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0354","prediction":"A flexible mixing vane should reverse its effective pumping direction after a buckling transition.","feasible_test":"Measure flow before and after buckling.","contrary_outcome":"Flow direction remains unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0355","id":"S2-0355","volume":"900v2","title":"A soft tube should detect internal gas content through the phase lag between two wall-vibration modes.","prediction":"A soft tube should detect internal gas content through the phase lag between two wall-vibration modes.","test":"Measure phase and known gas fractions.","contrary":"Phase cannot distinguish gas from wall damping.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0355","prediction":"A soft tube should detect internal gas content through the phase lag between two wall-vibration modes.","feasible_test":"Measure phase and known gas fractions.","contrary_outcome":"Phase cannot distinguish gas from wall damping.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0356","id":"S2-0356","volume":"900v2","title":"A capillary battery should deliver a sharper voltage pulse when dissolution opens electrode access sequentially.","prediction":"A capillary battery should deliver a sharper voltage pulse when dissolution opens electrode access sequentially.","test":"Measure wetting fronts and voltage.","contrary":"Pulse shape follows electrolyte conductivity alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0356","prediction":"A capillary battery should deliver a sharper voltage pulse when dissolution opens electrode access sequentially.","feasible_test":"Measure wetting fronts and voltage.","contrary_outcome":"Pulse shape follows electrolyte conductivity alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0357","id":"S2-0357","volume":"900v2","title":"A self-cleaning optical window should remove dust through dew-induced rolling rather than droplet sliding.","prediction":"A self-cleaning optical window should remove dust through dew-induced rolling rather than droplet sliding.","test":"Track dust and droplet trajectories.","contrary":"Dust removal requires macroscopic sliding.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0357","prediction":"A self-cleaning optical window should remove dust through dew-induced rolling rather than droplet sliding.","feasible_test":"Track dust and droplet trajectories.","contrary_outcome":"Dust removal requires macroscopic sliding.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0358","id":"S2-0358","volume":"900v2","title":"A compliant membrane distillation layer should reduce fouling when cyclic bending disrupts crystal anchors.","prediction":"A compliant membrane distillation layer should reduce fouling when cyclic bending disrupts crystal anchors.","test":"Measure fouling and anchor failure.","contrary":"Flux recovery is reproduced by fluid shear alone.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0358","prediction":"A compliant membrane distillation layer should reduce fouling when cyclic bending disrupts crystal anchors.","feasible_test":"Measure fouling and anchor failure.","contrary_outcome":"Flux recovery is reproduced by fluid shear alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0359","id":"S2-0359","volume":"900v2","title":"A passive humidity switch should exhibit narrower timing variability when its swelling element is mechanically preloaded.","prediction":"A passive humidity switch should exhibit narrower timing variability when its swelling element is mechanically preloaded.","test":"Measure switching times across repeated cycles.","contrary":"Preload leaves variability unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0359","prediction":"A passive humidity switch should exhibit narrower timing variability when its swelling element is mechanically preloaded.","feasible_test":"Measure switching times across repeated cycles.","contrary_outcome":"Preload leaves variability unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0360","id":"S2-0360","volume":"900v2","title":"A droplet robot should turn without changing speed when illumination shifts internal circulation sideways.","prediction":"A droplet robot should turn without changing speed when illumination shifts internal circulation sideways.","test":"Map circulation, trajectory, and speed.","contrary":"Turning requires measurable speed reduction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0360","prediction":"A droplet robot should turn without changing speed when illumination shifts internal circulation sideways.","feasible_test":"Map circulation, trajectory, and speed.","contrary_outcome":"Turning requires measurable speed reduction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0361","id":"S2-0361","volume":"900v2","title":"A polymer film should curl reversibly when chain ends migrate toward its illuminated face.","prediction":"A polymer film should curl reversibly when chain ends migrate toward its illuminated face.","test":"Measure end-label profiles and curvature.","contrary":"Curvature changes without end migration.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0361","prediction":"A polymer film should curl reversibly when chain ends migrate toward its illuminated face.","feasible_test":"Measure end-label profiles and curvature.","contrary_outcome":"Curvature changes without end migration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0362","id":"S2-0362","volume":"900v2","title":"A vitrifying resin should preserve a moving stress maximum behind its curing front.","prediction":"A vitrifying resin should preserve a moving stress maximum behind its curing front.","test":"Map stress and conversion.","contrary":"Stress peaks coincide only with conversion maxima.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0362","prediction":"A vitrifying resin should preserve a moving stress maximum behind its curing front.","feasible_test":"Map stress and conversion.","contrary_outcome":"Stress peaks coincide only with conversion maxima.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0363","id":"S2-0363","volume":"900v2","title":"A swollen network should expel solvent preferentially from recently stretched domains.","prediction":"A swollen network should expel solvent preferentially from recently stretched domains.","test":"Track solvent after localized loading.","contrary":"Expulsion is spatially uniform.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0363","prediction":"A swollen network should expel solvent preferentially from recently stretched domains.","feasible_test":"Track solvent after localized loading.","contrary_outcome":"Expulsion is spatially uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0364","id":"S2-0364","volume":"900v2","title":"A polymer brush should remain collapsed after solvent restoration when neighboring chains interlock.","prediction":"A polymer brush should remain collapsed after solvent restoration when neighboring chains interlock.","test":"Measure height and chain mobility.","contrary":"Height recovers immediately.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0364","prediction":"A polymer brush should remain collapsed after solvent restoration when neighboring chains interlock.","feasible_test":"Measure height and chain mobility.","contrary_outcome":"Height recovers immediately.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0365","id":"S2-0365","volume":"900v2","title":"A mixed gel should fracture less after rest because sacrificial bonds reform across closed microcracks.","prediction":"A mixed gel should fracture less after rest because sacrificial bonds reform across closed microcracks.","test":"Image bonds and reloading strength.","contrary":"Rest changes strength without crack rebonding.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0365","prediction":"A mixed gel should fracture less after rest because sacrificial bonds reform across closed microcracks.","feasible_test":"Image bonds and reloading strength.","contrary_outcome":"Rest changes strength without crack rebonding.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0366","id":"S2-0366","volume":"900v2","title":"A shape-memory strip should recover in discrete jumps when stored folds depin sequentially.","prediction":"A shape-memory strip should recover in discrete jumps when stored folds depin sequentially.","test":"Record curvature and force.","contrary":"Recovery remains continuous.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0366","prediction":"A shape-memory strip should recover in discrete jumps when stored folds depin sequentially.","feasible_test":"Record curvature and force.","contrary_outcome":"Recovery remains continuous.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0367","id":"S2-0367","volume":"900v2","title":"A porous elastomer should whistle at a pressure threshold set by coupled pore oscillations.","prediction":"A porous elastomer should whistle at a pressure threshold set by coupled pore oscillations.","test":"Measure sound and pore motion.","contrary":"Sound lacks coherent pore oscillation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0367","prediction":"A porous elastomer should whistle at a pressure threshold set by coupled pore oscillations.","feasible_test":"Measure sound and pore motion.","contrary_outcome":"Sound lacks coherent pore oscillation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0368","id":"S2-0368","volume":"900v2","title":"A molecular glass should age faster near a free curved surface than a flat one.","prediction":"A molecular glass should age faster near a free curved surface than a flat one.","test":"Measure local relaxation.","contrary":"Curvature leaves relaxation unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0368","prediction":"A molecular glass should age faster near a free curved surface than a flat one.","feasible_test":"Measure local relaxation.","contrary_outcome":"Curvature leaves relaxation unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0369","id":"S2-0369","volume":"900v2","title":"A polymer melt should retain aligned void nuclei after transient extension.","prediction":"A polymer melt should retain aligned void nuclei after transient extension.","test":"Image void onset during reloading.","contrary":"Nucleation becomes isotropic immediately.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0369","prediction":"A polymer melt should retain aligned void nuclei after transient extension.","feasible_test":"Image void onset during reloading.","contrary_outcome":"Nucleation becomes isotropic immediately.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0370","id":"S2-0370","volume":"900v2","title":"A hydrogel interface should become tougher when opposing dangling chains interpenetrate during compressed rest.","prediction":"A hydrogel interface should become tougher when opposing dangling chains interpenetrate during compressed rest.","test":"Measure interpenetration and peel energy.","contrary":"Toughness is independent of interpenetration.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0370","prediction":"A hydrogel interface should become tougher when opposing dangling chains interpenetrate during compressed rest.","feasible_test":"Measure interpenetration and peel energy.","contrary_outcome":"Toughness is independent of interpenetration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0371","id":"S2-0371","volume":"900v2","title":"A swollen film should delaminate through an advancing osmotic wedge.","prediction":"A swollen film should delaminate through an advancing osmotic wedge.","test":"Map interfacial water and peeling.","contrary":"Peeling advances without a water wedge.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0371","prediction":"A swollen film should delaminate through an advancing osmotic wedge.","feasible_test":"Map interfacial water and peeling.","contrary_outcome":"Peeling advances without a water wedge.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0372","id":"S2-0372","volume":"900v2","title":"A fiber-reinforced gel should redirect cracks by rotating fibers ahead of rupture.","prediction":"A fiber-reinforced gel should redirect cracks by rotating fibers ahead of rupture.","test":"Image fiber angles and cracks.","contrary":"Deflection precedes no fiber rotation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0372","prediction":"A fiber-reinforced gel should redirect cracks by rotating fibers ahead of rupture.","feasible_test":"Image fiber angles and cracks.","contrary_outcome":"Deflection precedes no fiber rotation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0373","id":"S2-0373","volume":"900v2","title":"A polymer membrane should exhibit temporary negative incremental permeability after rapid stretching.","prediction":"A polymer membrane should exhibit temporary negative incremental permeability after rapid stretching.","test":"Measure flux during fixed-pressure extension.","contrary":"Permeability rises monotonically.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0373","prediction":"A polymer membrane should exhibit temporary negative incremental permeability after rapid stretching.","feasible_test":"Measure flux during fixed-pressure extension.","contrary_outcome":"Permeability rises monotonically.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0374","id":"S2-0374","volume":"900v2","title":"A drying colloid-polymer mixture should form an internal lubricating layer that decouples its surface skin.","prediction":"A drying colloid-polymer mixture should form an internal lubricating layer that decouples its surface skin.","test":"Map composition and shear displacement.","contrary":"Skin remains mechanically coupled.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0374","prediction":"A drying colloid-polymer mixture should form an internal lubricating layer that decouples its surface skin.","feasible_test":"Map composition and shear displacement.","contrary_outcome":"Skin remains mechanically coupled.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0375","id":"S2-0375","volume":"900v2","title":"A gel bead should retain an off-center solvent pocket after asymmetric compression.","prediction":"A gel bead should retain an off-center solvent pocket after asymmetric compression.","test":"Image internal water distribution.","contrary":"Water equilibrates without a persistent pocket.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0375","prediction":"A gel bead should retain an off-center solvent pocket after asymmetric compression.","feasible_test":"Image internal water distribution.","contrary_outcome":"Water equilibrates without a persistent pocket.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0376","id":"S2-0376","volume":"900v2","title":"A reversible adhesive should peel with lower force after a brief torsional preload.","prediction":"A reversible adhesive should peel with lower force after a brief torsional preload.","test":"Measure bond population and peeling.","contrary":"Torsion produces no force reduction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0376","prediction":"A reversible adhesive should peel with lower force after a brief torsional preload.","feasible_test":"Measure bond population and peeling.","contrary_outcome":"Torsion produces no force reduction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0377","id":"S2-0377","volume":"900v2","title":"A porous rubber should absorb impacts through delayed gas migration between cavities.","prediction":"A porous rubber should absorb impacts through delayed gas migration between cavities.","test":"Measure cavity pressures and energy loss.","contrary":"Loss persists unchanged with inter-cavity flow blocked.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0377","prediction":"A porous rubber should absorb impacts through delayed gas migration between cavities.","feasible_test":"Measure cavity pressures and energy loss.","contrary_outcome":"Loss persists unchanged with inter-cavity flow blocked.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0378","id":"S2-0378","volume":"900v2","title":"A confined polymer solution should form axial concentration bands under oscillatory extension.","prediction":"A confined polymer solution should form axial concentration bands under oscillatory extension.","test":"Map concentration and velocity.","contrary":"Concentration remains homogeneous.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0378","prediction":"A confined polymer solution should form axial concentration bands under oscillatory extension.","feasible_test":"Map concentration and velocity.","contrary_outcome":"Concentration remains homogeneous.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0379","id":"S2-0379","volume":"900v2","title":"A tough hydrogel should show a crack-tip cooling pulse during reversible bond dissociation.","prediction":"A tough hydrogel should show a crack-tip cooling pulse during reversible bond dissociation.","test":"Measure calibrated microthermography.","contrary":"No cooling exceeds the thermal noise bound.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0379","prediction":"A tough hydrogel should show a crack-tip cooling pulse during reversible bond dissociation.","feasible_test":"Measure calibrated microthermography.","contrary_outcome":"No cooling exceeds the thermal noise bound.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0380","id":"S2-0380","volume":"900v2","title":"A polymer foam should recover faster when cavity openings face a pressure gradient.","prediction":"A polymer foam should recover faster when cavity openings face a pressure gradient.","test":"Measure recovery with reversed orientation.","contrary":"Recovery is orientation-independent.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0380","prediction":"A polymer foam should recover faster when cavity openings face a pressure gradient.","feasible_test":"Measure recovery with reversed orientation.","contrary_outcome":"Recovery is orientation-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0381","id":"S2-0381","volume":"900v2","title":"A liquid-crystal elastomer should maintain a transient kink after illumination ends because director relaxation lags strain.","prediction":"A liquid-crystal elastomer should maintain a transient kink after illumination ends because director relaxation lags strain.","test":"Measure orientation and shape.","contrary":"Director and strain relax together.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0381","prediction":"A liquid-crystal elastomer should maintain a transient kink after illumination ends because director relaxation lags strain.","feasible_test":"Measure orientation and shape.","contrary_outcome":"Director and strain relax together.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0382","id":"S2-0382","volume":"900v2","title":"A polymer coating should retain fewer bubbles when cyclic strain sweeps nucleation sites together.","prediction":"A polymer coating should retain fewer bubbles when cyclic strain sweeps nucleation sites together.","test":"Image nucleation and merger.","contrary":"Bubble density follows dissolved gas alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0382","prediction":"A polymer coating should retain fewer bubbles when cyclic strain sweeps nucleation sites together.","feasible_test":"Image nucleation and merger.","contrary_outcome":"Bubble density follows dissolved gas alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0383","id":"S2-0383","volume":"900v2","title":"A gel laminate should separate cleanly along an interface after solvent-selective diffusion reverses adhesion.","prediction":"A gel laminate should separate cleanly along an interface after solvent-selective diffusion reverses adhesion.","test":"Measure solvent profiles and peel location.","contrary":"Failure remains cohesive within layers.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0383","prediction":"A gel laminate should separate cleanly along an interface after solvent-selective diffusion reverses adhesion.","feasible_test":"Measure solvent profiles and peel location.","contrary_outcome":"Failure remains cohesive within layers.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0384","id":"S2-0384","volume":"900v2","title":"A polymer filament should neck at a prior compressed segment because entanglement density relaxes unevenly.","prediction":"A polymer filament should neck at a prior compressed segment because entanglement density relaxes unevenly.","test":"Measure local dynamics and necking.","contrary":"Neck location ignores loading history.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0384","prediction":"A polymer filament should neck at a prior compressed segment because entanglement density relaxes unevenly.","feasible_test":"Measure local dynamics and necking.","contrary_outcome":"Neck location ignores loading history.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0385","id":"S2-0385","volume":"900v2","title":"A porous adhesive should become stronger during slow peeling as drained pores increase contact area.","prediction":"A porous adhesive should become stronger during slow peeling as drained pores increase contact area.","test":"Map pore liquid and peel energy.","contrary":"Drainage does not increase contact area.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0385","prediction":"A porous adhesive should become stronger during slow peeling as drained pores increase contact area.","feasible_test":"Map pore liquid and peel energy.","contrary_outcome":"Drainage does not increase contact area.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0386","id":"S2-0386","volume":"900v2","title":"An elastomer shell should invert through a traveling crease under localized solvent exposure.","prediction":"An elastomer shell should invert through a traveling crease under localized solvent exposure.","test":"Track solvent and inversion fronts.","contrary":"Inversion occurs only by global collapse.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0386","prediction":"An elastomer shell should invert through a traveling crease under localized solvent exposure.","feasible_test":"Track solvent and inversion fronts.","contrary_outcome":"Inversion occurs only by global collapse.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0387","id":"S2-0387","volume":"900v2","title":"A charged gel should retain a voltage after mechanical unloading through slow counterion redistribution.","prediction":"A charged gel should retain a voltage after mechanical unloading through slow counterion redistribution.","test":"Measure voltage and ion profiles.","contrary":"Voltage vanishes with strain.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0387","prediction":"A charged gel should retain a voltage after mechanical unloading through slow counterion redistribution.","feasible_test":"Measure voltage and ion profiles.","contrary_outcome":"Voltage vanishes with strain.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0388","id":"S2-0388","volume":"900v2","title":"A polymer surface should become directionally wettable after friction aligns near-surface chains.","prediction":"A polymer surface should become directionally wettable after friction aligns near-surface chains.","test":"Measure chain orientation and contact angles.","contrary":"Wetting anisotropy lacks chain alignment.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0388","prediction":"A polymer surface should become directionally wettable after friction aligns near-surface chains.","feasible_test":"Measure chain orientation and contact angles.","contrary_outcome":"Wetting anisotropy lacks chain alignment.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0389","id":"S2-0389","volume":"900v2","title":"A soft composite should reduce vibration transmission by reversible interface separation.","prediction":"A soft composite should reduce vibration transmission by reversible interface separation.","test":"Image interfaces and transmission.","contrary":"Attenuation is unchanged when separation is prevented.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0389","prediction":"A soft composite should reduce vibration transmission by reversible interface separation.","feasible_test":"Image interfaces and transmission.","contrary_outcome":"Attenuation is unchanged when separation is prevented.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0390","id":"S2-0390","volume":"900v2","title":"A hydrogel screw should translate in a granular bed through cyclic pitch changes.","prediction":"A hydrogel screw should translate in a granular bed through cyclic pitch changes.","test":"Measure pitch and net movement.","contrary":"Movement remains zero without external rotation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0390","prediction":"A hydrogel screw should translate in a granular bed through cyclic pitch changes.","feasible_test":"Measure pitch and net movement.","contrary_outcome":"Movement remains zero without external rotation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0391","id":"S2-0391","volume":"900v2","title":"A colloidal crystal should heal vacancies faster along a curved boundary than a straight boundary.","prediction":"A colloidal crystal should heal vacancies faster along a curved boundary than a straight boundary.","test":"Track vacancy diffusion.","contrary":"Healing rates are curvature-independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0391","prediction":"A colloidal crystal should heal vacancies faster along a curved boundary than a straight boundary.","feasible_test":"Track vacancy diffusion.","contrary_outcome":"Healing rates are curvature-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0392","id":"S2-0392","volume":"900v2","title":"A nanoparticle ring should break at a site selected by collective vibration rather than weakest bonding.","prediction":"A nanoparticle ring should break at a site selected by collective vibration rather than weakest bonding.","test":"Map modes and break locations.","contrary":"Breakage follows local bond strength alone.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0392","prediction":"A nanoparticle ring should break at a site selected by collective vibration rather than weakest bonding.","feasible_test":"Map modes and break locations.","contrary_outcome":"Breakage follows local bond strength alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0393","id":"S2-0393","volume":"900v2","title":"A supramolecular fiber should split longitudinally when adsorbed molecules create edge stress.","prediction":"A supramolecular fiber should split longitudinally when adsorbed molecules create edge stress.","test":"Measure adsorption and splitting.","contrary":"Splitting occurs without edge-enriched adsorption.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0393","prediction":"A supramolecular fiber should split longitudinally when adsorbed molecules create edge stress.","feasible_test":"Measure adsorption and splitting.","contrary_outcome":"Splitting occurs without edge-enriched adsorption.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0394","id":"S2-0394","volume":"900v2","title":"A self-assembled shell should regulate its pore size through redistribution of mobile defects.","prediction":"A self-assembled shell should regulate its pore size through redistribution of mobile defects.","test":"Track defects and permeability.","contrary":"Pore changes occur with fixed defects.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0394","prediction":"A self-assembled shell should regulate its pore size through redistribution of mobile defects.","feasible_test":"Track defects and permeability.","contrary_outcome":"Pore changes occur with fixed defects.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0395","id":"S2-0395","volume":"900v2","title":"A colloidal chain should fold into one preferred knot under a traveling confinement wave.","prediction":"A colloidal chain should fold into one preferred knot under a traveling confinement wave.","test":"Image topology after wave reversal.","contrary":"Knot distribution matches static confinement.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0395","prediction":"A colloidal chain should fold into one preferred knot under a traveling confinement wave.","feasible_test":"Image topology after wave reversal.","contrary_outcome":"Knot distribution matches static confinement.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0396","id":"S2-0396","volume":"900v2","title":"A molecular ribbon should elongate faster after mechanical straightening exposes buried growth sites.","prediction":"A molecular ribbon should elongate faster after mechanical straightening exposes buried growth sites.","test":"Measure growth and accessible ends.","contrary":"Growth is independent of straightening.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0396","prediction":"A molecular ribbon should elongate faster after mechanical straightening exposes buried growth sites.","feasible_test":"Measure growth and accessible ends.","contrary_outcome":"Growth is independent of straightening.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0397","id":"S2-0397","volume":"900v2","title":"A patchy particle cluster should store assembly sequence as unequal bond lifetimes.","prediction":"A patchy particle cluster should store assembly sequence as unequal bond lifetimes.","test":"Measure bond survival after sequence reversal.","contrary":"Lifetimes depend only on final geometry.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0397","prediction":"A patchy particle cluster should store assembly sequence as unequal bond lifetimes.","feasible_test":"Measure bond survival after sequence reversal.","contrary_outcome":"Lifetimes depend only on final geometry.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0398","id":"S2-0398","volume":"900v2","title":"An interfacial monolayer should expel defects toward a moving compression boundary.","prediction":"An interfacial monolayer should expel defects toward a moving compression boundary.","test":"Track defects and local strain.","contrary":"Defects diffuse without directional drift.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0398","prediction":"An interfacial monolayer should expel defects toward a moving compression boundary.","feasible_test":"Track defects and local strain.","contrary_outcome":"Defects diffuse without directional drift.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0399","id":"S2-0399","volume":"900v2","title":"A crystal seed enclosed in a droplet should drift away from its nutrient-depleted wake.","prediction":"A crystal seed enclosed in a droplet should drift away from its nutrient-depleted wake.","test":"Map concentration and seed motion.","contrary":"Motion follows only convection.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0399","prediction":"A crystal seed enclosed in a droplet should drift away from its nutrient-depleted wake.","feasible_test":"Map concentration and seed motion.","contrary_outcome":"Motion follows only convection.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0400","id":"S2-0400","volume":"900v2","title":"A nanoparticle shell should stiffen abruptly when rotational contacts become locked.","prediction":"A nanoparticle shell should stiffen abruptly when rotational contacts become locked.","test":"Measure particle rotation and shell modulus.","contrary":"Stiffening precedes no rotational arrest.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0400","prediction":"A nanoparticle shell should stiffen abruptly when rotational contacts become locked.","feasible_test":"Measure particle rotation and shell modulus.","contrary_outcome":"Stiffening precedes no rotational arrest.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0401","id":"S2-0401","volume":"900v2","title":"A supramolecular helix should recoil after severing with angular speed determined by stored twist.","prediction":"A supramolecular helix should recoil after severing with angular speed determined by stored twist.","test":"Measure twist and recoil.","contrary":"Recoil lacks twist dependence.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0401","prediction":"A supramolecular helix should recoil after severing with angular speed determined by stored twist.","feasible_test":"Measure twist and recoil.","contrary_outcome":"Recoil lacks twist dependence.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0402","id":"S2-0402","volume":"900v2","title":"A colloidal raft should reorganize after acoustic excitation into fewer large domains.","prediction":"A colloidal raft should reorganize after acoustic excitation into fewer large domains.","test":"Map domains and oscillation amplitudes.","contrary":"Domain coarsening matches unexcited aging.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0402","prediction":"A colloidal raft should reorganize after acoustic excitation into fewer large domains.","feasible_test":"Map domains and oscillation amplitudes.","contrary_outcome":"Domain coarsening matches unexcited aging.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0403","id":"S2-0403","volume":"900v2","title":"A molecular stack should transmit charge more efficiently after reversible mechanical registry correction.","prediction":"A molecular stack should transmit charge more efficiently after reversible mechanical registry correction.","test":"Measure structure and conductance.","contrary":"Conductance is registry-independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0403","prediction":"A molecular stack should transmit charge more efficiently after reversible mechanical registry correction.","feasible_test":"Measure structure and conductance.","contrary_outcome":"Conductance is registry-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0404","id":"S2-0404","volume":"900v2","title":"A particle-stabilized droplet should resist coalescence through a buckled armor rim.","prediction":"A particle-stabilized droplet should resist coalescence through a buckled armor rim.","test":"Image rim and collision outcomes.","contrary":"Coalescence resistance remains after rim flattening.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0404","prediction":"A particle-stabilized droplet should resist coalescence through a buckled armor rim.","feasible_test":"Image rim and collision outcomes.","contrary_outcome":"Coalescence resistance remains after rim flattening.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0405","id":"S2-0405","volume":"900v2","title":"An assembling nanofiber should bend toward a region of slower monomer exchange.","prediction":"An assembling nanofiber should bend toward a region of slower monomer exchange.","test":"Measure growth and exchange rates.","contrary":"Bending follows only concentration gradients.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0405","prediction":"An assembling nanofiber should bend toward a region of slower monomer exchange.","feasible_test":"Measure growth and exchange rates.","contrary_outcome":"Bending follows only concentration gradients.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0406","id":"S2-0406","volume":"900v2","title":"A porous molecular cage film should gate transport when neighboring cages synchronize rotations.","prediction":"A porous molecular cage film should gate transport when neighboring cages synchronize rotations.","test":"Measure rotational correlation and flux.","contrary":"Flux changes lack correlated rotation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0406","prediction":"A porous molecular cage film should gate transport when neighboring cages synchronize rotations.","feasible_test":"Measure rotational correlation and flux.","contrary_outcome":"Flux changes lack correlated rotation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0407","id":"S2-0407","volume":"900v2","title":"A colloidal gel should form persistent tunnels along paths cleared by a dissolving sacrificial filament.","prediction":"A colloidal gel should form persistent tunnels along paths cleared by a dissolving sacrificial filament.","test":"Measure tunnel connectivity and diffusion.","contrary":"Tunnels collapse before enhanced transport occurs.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0407","prediction":"A colloidal gel should form persistent tunnels along paths cleared by a dissolving sacrificial filament.","feasible_test":"Measure tunnel connectivity and diffusion.","contrary_outcome":"Tunnels collapse before enhanced transport occurs.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0408","id":"S2-0408","volume":"900v2","title":"A charged particle chain should exhibit alternating bond lengths after sudden screening reduction.","prediction":"A charged particle chain should exhibit alternating bond lengths after sudden screening reduction.","test":"Resolve pair spacings over time.","contrary":"Spacing changes remain uniform.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0408","prediction":"A charged particle chain should exhibit alternating bond lengths after sudden screening reduction.","feasible_test":"Resolve pair spacings over time.","contrary_outcome":"Spacing changes remain uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0409","id":"S2-0409","volume":"900v2","title":"A self-assembled capsule should seal punctures through lateral migration of unbound building blocks.","prediction":"A self-assembled capsule should seal punctures through lateral migration of unbound building blocks.","test":"Track labeled building blocks and leakage.","contrary":"Sealing occurs without lateral migration.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0409","prediction":"A self-assembled capsule should seal punctures through lateral migration of unbound building blocks.","feasible_test":"Track labeled building blocks and leakage.","contrary_outcome":"Sealing occurs without lateral migration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0410","id":"S2-0410","volume":"900v2","title":"A molecular membrane should sort enantiomers only while its chiral domains are mechanically aligned.","prediction":"A molecular membrane should sort enantiomers only while its chiral domains are mechanically aligned.","test":"Measure domain orientation and transport.","contrary":"Selectivity persists unchanged after domain randomization.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0410","prediction":"A molecular membrane should sort enantiomers only while its chiral domains are mechanically aligned.","feasible_test":"Measure domain orientation and transport.","contrary_outcome":"Selectivity persists unchanged after domain randomization.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0411","id":"S2-0411","volume":"900v2","title":"An acoustic field should compact a sediment bed from within by selectively exciting loose contact modes.","prediction":"An acoustic field should compact a sediment bed from within by selectively exciting loose contact modes.","test":"Map compaction and modes.","contrary":"Compaction starts exclusively at the surface.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0411","prediction":"An acoustic field should compact a sediment bed from within by selectively exciting loose contact modes.","feasible_test":"Map compaction and modes.","contrary_outcome":"Compaction starts exclusively at the surface.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0412","id":"S2-0412","volume":"900v2","title":"A suspended grain should detect nearby walls through a shift in acoustic drag.","prediction":"A suspended grain should detect nearby walls through a shift in acoustic drag.","test":"Measure response versus wall distance.","contrary":"Shifts match bulk drag without wall dependence.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0412","prediction":"A suspended grain should detect nearby walls through a shift in acoustic drag.","feasible_test":"Measure response versus wall distance.","contrary_outcome":"Shifts match bulk drag without wall dependence.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0413","id":"S2-0413","volume":"900v2","title":"An elastic tube should transmit different pulse shapes in opposite directions after one-sided prestress.","prediction":"An elastic tube should transmit different pulse shapes in opposite directions after one-sided prestress.","test":"Measure bidirectional impulse responses.","contrary":"Responses coincide after endpoint correction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0413","prediction":"An elastic tube should transmit different pulse shapes in opposite directions after one-sided prestress.","feasible_test":"Measure bidirectional impulse responses.","contrary_outcome":"Responses coincide after endpoint correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0414","id":"S2-0414","volume":"900v2","title":"A liquid-filled shell should exhibit a split resonance when an internal meniscus becomes pinned.","prediction":"A liquid-filled shell should exhibit a split resonance when an internal meniscus becomes pinned.","test":"Track resonance and contact lines.","contrary":"Splitting is independent of pinning.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0414","prediction":"A liquid-filled shell should exhibit a split resonance when an internal meniscus becomes pinned.","feasible_test":"Track resonance and contact lines.","contrary_outcome":"Splitting is independent of pinning.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0415","id":"S2-0415","volume":"900v2","title":"A granular damper should lose efficiency after particles synchronize into a collective rolling mode.","prediction":"A granular damper should lose efficiency after particles synchronize into a collective rolling mode.","test":"Measure motion and dissipated energy.","contrary":"Efficiency lacks correlation with synchronization.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0415","prediction":"A granular damper should lose efficiency after particles synchronize into a collective rolling mode.","feasible_test":"Measure motion and dissipated energy.","contrary_outcome":"Efficiency lacks correlation with synchronization.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0416","id":"S2-0416","volume":"900v2","title":"A porous sound absorber should improve after controlled dew forms isolated viscous bridges.","prediction":"A porous sound absorber should improve after controlled dew forms isolated viscous bridges.","test":"Measure attenuation and bridge topology.","contrary":"Attenuation increases only after full flooding.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0416","prediction":"A porous sound absorber should improve after controlled dew forms isolated viscous bridges.","feasible_test":"Measure attenuation and bridge topology.","contrary_outcome":"Attenuation increases only after full flooding.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0417","id":"S2-0417","volume":"900v2","title":"A thin plate should reveal hidden adhesive degradation through amplitude-dependent resonance softening.","prediction":"A thin plate should reveal hidden adhesive degradation through amplitude-dependent resonance softening.","test":"Compare modes with measured adhesion.","contrary":"Softening cannot discriminate degraded interfaces.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0417","prediction":"A thin plate should reveal hidden adhesive degradation through amplitude-dependent resonance softening.","feasible_test":"Compare modes with measured adhesion.","contrary_outcome":"Softening cannot discriminate degraded interfaces.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0418","id":"S2-0418","volume":"900v2","title":"A resonant cavity should trap sound more strongly when flexible walls buckle inward under mean pressure.","prediction":"A resonant cavity should trap sound more strongly when flexible walls buckle inward under mean pressure.","test":"Measure geometry and decay time.","contrary":"Trapping changes follow volume alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0418","prediction":"A resonant cavity should trap sound more strongly when flexible walls buckle inward under mean pressure.","feasible_test":"Measure geometry and decay time.","contrary_outcome":"Trapping changes follow volume alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0419","id":"S2-0419","volume":"900v2","title":"A bubble near a soft boundary should radiate asymmetrically because boundary motion lags expansion.","prediction":"A bubble near a soft boundary should radiate asymmetrically because boundary motion lags expansion.","test":"Measure pressure fields and wall motion.","contrary":"Radiation remains symmetric after geometry correction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0419","prediction":"A bubble near a soft boundary should radiate asymmetrically because boundary motion lags expansion.","feasible_test":"Measure pressure fields and wall motion.","contrary_outcome":"Radiation remains symmetric after geometry correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0420","id":"S2-0420","volume":"900v2","title":"A mechanical wave should drag a loose inclusion through repeated asymmetric contact impulses.","prediction":"A mechanical wave should drag a loose inclusion through repeated asymmetric contact impulses.","test":"Track impulse timing and displacement.","contrary":"Net motion disappears after wave symmetry correction.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0420","prediction":"A mechanical wave should drag a loose inclusion through repeated asymmetric contact impulses.","feasible_test":"Track impulse timing and displacement.","contrary_outcome":"Net motion disappears after wave symmetry correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0421","id":"S2-0421","volume":"900v2","title":"A nonuniform tension string should concentrate transient heating where vibration localizes.","prediction":"A nonuniform tension string should concentrate transient heating where vibration localizes.","test":"Map temperature and vibration energy.","contrary":"Heating follows uniform damping alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0421","prediction":"A nonuniform tension string should concentrate transient heating where vibration localizes.","feasible_test":"Map temperature and vibration energy.","contrary_outcome":"Heating follows uniform damping alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0422","id":"S2-0422","volume":"900v2","title":"A fluid-saturated beam should show maximum damping when pore-pressure relaxation matches its bending period.","prediction":"A fluid-saturated beam should show maximum damping when pore-pressure relaxation matches its bending period.","test":"Measure damping across independently calibrated relaxation.","contrary":"No relaxation-matched maximum appears.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0422","prediction":"A fluid-saturated beam should show maximum damping when pore-pressure relaxation matches its bending period.","feasible_test":"Measure damping across independently calibrated relaxation.","contrary_outcome":"No relaxation-matched maximum appears.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0423","id":"S2-0423","volume":"900v2","title":"A sound-driven droplet should pump solute across its surface through repeated boundary-layer renewal.","prediction":"A sound-driven droplet should pump solute across its surface through repeated boundary-layer renewal.","test":"Measure mass transfer and internal velocity.","contrary":"Transfer follows mean surface area alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0423","prediction":"A sound-driven droplet should pump solute across its surface through repeated boundary-layer renewal.","feasible_test":"Measure mass transfer and internal velocity.","contrary_outcome":"Transfer follows mean surface area alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0424","id":"S2-0424","volume":"900v2","title":"A vibrated powder should segregate by surface roughness at equal size and density.","prediction":"A vibrated powder should segregate by surface roughness at equal size and density.","test":"Track roughness-calibrated particles.","contrary":"Segregation disappears after friction matching.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0424","prediction":"A vibrated powder should segregate by surface roughness at equal size and density.","feasible_test":"Track roughness-calibrated particles.","contrary_outcome":"Segregation disappears after friction matching.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0425","id":"S2-0425","volume":"900v2","title":"A cavity array should retain an acoustic memory after a pulse through metastable wall deflections.","prediction":"A cavity array should retain an acoustic memory after a pulse through metastable wall deflections.","test":"Measure postpulse resonance.","contrary":"Resonance resets after vibrations cease.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0425","prediction":"A cavity array should retain an acoustic memory after a pulse through metastable wall deflections.","feasible_test":"Measure postpulse resonance.","contrary_outcome":"Resonance resets after vibrations cease.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0426","id":"S2-0426","volume":"900v2","title":"A soft acoustic lens should move its focus after a pressure pulse plastically rearranges internal inclusions.","prediction":"A soft acoustic lens should move its focus after a pressure pulse plastically rearranges internal inclusions.","test":"Measure focus and inclusion coordinates.","contrary":"Focus recovery is complete despite rearrangements.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0426","prediction":"A soft acoustic lens should move its focus after a pressure pulse plastically rearranges internal inclusions.","feasible_test":"Measure focus and inclusion coordinates.","contrary_outcome":"Focus recovery is complete despite rearrangements.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0427","id":"S2-0427","volume":"900v2","title":"A ring of coupled pendula should pin a phase defect at a deliberately dissipative site.","prediction":"A ring of coupled pendula should pin a phase defect at a deliberately dissipative site.","test":"Track phase and energy loss.","contrary":"Defect placement is dissipation-independent.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0427","prediction":"A ring of coupled pendula should pin a phase defect at a deliberately dissipative site.","feasible_test":"Track phase and energy loss.","contrary_outcome":"Defect placement is dissipation-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0428","id":"S2-0428","volume":"900v2","title":"A rolling elastic disk should change its acoustic spectrum before it transitions from rolling to slipping.","prediction":"A rolling elastic disk should change its acoustic spectrum before it transitions from rolling to slipping.","test":"Measure contact motion and sound.","contrary":"Spectral change begins after slip.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0428","prediction":"A rolling elastic disk should change its acoustic spectrum before it transitions from rolling to slipping.","feasible_test":"Measure contact motion and sound.","contrary_outcome":"Spectral change begins after slip.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0429","id":"S2-0429","volume":"900v2","title":"A capillary bridge array should absorb shock through progressive rather than simultaneous rupture.","prediction":"A capillary bridge array should absorb shock through progressive rather than simultaneous rupture.","test":"Image bridge failures and force.","contrary":"Failures remain simultaneous across loading rates.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0429","prediction":"A capillary bridge array should absorb shock through progressive rather than simultaneous rupture.","feasible_test":"Image bridge failures and force.","contrary_outcome":"Failures remain simultaneous across loading rates.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0430","id":"S2-0430","volume":"900v2","title":"A porous resonator should distinguish gas composition from pressure through two independent relaxation modes.","prediction":"A porous resonator should distinguish gas composition from pressure through two independent relaxation modes.","test":"Calibrate mixtures and pressure separately.","contrary":"Modes remain degenerate across both variables.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0430","prediction":"A porous resonator should distinguish gas composition from pressure through two independent relaxation modes.","feasible_test":"Calibrate mixtures and pressure separately.","contrary_outcome":"Modes remain degenerate across both variables.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0431","id":"S2-0431","volume":"900v2","title":"A weakly conducting liquid should retain vortices after voltage removal because charge relaxes slower than momentum.","prediction":"A weakly conducting liquid should retain vortices after voltage removal because charge relaxes slower than momentum.","test":"Measure charge and flow decay.","contrary":"Flow stops before residual charge can drive it.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0431","prediction":"A weakly conducting liquid should retain vortices after voltage removal because charge relaxes slower than momentum.","feasible_test":"Measure charge and flow decay.","contrary_outcome":"Flow stops before residual charge can drive it.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0432","id":"S2-0432","volume":"900v2","title":"An ionic membrane should develop a transient mechanical wave after a voltage step changes osmotic pressure.","prediction":"An ionic membrane should develop a transient mechanical wave after a voltage step changes osmotic pressure.","test":"Image strain and ion gradients.","contrary":"Deformation remains quasistatic.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0432","prediction":"An ionic membrane should develop a transient mechanical wave after a voltage step changes osmotic pressure.","feasible_test":"Image strain and ion gradients.","contrary_outcome":"Deformation remains quasistatic.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0433","id":"S2-0433","volume":"900v2","title":"A redox polymer should generate tensile stress before its bulk volume changes.","prediction":"A redox polymer should generate tensile stress before its bulk volume changes.","test":"Measure force and dilatation simultaneously.","contrary":"Stress follows volume change without lead.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0433","prediction":"A redox polymer should generate tensile stress before its bulk volume changes.","feasible_test":"Measure force and dilatation simultaneously.","contrary_outcome":"Stress follows volume change without lead.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0434","id":"S2-0434","volume":"900v2","title":"A liquid electrode should display capacitance bursts as oxide folds intermittently expose clean metal.","prediction":"A liquid electrode should display capacitance bursts as oxide folds intermittently expose clean metal.","test":"Record surface imaging and impedance.","contrary":"Bursts lack exposed-metal events.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0434","prediction":"A liquid electrode should display capacitance bursts as oxide folds intermittently expose clean metal.","feasible_test":"Record surface imaging and impedance.","contrary_outcome":"Bursts lack exposed-metal events.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0435","id":"S2-0435","volume":"900v2","title":"A porous capacitor should recharge faster after mechanical compression expels depleted electrolyte.","prediction":"A porous capacitor should recharge faster after mechanical compression expels depleted electrolyte.","test":"Measure electrolyte motion and recharge.","contrary":"Recharge gains follow area changes alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0435","prediction":"A porous capacitor should recharge faster after mechanical compression expels depleted electrolyte.","feasible_test":"Measure electrolyte motion and recharge.","contrary_outcome":"Recharge gains follow area changes alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0436","id":"S2-0436","volume":"900v2","title":"A floating conductive film should bend toward a charged object through asymmetric interfacial ion pressure.","prediction":"A floating conductive film should bend toward a charged object through asymmetric interfacial ion pressure.","test":"Measure ion profiles and curvature.","contrary":"Bending is fully explained by direct electrostatic force.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0436","prediction":"A floating conductive film should bend toward a charged object through asymmetric interfacial ion pressure.","feasible_test":"Measure ion profiles and curvature.","contrary_outcome":"Bending is fully explained by direct electrostatic force.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0437","id":"S2-0437","volume":"900v2","title":"A dielectric bead chain should retain lateral displacement after an alternating field ends because contacts frictionally lock.","prediction":"A dielectric bead chain should retain lateral displacement after an alternating field ends because contacts frictionally lock.","test":"Track contacts and residual geometry.","contrary":"Geometry relaxes completely.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0437","prediction":"A dielectric bead chain should retain lateral displacement after an alternating field ends because contacts frictionally lock.","feasible_test":"Track contacts and residual geometry.","contrary_outcome":"Geometry relaxes completely.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0438","id":"S2-0438","volume":"900v2","title":"An ion-selective pore should show flux oscillations when swelling periodically changes its exclusion strength.","prediction":"An ion-selective pore should show flux oscillations when swelling periodically changes its exclusion strength.","test":"Measure pore radius and ionic current.","contrary":"Oscillations remain when radius is fixed.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0438","prediction":"An ion-selective pore should show flux oscillations when swelling periodically changes its exclusion strength.","feasible_test":"Measure pore radius and ionic current.","contrary_outcome":"Oscillations remain when radius is fixed.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0439","id":"S2-0439","volume":"900v2","title":"A triboelectric droplet should reverse charge sign after rolling across a surface with a persistent water-film gradient.","prediction":"A triboelectric droplet should reverse charge sign after rolling across a surface with a persistent water-film gradient.","test":"Measure charge and film thickness.","contrary":"Sign depends only on surface chemistry.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0439","prediction":"A triboelectric droplet should reverse charge sign after rolling across a surface with a persistent water-film gradient.","feasible_test":"Measure charge and film thickness.","contrary_outcome":"Sign depends only on surface chemistry.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0440","id":"S2-0440","volume":"900v2","title":"A mechanical strain pulse should release trapped electronic charge at a moving dislocation front.","prediction":"A mechanical strain pulse should release trapped electronic charge at a moving dislocation front.","test":"Measure charge emission and defect motion.","contrary":"Emission lacks dislocation correlation.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0440","prediction":"A mechanical strain pulse should release trapped electronic charge at a moving dislocation front.","feasible_test":"Measure charge emission and defect motion.","contrary_outcome":"Emission lacks dislocation correlation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0441","id":"S2-0441","volume":"900v2","title":"A magnetically assembled sheet should wrinkle when field removal reduces in-plane attraction faster than bending stiffness.","prediction":"A magnetically assembled sheet should wrinkle when field removal reduces in-plane attraction faster than bending stiffness.","test":"Measure wrinkle onset and magnetic relaxation.","contrary":"Wrinkling is absent after verified attraction loss.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0441","prediction":"A magnetically assembled sheet should wrinkle when field removal reduces in-plane attraction faster than bending stiffness.","feasible_test":"Measure wrinkle onset and magnetic relaxation.","contrary_outcome":"Wrinkling is absent after verified attraction loss.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0442","id":"S2-0442","volume":"900v2","title":"A soft magnetic helix should reverse swimming direction after its rotation slips relative to the field.","prediction":"A soft magnetic helix should reverse swimming direction after its rotation slips relative to the field.","test":"Track phase lag and translation.","contrary":"Direction remains unchanged across phase slip.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0442","prediction":"A soft magnetic helix should reverse swimming direction after its rotation slips relative to the field.","feasible_test":"Track phase lag and translation.","contrary_outcome":"Direction remains unchanged across phase slip.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0443","id":"S2-0443","volume":"900v2","title":"A conductive hydrogel should reveal internal fracture through non-Gaussian voltage noise before resistance rises.","prediction":"A conductive hydrogel should reveal internal fracture through non-Gaussian voltage noise before resistance rises.","test":"Measure noise and crack imaging.","contrary":"Noise adds no predictive information.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0443","prediction":"A conductive hydrogel should reveal internal fracture through non-Gaussian voltage noise before resistance rises.","feasible_test":"Measure noise and crack imaging.","contrary_outcome":"Noise adds no predictive information.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0444","id":"S2-0444","volume":"900v2","title":"A thermal gradient should redistribute colloids in a charged slit through competing thermophoresis and electroosmosis.","prediction":"A thermal gradient should redistribute colloids in a charged slit through competing thermophoresis and electroosmosis.","test":"Measure particle and fluid velocities.","contrary":"Motion follows thermophoresis alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0444","prediction":"A thermal gradient should redistribute colloids in a charged slit through competing thermophoresis and electroosmosis.","feasible_test":"Measure particle and fluid velocities.","contrary_outcome":"Motion follows thermophoresis alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0445","id":"S2-0445","volume":"900v2","title":"A porous electrode should recover lost capacity after vibration disconnects blocking gas films.","prediction":"A porous electrode should recover lost capacity after vibration disconnects blocking gas films.","test":"Measure gas coverage and capacity.","contrary":"Recovery persists without gas removal.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0445","prediction":"A porous electrode should recover lost capacity after vibration disconnects blocking gas films.","feasible_test":"Measure gas coverage and capacity.","contrary_outcome":"Recovery persists without gas removal.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0446","id":"S2-0446","volume":"900v2","title":"A deformable electret should concentrate surface charge at moving crease tips.","prediction":"A deformable electret should concentrate surface charge at moving crease tips.","test":"Map charge during folding.","contrary":"Charge density follows area contraction alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0446","prediction":"A deformable electret should concentrate surface charge at moving crease tips.","feasible_test":"Map charge during folding.","contrary_outcome":"Charge density follows area contraction alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0447","id":"S2-0447","volume":"900v2","title":"A liquid junction should generate a delayed voltage reversal when ions bind unequally to its walls.","prediction":"A liquid junction should generate a delayed voltage reversal when ions bind unequally to its walls.","test":"Measure ion profiles and voltage.","contrary":"Voltage decays without reversal.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0447","prediction":"A liquid junction should generate a delayed voltage reversal when ions bind unequally to its walls.","feasible_test":"Measure ion profiles and voltage.","contrary_outcome":"Voltage decays without reversal.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0448","id":"S2-0448","volume":"900v2","title":"A magnetic particle bed should transmit stress pulses preferentially along remanently aligned contacts.","prediction":"A magnetic particle bed should transmit stress pulses preferentially along remanently aligned contacts.","test":"Map wave speed after field removal.","contrary":"Transmission becomes isotropic immediately.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0448","prediction":"A magnetic particle bed should transmit stress pulses preferentially along remanently aligned contacts.","feasible_test":"Map wave speed after field removal.","contrary_outcome":"Transmission becomes isotropic immediately.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0449","id":"S2-0449","volume":"900v2","title":"An electrochemical oscillator should entrain membrane motion through periodic surface-tension changes.","prediction":"An electrochemical oscillator should entrain membrane motion through periodic surface-tension changes.","test":"Measure voltage, tension, and displacement.","contrary":"Motion lacks stable phase coupling.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0449","prediction":"An electrochemical oscillator should entrain membrane motion through periodic surface-tension changes.","feasible_test":"Measure voltage, tension, and displacement.","contrary_outcome":"Motion lacks stable phase coupling.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0450","id":"S2-0450","volume":"900v2","title":"A soft dielectric should retain an optical birefringence trace of subbreakdown electrical tree initiation.","prediction":"A soft dielectric should retain an optical birefringence trace of subbreakdown electrical tree initiation.","test":"Compare birefringence and defect tomography.","contrary":"No trace exceeds unstressed controls.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0450","prediction":"A soft dielectric should retain an optical birefringence trace of subbreakdown electrical tree initiation.","feasible_test":"Compare birefringence and defect tomography.","contrary_outcome":"No trace exceeds unstressed controls.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0451","id":"S2-0451","volume":"900v2","title":"A root tip should deflect before touching an obstacle when compressed mucilage transmits pressure ahead.","prediction":"A root tip should deflect before touching an obstacle when compressed mucilage transmits pressure ahead.","test":"Image gap pressure and curvature.","contrary":"Deflection begins only after contact.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0451","prediction":"A root tip should deflect before touching an obstacle when compressed mucilage transmits pressure ahead.","feasible_test":"Image gap pressure and curvature.","contrary_outcome":"Deflection begins only after contact.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0452","id":"S2-0452","volume":"900v2","title":"A fungal network should concentrate transport through mechanically taut cords after neighboring cords slacken.","prediction":"A fungal network should concentrate transport through mechanically taut cords after neighboring cords slacken.","test":"Measure cord tension and inert tracer flux.","contrary":"Flux ignores tension after diameter correction.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0452","prediction":"A fungal network should concentrate transport through mechanically taut cords after neighboring cords slacken.","feasible_test":"Measure cord tension and inert tracer flux.","contrary_outcome":"Flux ignores tension after diameter correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0453","id":"S2-0453","volume":"900v2","title":"A detached leaf should display a transient hydraulic resonance after a vein pressure pulse.","prediction":"A detached leaf should display a transient hydraulic resonance after a vein pressure pulse.","test":"Record pressure at multiple vein locations.","contrary":"Responses remain purely diffusive.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0453","prediction":"A detached leaf should display a transient hydraulic resonance after a vein pressure pulse.","feasible_test":"Record pressure at multiple vein locations.","contrary_outcome":"Responses remain purely diffusive.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0454","id":"S2-0454","volume":"900v2","title":"A seed coat should localize oxygen entry at cracks opened by its earliest swelling axis.","prediction":"A seed coat should localize oxygen entry at cracks opened by its earliest swelling axis.","test":"Map oxygen and surface strain.","contrary":"Entry is uniform despite cracking.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0454","prediction":"A seed coat should localize oxygen entry at cracks opened by its earliest swelling axis.","feasible_test":"Map oxygen and surface strain.","contrary_outcome":"Entry is uniform despite cracking.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0455","id":"S2-0455","volume":"900v2","title":"A root epidermis should dissipate torsion through sequential wall-junction slips.","prediction":"A root epidermis should dissipate torsion through sequential wall-junction slips.","test":"Image junction displacements and torque.","contrary":"Torsion remains uniformly elastic.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0455","prediction":"A root epidermis should dissipate torsion through sequential wall-junction slips.","feasible_test":"Image junction displacements and torque.","contrary_outcome":"Torsion remains uniformly elastic.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0456","id":"S2-0456","volume":"900v2","title":"A fungal wall should become optically anisotropic before lateral branching because fibers align under local stress.","prediction":"A fungal wall should become optically anisotropic before lateral branching because fibers align under local stress.","test":"Measure polarization and branch onset.","contrary":"Anisotropy lacks predictive association.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0456","prediction":"A fungal wall should become optically anisotropic before lateral branching because fibers align under local stress.","feasible_test":"Measure polarization and branch onset.","contrary_outcome":"Anisotropy lacks predictive association.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0457","id":"S2-0457","volume":"900v2","title":"A leaf vein junction should trap embolized gas through geometric pinning even after pressure recovery.","prediction":"A leaf vein junction should trap embolized gas through geometric pinning even after pressure recovery.","test":"Image bubble position during pressure cycles.","contrary":"Bubbles leave once pressure recovers.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0457","prediction":"A leaf vein junction should trap embolized gas through geometric pinning even after pressure recovery.","feasible_test":"Image bubble position during pressure cycles.","contrary_outcome":"Bubbles leave once pressure recovers.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0458","id":"S2-0458","volume":"900v2","title":"A fern rachis should damp twisting through reversible shear between internal tissue layers.","prediction":"A fern rachis should damp twisting through reversible shear between internal tissue layers.","test":"Measure layer motion and mechanical loss.","contrary":"Damping persists when shear is constrained.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0458","prediction":"A fern rachis should damp twisting through reversible shear between internal tissue layers.","feasible_test":"Measure layer motion and mechanical loss.","contrary_outcome":"Damping persists when shear is constrained.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0459","id":"S2-0459","volume":"900v2","title":"A moss shoot should collect more water after dry-state curling exposes a capillary pocket.","prediction":"A moss shoot should collect more water after dry-state curling exposes a capillary pocket.","test":"Measure collection and pocket geometry.","contrary":"Curling adds no capture after area correction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0459","prediction":"A moss shoot should collect more water after dry-state curling exposes a capillary pocket.","feasible_test":"Measure collection and pocket geometry.","contrary_outcome":"Curling adds no capture after area correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0460","id":"S2-0460","volume":"900v2","title":"A fungal aerial hypha should bend toward a wet surface through asymmetric wall hydration without active growth.","prediction":"A fungal aerial hypha should bend toward a wet surface through asymmetric wall hydration without active growth.","test":"Measure non-growing hypha curvature and water uptake.","contrary":"Curvature requires ongoing tip growth.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0460","prediction":"A fungal aerial hypha should bend toward a wet surface through asymmetric wall hydration without active growth.","feasible_test":"Measure non-growing hypha curvature and water uptake.","contrary_outcome":"Curvature requires ongoing tip growth.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0461","id":"S2-0461","volume":"900v2","title":"A plant fiber bundle should emit sound when stored drying stress releases at interfiber contacts.","prediction":"A plant fiber bundle should emit sound when stored drying stress releases at interfiber contacts.","test":"Synchronize acoustic events and contact slip.","contrary":"Events lack contact-slip association.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0461","prediction":"A plant fiber bundle should emit sound when stored drying stress releases at interfiber contacts.","feasible_test":"Synchronize acoustic events and contact slip.","contrary_outcome":"Events lack contact-slip association.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0462","id":"S2-0462","volume":"900v2","title":"A floating leaf replica with native veins should resist rain-induced inversion through localized ridge stiffening.","prediction":"A floating leaf replica with native veins should resist rain-induced inversion through localized ridge stiffening.","test":"Measure inversion energy and strain.","contrary":"Resistance follows total bending stiffness alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0462","prediction":"A floating leaf replica with native veins should resist rain-induced inversion through localized ridge stiffening.","feasible_test":"Measure inversion energy and strain.","contrary_outcome":"Resistance follows total bending stiffness alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0463","id":"S2-0463","volume":"900v2","title":"A seed wing should flutter intermittently when humidity moves its mass center across an aerodynamic stability boundary.","prediction":"A seed wing should flutter intermittently when humidity moves its mass center across an aerodynamic stability boundary.","test":"Measure mass distribution and flight motion.","contrary":"Flight changes lack mass-center dependence.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0463","prediction":"A seed wing should flutter intermittently when humidity moves its mass center across an aerodynamic stability boundary.","feasible_test":"Measure mass distribution and flight motion.","contrary_outcome":"Flight changes lack mass-center dependence.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0464","id":"S2-0464","volume":"900v2","title":"A fungal mat should expand laterally during vertical compression because liquid redistribution softens peripheral strands.","prediction":"A fungal mat should expand laterally during vertical compression because liquid redistribution softens peripheral strands.","test":"Map strain and hydration.","contrary":"Expansion is explained by incompressibility alone.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0464","prediction":"A fungal mat should expand laterally during vertical compression because liquid redistribution softens peripheral strands.","feasible_test":"Map strain and hydration.","contrary_outcome":"Expansion is explained by incompressibility alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0465","id":"S2-0465","volume":"900v2","title":"A cut petiole should seal through compression of wet wall fragments before any new biological material forms.","prediction":"A cut petiole should seal through compression of wet wall fragments before any new biological material forms.","test":"Measure leakage and cut-face geometry.","contrary":"Leakage reduction requires later biological deposition.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0465","prediction":"A cut petiole should seal through compression of wet wall fragments before any new biological material forms.","feasible_test":"Measure leakage and cut-face geometry.","contrary_outcome":"Leakage reduction requires later biological deposition.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0466","id":"S2-0466","volume":"900v2","title":"A leaf surface should retain dew longer after a cold pulse because wax microcracks trap contact lines.","prediction":"A leaf surface should retain dew longer after a cold pulse because wax microcracks trap contact lines.","test":"Map cracks and droplet residence.","contrary":"Residence is unchanged by reversible crack closure.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0466","prediction":"A leaf surface should retain dew longer after a cold pulse because wax microcracks trap contact lines.","feasible_test":"Map cracks and droplet residence.","contrary_outcome":"Residence is unchanged by reversible crack closure.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0467","id":"S2-0467","volume":"900v2","title":"A grass blade should resist folding through tension carried by its hydrated margins.","prediction":"A grass blade should resist folding through tension carried by its hydrated margins.","test":"Measure folding force after selective margin dehydration.","contrary":"Margin hydration has no specific effect.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0467","prediction":"A grass blade should resist folding through tension carried by its hydrated margins.","feasible_test":"Measure folding force after selective margin dehydration.","contrary_outcome":"Margin hydration has no specific effect.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0468","id":"S2-0468","volume":"900v2","title":"A fungal cord should generate internal fluid backflow during rapid mechanical recoil.","prediction":"A fungal cord should generate internal fluid backflow during rapid mechanical recoil.","test":"Track tracer and cord length.","contrary":"Fluid moves only with the cord's bulk motion.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0468","prediction":"A fungal cord should generate internal fluid backflow during rapid mechanical recoil.","feasible_test":"Track tracer and cord length.","contrary_outcome":"Fluid moves only with the cord's bulk motion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0469","id":"S2-0469","volume":"900v2","title":"A seed mucilage film should become tougher when drying aligns its polysaccharide strands.","prediction":"A seed mucilage film should become tougher when drying aligns its polysaccharide strands.","test":"Measure orientation and tear energy.","contrary":"Toughness follows water fraction alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0469","prediction":"A seed mucilage film should become tougher when drying aligns its polysaccharide strands.","feasible_test":"Measure orientation and tear energy.","contrary_outcome":"Toughness follows water fraction alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0470","id":"S2-0470","volume":"900v2","title":"A plant pith should absorb sound through airflow between disconnected large cavities linked by narrow windows.","prediction":"A plant pith should absorb sound through airflow between disconnected large cavities linked by narrow windows.","test":"Measure attenuation and reconstructed connectivity.","contrary":"Attenuation follows porosity without window dependence.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0470","prediction":"A plant pith should absorb sound through airflow between disconnected large cavities linked by narrow windows.","feasible_test":"Measure attenuation and reconstructed connectivity.","contrary_outcome":"Attenuation follows porosity without window dependence.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0471","id":"S2-0471","volume":"900v2","title":"A leaf stalk should exhibit mechanical relaxation steps as individual vascular bundles slip.","prediction":"A leaf stalk should exhibit mechanical relaxation steps as individual vascular bundles slip.","test":"Map bundle motion and force.","contrary":"Relaxation is continuous without bundle slip.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0471","prediction":"A leaf stalk should exhibit mechanical relaxation steps as individual vascular bundles slip.","feasible_test":"Map bundle motion and force.","contrary_outcome":"Relaxation is continuous without bundle slip.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0472","id":"S2-0472","volume":"900v2","title":"A fungal cap should redistribute rainwater toward its stalk through curvature-controlled film flow.","prediction":"A fungal cap should redistribute rainwater toward its stalk through curvature-controlled film flow.","test":"Measure films on detached caps.","contrary":"Transport follows gravity without curvature contribution.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0472","prediction":"A fungal cap should redistribute rainwater toward its stalk through curvature-controlled film flow.","feasible_test":"Measure films on detached caps.","contrary_outcome":"Transport follows gravity without curvature contribution.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0473","id":"S2-0473","volume":"900v2","title":"A root hair should recover from bending faster when its internal liquid pressure rises transiently.","prediction":"A root hair should recover from bending faster when its internal liquid pressure rises transiently.","test":"Measure pressure and recoil.","contrary":"Recovery is independent of pressure changes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0473","prediction":"A root hair should recover from bending faster when its internal liquid pressure rises transiently.","feasible_test":"Measure pressure and recoil.","contrary_outcome":"Recovery is independent of pressure changes.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0474","id":"S2-0474","volume":"900v2","title":"A wood surface should show directional condensation because exposed vessel openings pin advancing films.","prediction":"A wood surface should show directional condensation because exposed vessel openings pin advancing films.","test":"Image film motion and vessel orientation.","contrary":"Condensation becomes isotropic after roughness correction.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0474","prediction":"A wood surface should show directional condensation because exposed vessel openings pin advancing films.","feasible_test":"Image film motion and vessel orientation.","contrary_outcome":"Condensation becomes isotropic after roughness correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0475","id":"S2-0475","volume":"900v2","title":"A lichen thallus should detach locally from its substrate during hydration before expanding outward.","prediction":"A lichen thallus should detach locally from its substrate during hydration before expanding outward.","test":"Measure contact and swelling.","contrary":"Expansion precedes any loss of contact.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0475","prediction":"A lichen thallus should detach locally from its substrate during hydration before expanding outward.","feasible_test":"Measure contact and swelling.","contrary_outcome":"Expansion precedes any loss of contact.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0476","id":"S2-0476","volume":"900v2","title":"A closed flower bud's outer scales should prevent ice propagation through persistent interscale air gaps.","prediction":"A closed flower bud's outer scales should prevent ice propagation through persistent interscale air gaps.","test":"Image freezing with gaps filled and unfilled.","contrary":"Gap filling leaves propagation unchanged.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0476","prediction":"A closed flower bud's outer scales should prevent ice propagation through persistent interscale air gaps.","feasible_test":"Image freezing with gaps filled and unfilled.","contrary_outcome":"Gap filling leaves propagation unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0477","id":"S2-0477","volume":"900v2","title":"A plant trichome should dissipate droplet impact through rotational rather than bending motion at its base.","prediction":"A plant trichome should dissipate droplet impact through rotational rather than bending motion at its base.","test":"Measure three-dimensional deformation.","contrary":"Energy loss is explained by shaft bending alone.","layers":[1],"categories":["physical","energy","biology","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0477","prediction":"A plant trichome should dissipate droplet impact through rotational rather than bending motion at its base.","feasible_test":"Measure three-dimensional deformation.","contrary_outcome":"Energy loss is explained by shaft bending alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0478","id":"S2-0478","volume":"900v2","title":"A fungal spore should rebound from a wet surface when its outer wall stores impact energy before wetting completes.","prediction":"A fungal spore should rebound from a wet surface when its outer wall stores impact energy before wetting completes.","test":"Measure contact time and rebound.","contrary":"Rebound disappears whenever surface water is present.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0478","prediction":"A fungal spore should rebound from a wet surface when its outer wall stores impact energy before wetting completes.","feasible_test":"Measure contact time and rebound.","contrary_outcome":"Rebound disappears whenever surface water is present.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0479","id":"S2-0479","volume":"900v2","title":"A root-bound soil aggregate should resist drying cracks through sliding interfaces that redistribute root tension.","prediction":"A root-bound soil aggregate should resist drying cracks through sliding interfaces that redistribute root tension.","test":"Map cracks and root displacement.","contrary":"Crack resistance requires fixed root anchoring.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0479","prediction":"A root-bound soil aggregate should resist drying cracks through sliding interfaces that redistribute root tension.","feasible_test":"Map cracks and root displacement.","contrary_outcome":"Crack resistance requires fixed root anchoring.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0480","id":"S2-0480","volume":"900v2","title":"A bamboo sheath should peel helically because its interfacial fracture energy varies with fiber angle.","prediction":"A bamboo sheath should peel helically because its interfacial fracture energy varies with fiber angle.","test":"Measure peel paths and fiber orientation.","contrary":"Paths follow external loading direction only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0480","prediction":"A bamboo sheath should peel helically because its interfacial fracture energy varies with fiber angle.","feasible_test":"Measure peel paths and fiber orientation.","contrary_outcome":"Paths follow external loading direction only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0481","id":"S2-0481","volume":"900v2","title":"A cell-free membrane should suppress leakage after bending because mobile lipids fill transient packing defects.","prediction":"A cell-free membrane should suppress leakage after bending because mobile lipids fill transient packing defects.","test":"Measure lipid flow and cargo loss.","contrary":"Leak suppression occurs without lipid redistribution.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0481","prediction":"A cell-free membrane should suppress leakage after bending because mobile lipids fill transient packing defects.","feasible_test":"Measure lipid flow and cargo loss.","contrary_outcome":"Leak suppression occurs without lipid redistribution.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0482","id":"S2-0482","volume":"900v2","title":"A supported protein lattice should tear along interfaces between domains of unequal adsorption age.","prediction":"A supported protein lattice should tear along interfaces between domains of unequal adsorption age.","test":"Map lattice age and fracture paths.","contrary":"Tears ignore adsorption chronology.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0482","prediction":"A supported protein lattice should tear along interfaces between domains of unequal adsorption age.","feasible_test":"Map lattice age and fracture paths.","contrary_outcome":"Tears ignore adsorption chronology.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0483","id":"S2-0483","volume":"900v2","title":"A vesicle pair should exchange membrane area through a tether before exchanging enclosed solute.","prediction":"A vesicle pair should exchange membrane area through a tether before exchanging enclosed solute.","test":"Measure lipid and solute labels.","contrary":"Solute transfer precedes or matches area transfer.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0483","prediction":"A vesicle pair should exchange membrane area through a tether before exchanging enclosed solute.","feasible_test":"Measure lipid and solute labels.","contrary_outcome":"Solute transfer precedes or matches area transfer.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0484","id":"S2-0484","volume":"900v2","title":"A reconstituted filament network should exhibit a delayed contraction after load removal through crosslink rebinding.","prediction":"A reconstituted filament network should exhibit a delayed contraction after load removal through crosslink rebinding.","test":"Measure force and bond occupancy.","contrary":"Contraction occurs without rebinding.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0484","prediction":"A reconstituted filament network should exhibit a delayed contraction after load removal through crosslink rebinding.","feasible_test":"Measure force and bond occupancy.","contrary_outcome":"Contraction occurs without rebinding.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0485","id":"S2-0485","volume":"900v2","title":"A confined droplet condensate should retain shape asymmetry after stress release through slow surface exchange.","prediction":"A confined droplet condensate should retain shape asymmetry after stress release through slow surface exchange.","test":"Measure surface turnover and shape recovery.","contrary":"Recovery follows bulk viscosity alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0485","prediction":"A confined droplet condensate should retain shape asymmetry after stress release through slow surface exchange.","feasible_test":"Measure surface turnover and shape recovery.","contrary_outcome":"Recovery follows bulk viscosity alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0486","id":"S2-0486","volume":"900v2","title":"A DNA rotor should pause at angles where its counterion atmosphere must reorganize.","prediction":"A DNA rotor should pause at angles where its counterion atmosphere must reorganize.","test":"Measure angle dwell times and ionic response.","contrary":"Pauses lack ion-relaxation dependence.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0486","prediction":"A DNA rotor should pause at angles where its counterion atmosphere must reorganize.","feasible_test":"Measure angle dwell times and ionic response.","contrary_outcome":"Pauses lack ion-relaxation dependence.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0487","id":"S2-0487","volume":"900v2","title":"An enzyme-coated vesicle should accumulate substrate at its leading edge during motion through a gradient.","prediction":"An enzyme-coated vesicle should accumulate substrate at its leading edge during motion through a gradient.","test":"Map substrate and membrane flow.","contrary":"Accumulation follows equilibrium partitioning alone.","layers":[1],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0487","prediction":"An enzyme-coated vesicle should accumulate substrate at its leading edge during motion through a gradient.","feasible_test":"Map substrate and membrane flow.","contrary_outcome":"Accumulation follows equilibrium partitioning alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0488","id":"S2-0488","volume":"900v2","title":"A lipid bilayer should develop transient pores at boundaries between unequal relaxation domains.","prediction":"A lipid bilayer should develop transient pores at boundaries between unequal relaxation domains.","test":"Image leakage and domain mechanics.","contrary":"Pore locations are domain-independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0488","prediction":"A lipid bilayer should develop transient pores at boundaries between unequal relaxation domains.","feasible_test":"Image leakage and domain mechanics.","contrary_outcome":"Pore locations are domain-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0489","id":"S2-0489","volume":"900v2","title":"A peptide gel should conduct mechanical pulses farther after reversible bundle alignment.","prediction":"A peptide gel should conduct mechanical pulses farther after reversible bundle alignment.","test":"Map pulse attenuation and orientation.","contrary":"Transmission follows bulk modulus alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0489","prediction":"A peptide gel should conduct mechanical pulses farther after reversible bundle alignment.","feasible_test":"Map pulse attenuation and orientation.","contrary_outcome":"Transmission follows bulk modulus alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0490","id":"S2-0490","volume":"900v2","title":"A protein condensate should dissolve from its center when a permeant inhibitor binds preferentially to aged scaffold.","prediction":"A protein condensate should dissolve from its center when a permeant inhibitor binds preferentially to aged scaffold.","test":"Map scaffold age and dissolution.","contrary":"Dissolution always begins at the interface.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0490","prediction":"A protein condensate should dissolve from its center when a permeant inhibitor binds preferentially to aged scaffold.","feasible_test":"Map scaffold age and dissolution.","contrary_outcome":"Dissolution always begins at the interface.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0491","id":"S2-0491","volume":"900v2","title":"A tethered DNA array should expel colloids laterally when compression makes chain fluctuations anisotropic.","prediction":"A tethered DNA array should expel colloids laterally when compression makes chain fluctuations anisotropic.","test":"Track colloids and chain motion.","contrary":"Colloid displacement follows bulk fluid flow alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0491","prediction":"A tethered DNA array should expel colloids laterally when compression makes chain fluctuations anisotropic.","feasible_test":"Track colloids and chain motion.","contrary_outcome":"Colloid displacement follows bulk fluid flow alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0492","id":"S2-0492","volume":"900v2","title":"A synthetic membrane bud should detach more readily after its internal liquid crystallizes and remelts.","prediction":"A synthetic membrane bud should detach more readily after its internal liquid crystallizes and remelts.","test":"Measure neck force and membrane defects.","contrary":"Thermal cycling leaves detachment force unchanged.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0492","prediction":"A synthetic membrane bud should detach more readily after its internal liquid crystallizes and remelts.","feasible_test":"Measure neck force and membrane defects.","contrary_outcome":"Thermal cycling leaves detachment force unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0493","id":"S2-0493","volume":"900v2","title":"A cell-free reaction compartment should show memory of previous substrate pulses through reversible cofactor sequestration.","prediction":"A cell-free reaction compartment should show memory of previous substrate pulses through reversible cofactor sequestration.","test":"Measure pulse response and cofactor availability.","contrary":"Responses depend only on current substrate.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0493","prediction":"A cell-free reaction compartment should show memory of previous substrate pulses through reversible cofactor sequestration.","feasible_test":"Measure pulse response and cofactor availability.","contrary_outcome":"Responses depend only on current substrate.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0494","id":"S2-0494","volume":"900v2","title":"A lipid-coated particle should roll rather than slide when ligand bonds redistribute faster than contact transit.","prediction":"A lipid-coated particle should roll rather than slide when ligand bonds redistribute faster than contact transit.","test":"Measure bond mobility and particle motion.","contrary":"Motion mode is ligand-mobility independent.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0494","prediction":"A lipid-coated particle should roll rather than slide when ligand bonds redistribute faster than contact transit.","feasible_test":"Measure bond mobility and particle motion.","contrary_outcome":"Motion mode is ligand-mobility independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0495","id":"S2-0495","volume":"900v2","title":"A self-assembled enzyme cage should deform under catalytic turnover when product increases internal osmotic pressure.","prediction":"A self-assembled enzyme cage should deform under catalytic turnover when product increases internal osmotic pressure.","test":"Measure turnover, pressure, and shell shape.","contrary":"Shape remains unchanged despite pressure increase.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0495","prediction":"A self-assembled enzyme cage should deform under catalytic turnover when product increases internal osmotic pressure.","feasible_test":"Measure turnover, pressure, and shell shape.","contrary_outcome":"Shape remains unchanged despite pressure increase.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0496","id":"S2-0496","volume":"900v2","title":"A membrane nanodomain should avoid a tether junction because composition gradients raise line tension there.","prediction":"A membrane nanodomain should avoid a tether junction because composition gradients raise line tension there.","test":"Map composition and domain trajectories.","contrary":"Junction avoidance persists after composition equalization.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0496","prediction":"A membrane nanodomain should avoid a tether junction because composition gradients raise line tension there.","feasible_test":"Map composition and domain trajectories.","contrary_outcome":"Junction avoidance persists after composition equalization.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0497","id":"S2-0497","volume":"900v2","title":"A microtubule aster should center in a deformable compartment through asymmetric wall indentation.","prediction":"A microtubule aster should center in a deformable compartment through asymmetric wall indentation.","test":"Measure position and wall strain.","contrary":"Centering is unchanged with rigid walls.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0497","prediction":"A microtubule aster should center in a deformable compartment through asymmetric wall indentation.","feasible_test":"Measure position and wall strain.","contrary_outcome":"Centering is unchanged with rigid walls.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0498","id":"S2-0498","volume":"900v2","title":"A reconstituted protein film should develop directional permeability after shear causes domain sliding.","prediction":"A reconstituted protein film should develop directional permeability after shear causes domain sliding.","test":"Measure domain displacement and tracer transport.","contrary":"Transport stays isotropic.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0498","prediction":"A reconstituted protein film should develop directional permeability after shear causes domain sliding.","feasible_test":"Measure domain displacement and tracer transport.","contrary_outcome":"Transport stays isotropic.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0499","id":"S2-0499","volume":"900v2","title":"A DNA nanostructure should retain a bent state after force removal if a transiently exposed sticky end locks it.","prediction":"A DNA nanostructure should retain a bent state after force removal if a transiently exposed sticky end locks it.","test":"Measure conformation and binding.","contrary":"Bent-state retention occurs without locking bonds.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0499","prediction":"A DNA nanostructure should retain a bent state after force removal if a transiently exposed sticky end locks it.","feasible_test":"Measure conformation and binding.","contrary_outcome":"Bent-state retention occurs without locking bonds.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0500","id":"S2-0500","volume":"900v2","title":"A vesicle should display sequential pore opening when internal polymer bundles press against different membrane sites.","prediction":"A vesicle should display sequential pore opening when internal polymer bundles press against different membrane sites.","test":"Image bundles and leakage spots.","contrary":"Pore sites are unrelated to bundle contacts.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0500","prediction":"A vesicle should display sequential pore opening when internal polymer bundles press against different membrane sites.","feasible_test":"Image bundles and leakage spots.","contrary_outcome":"Pore sites are unrelated to bundle contacts.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0501","id":"S2-0501","volume":"900v2","title":"A spectrometer should overestimate reaction lag when evolving turbidity redistributes photon path lengths.","prediction":"A spectrometer should overestimate reaction lag when evolving turbidity redistributes photon path lengths.","test":"Compare time-resolved optical paths and chemical assays.","contrary":"Corrected and uncorrected lags coincide.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0501","prediction":"A spectrometer should overestimate reaction lag when evolving turbidity redistributes photon path lengths.","feasible_test":"Compare time-resolved optical paths and chemical assays.","contrary_outcome":"Corrected and uncorrected lags coincide.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0502","id":"S2-0502","volume":"900v2","title":"A fluorescent thermometer should misreport cooling near a drying front because viscosity changes its lifetime.","prediction":"A fluorescent thermometer should misreport cooling near a drying front because viscosity changes its lifetime.","test":"Calibrate temperature and viscosity independently.","contrary":"Lifetime depends on temperature alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0502","prediction":"A fluorescent thermometer should misreport cooling near a drying front because viscosity changes its lifetime.","feasible_test":"Calibrate temperature and viscosity independently.","contrary_outcome":"Lifetime depends on temperature alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0503","id":"S2-0503","volume":"900v2","title":"A microbalance should resolve liquid redistribution before net mass loss through torsional mode shifts.","prediction":"A microbalance should resolve liquid redistribution before net mass loss through torsional mode shifts.","test":"Measure modes and internal fluid imaging.","contrary":"Modes contain no redistribution information at fixed mass.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0503","prediction":"A microbalance should resolve liquid redistribution before net mass loss through torsional mode shifts.","feasible_test":"Measure modes and internal fluid imaging.","contrary_outcome":"Modes contain no redistribution information at fixed mass.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0504","id":"S2-0504","volume":"900v2","title":"A pressure sensor should exhibit false acoustic precursors when its wetting state changes.","prediction":"A pressure sensor should exhibit false acoustic precursors when its wetting state changes.","test":"Compare optical pressure and sensor signals.","contrary":"Precursors appear equally in nonwetting references.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0504","prediction":"A pressure sensor should exhibit false acoustic precursors when its wetting state changes.","feasible_test":"Compare optical pressure and sensor signals.","contrary_outcome":"Precursors appear equally in nonwetting references.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0505","id":"S2-0505","volume":"900v2","title":"An optical flow method should underestimate recirculation where tracer particles adsorb temporarily.","prediction":"An optical flow method should underestimate recirculation where tracer particles adsorb temporarily.","test":"Compare nonadsorbing tracers and independent velocimetry.","contrary":"Velocity estimates remain adsorption-independent.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0505","prediction":"An optical flow method should underestimate recirculation where tracer particles adsorb temporarily.","feasible_test":"Compare nonadsorbing tracers and independent velocimetry.","contrary_outcome":"Velocity estimates remain adsorption-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0506","id":"S2-0506","volume":"900v2","title":"A calorimeter should distinguish precipitation heat from wetting heat through their different pressure dependence.","prediction":"A calorimeter should distinguish precipitation heat from wetting heat through their different pressure dependence.","test":"Measure separate controls across pressure.","contrary":"Heat components remain inseparable.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0506","prediction":"A calorimeter should distinguish precipitation heat from wetting heat through their different pressure dependence.","feasible_test":"Measure separate controls across pressure.","contrary_outcome":"Heat components remain inseparable.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0507","id":"S2-0507","volume":"900v2","title":"A dielectric probe should detect isolated water pockets through nonlinear frequency mixing.","prediction":"A dielectric probe should detect isolated water pockets through nonlinear frequency mixing.","test":"Compare known pocket topologies.","contrary":"Mixing depends only on total water.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0507","prediction":"A dielectric probe should detect isolated water pockets through nonlinear frequency mixing.","feasible_test":"Compare known pocket topologies.","contrary_outcome":"Mixing depends only on total water.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0508","id":"S2-0508","volume":"900v2","title":"A scattering measurement should recover pore anisotropy more accurately when sample rotation separates illumination artifacts.","prediction":"A scattering measurement should recover pore anisotropy more accurately when sample rotation separates illumination artifacts.","test":"Test blinded anisotropic phantoms.","contrary":"Rotation provides no accuracy improvement.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0508","prediction":"A scattering measurement should recover pore anisotropy more accurately when sample rotation separates illumination artifacts.","feasible_test":"Test blinded anisotropic phantoms.","contrary_outcome":"Rotation provides no accuracy improvement.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0509","id":"S2-0509","volume":"900v2","title":"A mechanical probe should reveal substrate adhesion through the relaxation tail after indentation withdrawal.","prediction":"A mechanical probe should reveal substrate adhesion through the relaxation tail after indentation withdrawal.","test":"Measure tails against independent peel tests.","contrary":"Tail shape cannot discriminate adhesion.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0509","prediction":"A mechanical probe should reveal substrate adhesion through the relaxation tail after indentation withdrawal.","feasible_test":"Measure tails against independent peel tests.","contrary_outcome":"Tail shape cannot discriminate adhesion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0510","id":"S2-0510","volume":"900v2","title":"A chemical sensor should retain a false concentration memory through analyte-induced swelling of its protective membrane.","prediction":"A chemical sensor should retain a false concentration memory through analyte-induced swelling of its protective membrane.","test":"Measure swelling and response hysteresis.","contrary":"Memory persists in nonswelling membranes equally.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0510","prediction":"A chemical sensor should retain a false concentration memory through analyte-induced swelling of its protective membrane.","feasible_test":"Measure swelling and response hysteresis.","contrary_outcome":"Memory persists in nonswelling membranes equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0511","id":"S2-0511","volume":"900v2","title":"A thermographic measurement should confuse emissivity changes with evaporative cooling near salt crystallization.","prediction":"A thermographic measurement should confuse emissivity changes with evaporative cooling near salt crystallization.","test":"Compare contact thermometry and spectral emissivity.","contrary":"Apparent and actual cooling remain identical.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0511","prediction":"A thermographic measurement should confuse emissivity changes with evaporative cooling near salt crystallization.","feasible_test":"Compare contact thermometry and spectral emissivity.","contrary_outcome":"Apparent and actual cooling remain identical.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0512","id":"S2-0512","volume":"900v2","title":"A particle-tracking assay should report false diffusion enhancement when gel drift is spatially nonuniform.","prediction":"A particle-tracking assay should report false diffusion enhancement when gel drift is spatially nonuniform.","test":"Use immobilized fiducials and local drift correction.","contrary":"Corrected enhancement remains unchanged.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0512","prediction":"A particle-tracking assay should report false diffusion enhancement when gel drift is spatially nonuniform.","feasible_test":"Use immobilized fiducials and local drift correction.","contrary_outcome":"Corrected enhancement remains unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0513","id":"S2-0513","volume":"900v2","title":"A resonant mass sensor should detect pore flooding through dissipation before frequency shift.","prediction":"A resonant mass sensor should detect pore flooding through dissipation before frequency shift.","test":"Measure both signals with imaged flooding.","contrary":"Dissipation onset follows frequency change.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0513","prediction":"A resonant mass sensor should detect pore flooding through dissipation before frequency shift.","feasible_test":"Measure both signals with imaged flooding.","contrary_outcome":"Dissipation onset follows frequency change.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0514","id":"S2-0514","volume":"900v2","title":"An oxygen optode should consume enough oxygen under illumination to perturb a stagnant microcavity.","prediction":"An oxygen optode should consume enough oxygen under illumination to perturb a stagnant microcavity.","test":"Compare duty cycles and nonoptical references.","contrary":"Oxygen profiles are illumination-independent.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0514","prediction":"An oxygen optode should consume enough oxygen under illumination to perturb a stagnant microcavity.","feasible_test":"Compare duty cycles and nonoptical references.","contrary_outcome":"Oxygen profiles are illumination-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0515","id":"S2-0515","volume":"900v2","title":"A microelectrode should induce local convection through joule heating before its current becomes nonlinear.","prediction":"A microelectrode should induce local convection through joule heating before its current becomes nonlinear.","test":"Measure flow and current-voltage curves.","contrary":"Convection starts only after nonlinearity.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0515","prediction":"A microelectrode should induce local convection through joule heating before its current becomes nonlinear.","feasible_test":"Measure flow and current-voltage curves.","contrary_outcome":"Convection starts only after nonlinearity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0516","id":"S2-0516","volume":"900v2","title":"A contact-angle measurement should miss slow surface reconstruction unless droplet residence is explicitly controlled.","prediction":"A contact-angle measurement should miss slow surface reconstruction unless droplet residence is explicitly controlled.","test":"Measure angles and surface composition over time.","contrary":"Angles stabilize without composition changes.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0516","prediction":"A contact-angle measurement should miss slow surface reconstruction unless droplet residence is explicitly controlled.","feasible_test":"Measure angles and surface composition over time.","contrary_outcome":"Angles stabilize without composition changes.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0517","id":"S2-0517","volume":"900v2","title":"A rheometer should report apparent yield stress from edge evaporation in a nonyielding polymer solution.","prediction":"A rheometer should report apparent yield stress from edge evaporation in a nonyielding polymer solution.","test":"Compare sealed and open-edge geometries.","contrary":"Yield remains after evaporation suppression.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0517","prediction":"A rheometer should report apparent yield stress from edge evaporation in a nonyielding polymer solution.","feasible_test":"Compare sealed and open-edge geometries.","contrary_outcome":"Yield remains after evaporation suppression.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0518","id":"S2-0518","volume":"900v2","title":"A permeability assay should overestimate clogging when trapped gas compresses under its measurement pulse.","prediction":"A permeability assay should overestimate clogging when trapped gas compresses under its measurement pulse.","test":"Measure gas volumes and steady-flow permeability.","contrary":"Apparent clogging survives complete degassing.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0518","prediction":"A permeability assay should overestimate clogging when trapped gas compresses under its measurement pulse.","feasible_test":"Measure gas volumes and steady-flow permeability.","contrary_outcome":"Apparent clogging survives complete degassing.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0519","id":"S2-0519","volume":"900v2","title":"A confocal reconstruction should misplace a moving interface because refractive index changes during scanning.","prediction":"A confocal reconstruction should misplace a moving interface because refractive index changes during scanning.","test":"Compare rapid orthogonal imaging.","contrary":"Interface positions agree after no correction.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0519","prediction":"A confocal reconstruction should misplace a moving interface because refractive index changes during scanning.","feasible_test":"Compare rapid orthogonal imaging.","contrary_outcome":"Interface positions agree after no correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0520","id":"S2-0520","volume":"900v2","title":"A thermal camera should detect subsurface delamination more reliably during cooling than heating because convection noise is lower.","prediction":"A thermal camera should detect subsurface delamination more reliably during cooling than heating because convection noise is lower.","test":"Compare blinded defects under matched thermal gradients.","contrary":"Detection accuracy is direction-independent.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0520","prediction":"A thermal camera should detect subsurface delamination more reliably during cooling than heating because convection noise is lower.","feasible_test":"Compare blinded defects under matched thermal gradients.","contrary_outcome":"Detection accuracy is direction-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0521","id":"S2-0521","volume":"900v2","title":"An interferometer should separate swelling from rigid displacement using two penetration depths.","prediction":"An interferometer should separate swelling from rigid displacement using two penetration depths.","test":"Test samples with known internal strain.","contrary":"Depth signals remain degenerate.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0521","prediction":"An interferometer should separate swelling from rigid displacement using two penetration depths.","feasible_test":"Test samples with known internal strain.","contrary_outcome":"Depth signals remain degenerate.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0522","id":"S2-0522","volume":"900v2","title":"A tracer experiment should mistake reversible binding for anomalous diffusion unless residence times are resolved.","prediction":"A tracer experiment should mistake reversible binding for anomalous diffusion unless residence times are resolved.","test":"Compare trajectory and binding-state analysis.","contrary":"Anomaly remains after bound intervals are removed.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0522","prediction":"A tracer experiment should mistake reversible binding for anomalous diffusion unless residence times are resolved.","feasible_test":"Compare trajectory and binding-state analysis.","contrary_outcome":"Anomaly remains after bound intervals are removed.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0523","id":"S2-0523","volume":"900v2","title":"A magnetic rheology probe should perturb filament alignment near its own path.","prediction":"A magnetic rheology probe should perturb filament alignment near its own path.","test":"Compare passive and driven probes.","contrary":"Alignment is probe-amplitude independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0523","prediction":"A magnetic rheology probe should perturb filament alignment near its own path.","feasible_test":"Compare passive and driven probes.","contrary_outcome":"Alignment is probe-amplitude independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0524","id":"S2-0524","volume":"900v2","title":"A conductivity measurement should falsely indicate ion loss when electrode polarization grows during drying.","prediction":"A conductivity measurement should falsely indicate ion loss when electrode polarization grows during drying.","test":"Compare four-electrode and two-electrode assays.","contrary":"Both show identical corrected ion loss.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0524","prediction":"A conductivity measurement should falsely indicate ion loss when electrode polarization grows during drying.","feasible_test":"Compare four-electrode and two-electrode assays.","contrary_outcome":"Both show identical corrected ion loss.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0525","id":"S2-0525","volume":"900v2","title":"A droplet evaporation assay should underestimate volatility when evaporative cooling lowers surface temperature.","prediction":"A droplet evaporation assay should underestimate volatility when evaporative cooling lowers surface temperature.","test":"Measure surface temperature and mass loss.","contrary":"Isothermal correction leaves volatility unchanged.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0525","prediction":"A droplet evaporation assay should underestimate volatility when evaporative cooling lowers surface temperature.","feasible_test":"Measure surface temperature and mass loss.","contrary_outcome":"Isothermal correction leaves volatility unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0526","id":"S2-0526","volume":"900v2","title":"A microfluidic sampling port should selectively exclude flexible fibers by bending them across its entrance.","prediction":"A microfluidic sampling port should selectively exclude flexible fibers by bending them across its entrance.","test":"Image fiber trajectories and sampled composition.","contrary":"Sampling remains representative.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0526","prediction":"A microfluidic sampling port should selectively exclude flexible fibers by bending them across its entrance.","feasible_test":"Image fiber trajectories and sampled composition.","contrary_outcome":"Sampling remains representative.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0527","id":"S2-0527","volume":"900v2","title":"A surface-force measurement should show spurious adhesion from delayed capillary condensation.","prediction":"A surface-force measurement should show spurious adhesion from delayed capillary condensation.","test":"Vary approach dwell and humidity.","contrary":"Adhesion is dwell-independent after humidity correction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0527","prediction":"A surface-force measurement should show spurious adhesion from delayed capillary condensation.","feasible_test":"Vary approach dwell and humidity.","contrary_outcome":"Adhesion is dwell-independent after humidity correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0528","id":"S2-0528","volume":"900v2","title":"A turbidity sensor should distinguish aggregation from particle swelling using angular response ratios.","prediction":"A turbidity sensor should distinguish aggregation from particle swelling using angular response ratios.","test":"Compare independently characterized samples.","contrary":"Ratios remain indistinguishable.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0528","prediction":"A turbidity sensor should distinguish aggregation from particle swelling using angular response ratios.","feasible_test":"Compare independently characterized samples.","contrary_outcome":"Ratios remain indistinguishable.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0529","id":"S2-0529","volume":"900v2","title":"An acoustic porosimeter should overestimate connectivity when thin liquid films transmit sound across isolated pores.","prediction":"An acoustic porosimeter should overestimate connectivity when thin liquid films transmit sound across isolated pores.","test":"Compare acoustic and flow connectivity.","contrary":"Connectivity estimates agree despite film bridges.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0529","prediction":"An acoustic porosimeter should overestimate connectivity when thin liquid films transmit sound across isolated pores.","feasible_test":"Compare acoustic and flow connectivity.","contrary_outcome":"Connectivity estimates agree despite film bridges.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0530","id":"S2-0530","volume":"900v2","title":"A photobleaching assay should overestimate molecular immobility when dark-state recovery overlaps diffusion.","prediction":"A photobleaching assay should overestimate molecular immobility when dark-state recovery overlaps diffusion.","test":"Measure illumination-history controls.","contrary":"Inferred immobility is illumination-independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0530","prediction":"A photobleaching assay should overestimate molecular immobility when dark-state recovery overlaps diffusion.","feasible_test":"Measure illumination-history controls.","contrary_outcome":"Inferred immobility is illumination-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0531","id":"S2-0531","volume":"900v2","title":"An indentation assay should separate poroelastic relaxation from bond exchange through sample-thickness scaling.","prediction":"An indentation assay should separate poroelastic relaxation from bond exchange through sample-thickness scaling.","test":"Measure relaxation over independently varied thickness.","contrary":"Both processes scale identically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0531","prediction":"An indentation assay should separate poroelastic relaxation from bond exchange through sample-thickness scaling.","feasible_test":"Measure relaxation over independently varied thickness.","contrary_outcome":"Both processes scale identically.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0532","id":"S2-0532","volume":"900v2","title":"A capillary-rise assay should misestimate pore size when swelling changes the channel during filling.","prediction":"A capillary-rise assay should misestimate pore size when swelling changes the channel during filling.","test":"Image channel width during rise.","contrary":"Fixed-width analysis agrees with direct imaging.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0532","prediction":"A capillary-rise assay should misestimate pore size when swelling changes the channel during filling.","feasible_test":"Image channel width during rise.","contrary_outcome":"Fixed-width analysis agrees with direct imaging.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0533","id":"S2-0533","volume":"900v2","title":"A fluorescence intensity assay should detect false product bursts when reaction droplets change focus during swelling.","prediction":"A fluorescence intensity assay should detect false product bursts when reaction droplets change focus during swelling.","test":"Track volume and focal position.","contrary":"Bursts persist after geometric correction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0533","prediction":"A fluorescence intensity assay should detect false product bursts when reaction droplets change focus during swelling.","feasible_test":"Track volume and focal position.","contrary_outcome":"Bursts persist after geometric correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0534","id":"S2-0534","volume":"900v2","title":"An infrared assay should identify water-binding transitions through derivative spectra before mass uptake changes measurably.","prediction":"An infrared assay should identify water-binding transitions through derivative spectra before mass uptake changes measurably.","test":"Compare spectra and gravimetry.","contrary":"Spectral shifts arise only after resolved mass uptake.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0534","prediction":"An infrared assay should identify water-binding transitions through derivative spectra before mass uptake changes measurably.","feasible_test":"Compare spectra and gravimetry.","contrary_outcome":"Spectral shifts arise only after resolved mass uptake.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0535","id":"S2-0535","volume":"900v2","title":"A strain sensor should distinguish crack opening from viscoelastic creep through harmonic distortion.","prediction":"A strain sensor should distinguish crack opening from viscoelastic creep through harmonic distortion.","test":"Measure harmonics with imaged defects.","contrary":"Harmonics fail blinded classification.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0535","prediction":"A strain sensor should distinguish crack opening from viscoelastic creep through harmonic distortion.","feasible_test":"Measure harmonics with imaged defects.","contrary_outcome":"Harmonics fail blinded classification.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0536","id":"S2-0536","volume":"900v2","title":"A gas-permeability assay should exhibit apparent rectification when one chamber adsorbs water more strongly.","prediction":"A gas-permeability assay should exhibit apparent rectification when one chamber adsorbs water more strongly.","test":"Exchange chamber materials and directions.","contrary":"Rectification remains membrane-specific.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0536","prediction":"A gas-permeability assay should exhibit apparent rectification when one chamber adsorbs water more strongly.","feasible_test":"Exchange chamber materials and directions.","contrary_outcome":"Rectification remains membrane-specific.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0537","id":"S2-0537","volume":"900v2","title":"A nanoscale force probe should reveal hydrodynamic memory through unequal approach and withdrawal tails far from contact.","prediction":"A nanoscale force probe should reveal hydrodynamic memory through unequal approach and withdrawal tails far from contact.","test":"Vary speed and viscosity.","contrary":"Tails match instantaneous drag.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0537","prediction":"A nanoscale force probe should reveal hydrodynamic memory through unequal approach and withdrawal tails far from contact.","feasible_test":"Vary speed and viscosity.","contrary_outcome":"Tails match instantaneous drag.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0538","id":"S2-0538","volume":"900v2","title":"An optical density assay should underestimate dissolved concentration when transient nanobubbles scatter light out of its reference channel.","prediction":"An optical density assay should underestimate dissolved concentration when transient nanobubbles scatter light out of its reference channel.","test":"Compare degassing and chemical analysis.","contrary":"Concentration estimates are bubble-independent.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0538","prediction":"An optical density assay should underestimate dissolved concentration when transient nanobubbles scatter light out of its reference channel.","feasible_test":"Compare degassing and chemical analysis.","contrary_outcome":"Concentration estimates are bubble-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0539","id":"S2-0539","volume":"900v2","title":"A temperature-cycling test should reveal adhesive fatigue earlier through phase lag than peak force.","prediction":"A temperature-cycling test should reveal adhesive fatigue earlier through phase lag than peak force.","test":"Compare phase and destructive strength.","contrary":"Phase lag adds no earlier warning.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0539","prediction":"A temperature-cycling test should reveal adhesive fatigue earlier through phase lag than peak force.","feasible_test":"Compare phase and destructive strength.","contrary_outcome":"Phase lag adds no earlier warning.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0540","id":"S2-0540","volume":"900v2","title":"A porous-film assay should distinguish internal condensation from external droplets through simultaneous mass and resonant damping.","prediction":"A porous-film assay should distinguish internal condensation from external droplets through simultaneous mass and resonant damping.","test":"Image known wetting modes.","contrary":"Combined signals cannot separate modes.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0540","prediction":"A porous-film assay should distinguish internal condensation from external droplets through simultaneous mass and resonant damping.","feasible_test":"Image known wetting modes.","contrary_outcome":"Combined signals cannot separate modes.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0541","id":"S2-0541","volume":"900v2","title":"An encapsulated reaction should stop locally when product precipitate blocks internal mixing.","prediction":"An encapsulated reaction should stop locally when product precipitate blocks internal mixing.","test":"Image precipitate and reaction fronts.","contrary":"Reaction stops without blockage.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0541","prediction":"An encapsulated reaction should stop locally when product precipitate blocks internal mixing.","feasible_test":"Image precipitate and reaction fronts.","contrary_outcome":"Reaction stops without blockage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0542","id":"S2-0542","volume":"900v2","title":"A bilayer vesicle should rotate during evaporation when its domains create asymmetric friction.","prediction":"A bilayer vesicle should rotate during evaporation when its domains create asymmetric friction.","test":"Track domain positions and rotation.","contrary":"Rotation ignores domain asymmetry.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0542","prediction":"A bilayer vesicle should rotate during evaporation when its domains create asymmetric friction.","feasible_test":"Track domain positions and rotation.","contrary_outcome":"Rotation ignores domain asymmetry.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0543","id":"S2-0543","volume":"900v2","title":"A protein filament should retain tension after severing if lateral bonds transmit load around the cut.","prediction":"A protein filament should retain tension after severing if lateral bonds transmit load around the cut.","test":"Measure force and remaining connections.","contrary":"Force vanishes immediately.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0543","prediction":"A protein filament should retain tension after severing if lateral bonds transmit load around the cut.","feasible_test":"Measure force and remaining connections.","contrary_outcome":"Force vanishes immediately.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0544","id":"S2-0544","volume":"900v2","title":"A lipid pore should favor elongated cargo when its rim elongates under membrane tension.","prediction":"A lipid pore should favor elongated cargo when its rim elongates under membrane tension.","test":"Measure shape and passage events.","contrary":"Selectivity follows cargo volume alone.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0544","prediction":"A lipid pore should favor elongated cargo when its rim elongates under membrane tension.","feasible_test":"Measure shape and passage events.","contrary_outcome":"Selectivity follows cargo volume alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0545","id":"S2-0545","volume":"900v2","title":"A DNA mesh should exclude nanoparticles through fluctuating rather than average pore size.","prediction":"A DNA mesh should exclude nanoparticles through fluctuating rather than average pore size.","test":"Measure passage and pore fluctuations.","contrary":"Mean pore geometry predicts all transport.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0545","prediction":"A DNA mesh should exclude nanoparticles through fluctuating rather than average pore size.","feasible_test":"Measure passage and pore fluctuations.","contrary_outcome":"Mean pore geometry predicts all transport.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0546","id":"S2-0546","volume":"900v2","title":"A cell-free motor cluster should stall collectively when substrate adsorption depletes accessible fuel.","prediction":"A cell-free motor cluster should stall collectively when substrate adsorption depletes accessible fuel.","test":"Measure local fuel and speed.","contrary":"Stalling occurs without fuel depletion.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0546","prediction":"A cell-free motor cluster should stall collectively when substrate adsorption depletes accessible fuel.","feasible_test":"Measure local fuel and speed.","contrary_outcome":"Stalling occurs without fuel depletion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0547","id":"S2-0547","volume":"900v2","title":"A condensate should climb a tapered fiber through curvature-dependent wetting energy.","prediction":"A condensate should climb a tapered fiber through curvature-dependent wetting energy.","test":"Track motion in density-matched liquid.","contrary":"Motion follows convection alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0547","prediction":"A condensate should climb a tapered fiber through curvature-dependent wetting energy.","feasible_test":"Track motion in density-matched liquid.","contrary_outcome":"Motion follows convection alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0548","id":"S2-0548","volume":"900v2","title":"A membrane-tethered polymer should create a localized diffusion barrier when compressed into a brush.","prediction":"A membrane-tethered polymer should create a localized diffusion barrier when compressed into a brush.","test":"Measure tracer crossing and polymer density.","contrary":"Crossing remains density-independent.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0548","prediction":"A membrane-tethered polymer should create a localized diffusion barrier when compressed into a brush.","feasible_test":"Measure tracer crossing and polymer density.","contrary_outcome":"Crossing remains density-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0549","id":"S2-0549","volume":"900v2","title":"A reconstituted filament bundle should repair a gap by sliding existing filaments before polymerizing new ones.","prediction":"A reconstituted filament bundle should repair a gap by sliding existing filaments before polymerizing new ones.","test":"Label old and new material.","contrary":"Repair contains only new polymer.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0549","prediction":"A reconstituted filament bundle should repair a gap by sliding existing filaments before polymerizing new ones.","feasible_test":"Label old and new material.","contrary_outcome":"Repair contains only new polymer.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0550","id":"S2-0550","volume":"900v2","title":"A protein cage should change permeability before disassembly through reversible facet breathing.","prediction":"A protein cage should change permeability before disassembly through reversible facet breathing.","test":"Measure facet motion and flux.","contrary":"Flux changes require cage breakage.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0550","prediction":"A protein cage should change permeability before disassembly through reversible facet breathing.","feasible_test":"Measure facet motion and flux.","contrary_outcome":"Flux changes require cage breakage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0551","id":"S2-0551","volume":"900v2","title":"An enzyme droplet should self-position near a substrate source through reaction-induced interfacial tension.","prediction":"An enzyme droplet should self-position near a substrate source through reaction-induced interfacial tension.","test":"Map tension and motion.","contrary":"Motion persists without catalysis.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0551","prediction":"An enzyme droplet should self-position near a substrate source through reaction-induced interfacial tension.","feasible_test":"Map tension and motion.","contrary_outcome":"Motion persists without catalysis.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0552","id":"S2-0552","volume":"900v2","title":"A lipid tubule should kink at a boundary between unequal leaflet compositions.","prediction":"A lipid tubule should kink at a boundary between unequal leaflet compositions.","test":"Map composition and curvature.","contrary":"Kinks ignore composition boundaries.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0552","prediction":"A lipid tubule should kink at a boundary between unequal leaflet compositions.","feasible_test":"Map composition and curvature.","contrary_outcome":"Kinks ignore composition boundaries.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0553","id":"S2-0553","volume":"900v2","title":"A polymerase-free DNA assembly should stall at topological bottlenecks that release after strand passage.","prediction":"A polymerase-free DNA assembly should stall at topological bottlenecks that release after strand passage.","test":"Track assembly and controlled topology changes.","contrary":"Strand passage does not restart growth.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0553","prediction":"A polymerase-free DNA assembly should stall at topological bottlenecks that release after strand passage.","feasible_test":"Track assembly and controlled topology changes.","contrary_outcome":"Strand passage does not restart growth.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0554","id":"S2-0554","volume":"900v2","title":"A peptide membrane should retain charge selectivity after mechanical puncture if its edges reconstruct.","prediction":"A peptide membrane should retain charge selectivity after mechanical puncture if its edges reconstruct.","test":"Measure leakage and edge chemistry.","contrary":"Puncture abolishes selectivity permanently.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0554","prediction":"A peptide membrane should retain charge selectivity after mechanical puncture if its edges reconstruct.","feasible_test":"Measure leakage and edge chemistry.","contrary_outcome":"Puncture abolishes selectivity permanently.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0555","id":"S2-0555","volume":"900v2","title":"A cytoskeleton analogue should display negative transverse strain when crosslinks rotate under extension.","prediction":"A cytoskeleton analogue should display negative transverse strain when crosslinks rotate under extension.","test":"Image crosslinks and strain.","contrary":"Transverse contraction remains conventional.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0555","prediction":"A cytoskeleton analogue should display negative transverse strain when crosslinks rotate under extension.","feasible_test":"Image crosslinks and strain.","contrary_outcome":"Transverse contraction remains conventional.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0556","id":"S2-0556","volume":"900v2","title":"A membrane-coated gel should form persistent dimples at sites of locally accelerated osmotic flow.","prediction":"A membrane-coated gel should form persistent dimples at sites of locally accelerated osmotic flow.","test":"Map flux and curvature.","contrary":"Dimples lack flux localization.","layers":[1],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0556","prediction":"A membrane-coated gel should form persistent dimples at sites of locally accelerated osmotic flow.","feasible_test":"Map flux and curvature.","contrary_outcome":"Dimples lack flux localization.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0557","id":"S2-0557","volume":"900v2","title":"A coacervate strand should thin in discrete steps when internal bridges detach sequentially.","prediction":"A coacervate strand should thin in discrete steps when internal bridges detach sequentially.","test":"Resolve necking and molecular bridges.","contrary":"Thinning remains continuous.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0557","prediction":"A coacervate strand should thin in discrete steps when internal bridges detach sequentially.","feasible_test":"Resolve necking and molecular bridges.","contrary_outcome":"Thinning remains continuous.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0558","id":"S2-0558","volume":"900v2","title":"An RNA condensate should expel short fragments preferentially when mechanical compression reduces free volume.","prediction":"An RNA condensate should expel short fragments preferentially when mechanical compression reduces free volume.","test":"Measure fragment-length distributions.","contrary":"Expulsion is length-independent after partition correction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0558","prediction":"An RNA condensate should expel short fragments preferentially when mechanical compression reduces free volume.","feasible_test":"Measure fragment-length distributions.","contrary_outcome":"Expulsion is length-independent after partition correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0559","id":"S2-0559","volume":"900v2","title":"A cell-free reaction should sustain a spatial gradient longer when its product binds reversibly to an immobile scaffold.","prediction":"A cell-free reaction should sustain a spatial gradient longer when its product binds reversibly to an immobile scaffold.","test":"Map gradients after input removal.","contrary":"Lifetime matches free diffusion.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0559","prediction":"A cell-free reaction should sustain a spatial gradient longer when its product binds reversibly to an immobile scaffold.","feasible_test":"Map gradients after input removal.","contrary_outcome":"Lifetime matches free diffusion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0560","id":"S2-0560","volume":"900v2","title":"A synthetic vesicle should capture a nearby particle during recoil from membrane indentation.","prediction":"A synthetic vesicle should capture a nearby particle during recoil from membrane indentation.","test":"Image recoil and particle motion.","contrary":"Capture requires direct adhesive contact.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0560","prediction":"A synthetic vesicle should capture a nearby particle during recoil from membrane indentation.","feasible_test":"Image recoil and particle motion.","contrary_outcome":"Capture requires direct adhesive contact.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0561","id":"S2-0561","volume":"900v2","title":"A reconstituted actin sheet should wrinkle along an imposed chemical boundary because filament length changes locally.","prediction":"A reconstituted actin sheet should wrinkle along an imposed chemical boundary because filament length changes locally.","test":"Measure length and wrinkles.","contrary":"Wrinkles ignore the chemical boundary.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0561","prediction":"A reconstituted actin sheet should wrinkle along an imposed chemical boundary because filament length changes locally.","feasible_test":"Measure length and wrinkles.","contrary_outcome":"Wrinkles ignore the chemical boundary.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0562","id":"S2-0562","volume":"900v2","title":"A protein hydrogel should display directional erosion after a protease is tethered to mobile particles.","prediction":"A protein hydrogel should display directional erosion after a protease is tethered to mobile particles.","test":"Map particle paths and erosion.","contrary":"Erosion remains isotropic.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0562","prediction":"A protein hydrogel should display directional erosion after a protease is tethered to mobile particles.","feasible_test":"Map particle paths and erosion.","contrary_outcome":"Erosion remains isotropic.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0563","id":"S2-0563","volume":"900v2","title":"A membrane enzyme should cluster where substrate-induced curvature lowers its insertion cost.","prediction":"A membrane enzyme should cluster where substrate-induced curvature lowers its insertion cost.","test":"Map curvature and enzyme density.","contrary":"Clustering persists on curvature-clamped membranes equally.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0563","prediction":"A membrane enzyme should cluster where substrate-induced curvature lowers its insertion cost.","feasible_test":"Map curvature and enzyme density.","contrary_outcome":"Clustering persists on curvature-clamped membranes equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0564","id":"S2-0564","volume":"900v2","title":"A lipid-coated gas pocket should delay rupture by recruiting excess lipids from attached reservoirs.","prediction":"A lipid-coated gas pocket should delay rupture by recruiting excess lipids from attached reservoirs.","test":"Image lipid transfer and lifetime.","contrary":"Reservoir access does not extend lifetime.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0564","prediction":"A lipid-coated gas pocket should delay rupture by recruiting excess lipids from attached reservoirs.","feasible_test":"Image lipid transfer and lifetime.","contrary_outcome":"Reservoir access does not extend lifetime.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0565","id":"S2-0565","volume":"900v2","title":"A DNA tile sheet should curl after asymmetric error correction removes more tiles from one face.","prediction":"A DNA tile sheet should curl after asymmetric error correction removes more tiles from one face.","test":"Track tile loss and curvature.","contrary":"Curling lacks face-selective removal.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0565","prediction":"A DNA tile sheet should curl after asymmetric error correction removes more tiles from one face.","feasible_test":"Track tile loss and curvature.","contrary_outcome":"Curling lacks face-selective removal.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0566","id":"S2-0566","volume":"900v2","title":"An artificial organelle should exchange solute faster during shape oscillations that renew its boundary layer.","prediction":"An artificial organelle should exchange solute faster during shape oscillations that renew its boundary layer.","test":"Measure flux and external flow.","contrary":"Flux follows surface area alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0566","prediction":"An artificial organelle should exchange solute faster during shape oscillations that renew its boundary layer.","feasible_test":"Measure flux and external flow.","contrary_outcome":"Flux follows surface area alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0567","id":"S2-0567","volume":"900v2","title":"A fibrin-free protein network should localize enzyme action at tensile junctions where hidden cleavage sites unfold.","prediction":"A fibrin-free protein network should localize enzyme action at tensile junctions where hidden cleavage sites unfold.","test":"Map cleavage and junction strain.","contrary":"Cleavage is strain-independent.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0567","prediction":"A fibrin-free protein network should localize enzyme action at tensile junctions where hidden cleavage sites unfold.","feasible_test":"Map cleavage and junction strain.","contrary_outcome":"Cleavage is strain-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0568","id":"S2-0568","volume":"900v2","title":"A vesicle membrane should preserve a transient pore pattern after freezing because frozen inclusions pin its edges.","prediction":"A vesicle membrane should preserve a transient pore pattern after freezing because frozen inclusions pin its edges.","test":"Image thawed pore locations.","contrary":"Pores reseal without positional memory.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0568","prediction":"A vesicle membrane should preserve a transient pore pattern after freezing because frozen inclusions pin its edges.","feasible_test":"Image thawed pore locations.","contrary_outcome":"Pores reseal without positional memory.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0569","id":"S2-0569","volume":"900v2","title":"A molecular motor carpet should transport a flexible filament around obstacles through local cooperative detachment.","prediction":"A molecular motor carpet should transport a flexible filament around obstacles through local cooperative detachment.","test":"Track motors and filament path.","contrary":"Avoidance occurs without cooperative detachment.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0569","prediction":"A molecular motor carpet should transport a flexible filament around obstacles through local cooperative detachment.","feasible_test":"Track motors and filament path.","contrary_outcome":"Avoidance occurs without cooperative detachment.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0570","id":"S2-0570","volume":"900v2","title":"A coacervate coating should protect an enzyme from interface-induced unfolding by preventing repeated adsorption cycles.","prediction":"A coacervate coating should protect an enzyme from interface-induced unfolding by preventing repeated adsorption cycles.","test":"Measure adsorption histories and folding.","contrary":"Protection persists without reduced adsorption cycling.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0570","prediction":"A coacervate coating should protect an enzyme from interface-induced unfolding by preventing repeated adsorption cycles.","feasible_test":"Measure adsorption histories and folding.","contrary_outcome":"Protection persists without reduced adsorption cycling.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0571","id":"S2-0571","volume":"900v2","title":"An optical cavity should amplify humidity sensitivity when swelling changes both spacing and mirror angle cooperatively.","prediction":"An optical cavity should amplify humidity sensitivity when swelling changes both spacing and mirror angle cooperatively.","test":"Measure geometry and resonance.","contrary":"Response matches spacing change alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0571","prediction":"An optical cavity should amplify humidity sensitivity when swelling changes both spacing and mirror angle cooperatively.","feasible_test":"Measure geometry and resonance.","contrary_outcome":"Response matches spacing change alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0572","id":"S2-0572","volume":"900v2","title":"A transparent pressure film should produce a distinct caustic when a buried bubble flattens.","prediction":"A transparent pressure film should produce a distinct caustic when a buried bubble flattens.","test":"Image caustics and bubble geometry.","contrary":"Caustics lack bubble-specific structure.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0572","prediction":"A transparent pressure film should produce a distinct caustic when a buried bubble flattens.","feasible_test":"Image caustics and bubble geometry.","contrary_outcome":"Caustics lack bubble-specific structure.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0573","id":"S2-0573","volume":"900v2","title":"A microlens array should refocus after wetting through capillary rearrangement of compliant supports.","prediction":"A microlens array should refocus after wetting through capillary rearrangement of compliant supports.","test":"Measure support displacement and focus.","contrary":"Focus changes occur without rearrangement.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0573","prediction":"A microlens array should refocus after wetting through capillary rearrangement of compliant supports.","feasible_test":"Measure support displacement and focus.","contrary_outcome":"Focus changes occur without rearrangement.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0574","id":"S2-0574","volume":"900v2","title":"A scattering layer should retain wavelength-dependent memory of compression through collapsed void-size distributions.","prediction":"A scattering layer should retain wavelength-dependent memory of compression through collapsed void-size distributions.","test":"Measure spectra and tomography.","contrary":"Memory disappears after volume recovery.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0574","prediction":"A scattering layer should retain wavelength-dependent memory of compression through collapsed void-size distributions.","feasible_test":"Measure spectra and tomography.","contrary_outcome":"Memory disappears after volume recovery.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0575","id":"S2-0575","volume":"900v2","title":"A dielectric film should show polarized emission anisotropy after thermal cycling aligns internal cracks.","prediction":"A dielectric film should show polarized emission anisotropy after thermal cycling aligns internal cracks.","test":"Map cracks and emission.","contrary":"Emission remains isotropic.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0575","prediction":"A dielectric film should show polarized emission anisotropy after thermal cycling aligns internal cracks.","feasible_test":"Map cracks and emission.","contrary_outcome":"Emission remains isotropic.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0576","id":"S2-0576","volume":"900v2","title":"A photonic fiber should report solvent exchange earlier at bends where stress increases diffusion.","prediction":"A photonic fiber should report solvent exchange earlier at bends where stress increases diffusion.","test":"Compare bent and straight segments.","contrary":"Arrival times match after thickness correction.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0576","prediction":"A photonic fiber should report solvent exchange earlier at bends where stress increases diffusion.","feasible_test":"Compare bent and straight segments.","contrary_outcome":"Arrival times match after thickness correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0577","id":"S2-0577","volume":"900v2","title":"An illuminated droplet should oscillate in focal length through delayed thermocapillary redistribution.","prediction":"An illuminated droplet should oscillate in focal length through delayed thermocapillary redistribution.","test":"Measure temperature, flow, and focus.","contrary":"Focus follows temperature instantaneously.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0577","prediction":"An illuminated droplet should oscillate in focal length through delayed thermocapillary redistribution.","feasible_test":"Measure temperature, flow, and focus.","contrary_outcome":"Focus follows temperature instantaneously.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0578","id":"S2-0578","volume":"900v2","title":"An optical grating should erase a written pattern when capillary condensation lubricates locked folds.","prediction":"An optical grating should erase a written pattern when capillary condensation lubricates locked folds.","test":"Measure diffraction and fold motion.","contrary":"Erasure occurs without condensation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0578","prediction":"An optical grating should erase a written pattern when capillary condensation lubricates locked folds.","feasible_test":"Measure diffraction and fold motion.","contrary_outcome":"Erasure occurs without condensation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0579","id":"S2-0579","volume":"900v2","title":"A porous fluorescent coating should distinguish compression from chemical quenching through recovery kinetics.","prediction":"A porous fluorescent coating should distinguish compression from chemical quenching through recovery kinetics.","test":"Calibrate both perturbations.","contrary":"Recovery curves remain indistinguishable.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0579","prediction":"A porous fluorescent coating should distinguish compression from chemical quenching through recovery kinetics.","feasible_test":"Calibrate both perturbations.","contrary_outcome":"Recovery curves remain indistinguishable.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0580","id":"S2-0580","volume":"900v2","title":"A reflecting membrane should produce a spectral sideband from traveling wrinkle waves.","prediction":"A reflecting membrane should produce a spectral sideband from traveling wrinkle waves.","test":"Measure time-resolved spectra and topography.","contrary":"Sidebands lack wrinkle-frequency correspondence.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0580","prediction":"A reflecting membrane should produce a spectral sideband from traveling wrinkle waves.","feasible_test":"Measure time-resolved spectra and topography.","contrary_outcome":"Sidebands lack wrinkle-frequency correspondence.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0581","id":"S2-0581","volume":"900v2","title":"A liquid crystal film should align around a cooling droplet through elastic coupling to its contact-line shape.","prediction":"A liquid crystal film should align around a cooling droplet through elastic coupling to its contact-line shape.","test":"Map director and contact geometry.","contrary":"Alignment follows temperature alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0581","prediction":"A liquid crystal film should align around a cooling droplet through elastic coupling to its contact-line shape.","feasible_test":"Map director and contact geometry.","contrary_outcome":"Alignment follows temperature alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0582","id":"S2-0582","volume":"900v2","title":"A light-scattering gel should reveal localized bond exchange through intermittent speckle decorrelation.","prediction":"A light-scattering gel should reveal localized bond exchange through intermittent speckle decorrelation.","test":"Compare speckle with exchange markers.","contrary":"Decorrelations reflect only bulk drift.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0582","prediction":"A light-scattering gel should reveal localized bond exchange through intermittent speckle decorrelation.","feasible_test":"Compare speckle with exchange markers.","contrary_outcome":"Decorrelations reflect only bulk drift.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0583","id":"S2-0583","volume":"900v2","title":"An optical waveguide should retain a local loss minimum after a crack closes because solvent fills residual gaps.","prediction":"An optical waveguide should retain a local loss minimum after a crack closes because solvent fills residual gaps.","test":"Measure loss and crack occupancy.","contrary":"Loss returns to its original value.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0583","prediction":"An optical waveguide should retain a local loss minimum after a crack closes because solvent fills residual gaps.","feasible_test":"Measure loss and crack occupancy.","contrary_outcome":"Loss returns to its original value.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0584","id":"S2-0584","volume":"900v2","title":"A radiative surface should become directionally colder when microfacets orient toward a clear-sky window.","prediction":"A radiative surface should become directionally colder when microfacets orient toward a clear-sky window.","test":"Measure facet orientation and temperature.","contrary":"Cooling follows total sky view alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0584","prediction":"A radiative surface should become directionally colder when microfacets orient toward a clear-sky window.","feasible_test":"Measure facet orientation and temperature.","contrary_outcome":"Cooling follows total sky view alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0585","id":"S2-0585","volume":"900v2","title":"A fluorescent fiber should emit a moving bright band when a swelling front concentrates dye ahead of itself.","prediction":"A fluorescent fiber should emit a moving bright band when a swelling front concentrates dye ahead of itself.","test":"Map dye concentration and water.","contrary":"Brightness follows local hydration without concentration.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0585","prediction":"A fluorescent fiber should emit a moving bright band when a swelling front concentrates dye ahead of itself.","feasible_test":"Map dye concentration and water.","contrary_outcome":"Brightness follows local hydration without concentration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0586","id":"S2-0586","volume":"900v2","title":"A flexible diffraction tag should distinguish twisting from bending through spot rotation versus splitting.","prediction":"A flexible diffraction tag should distinguish twisting from bending through spot rotation versus splitting.","test":"Calibrate independent deformations.","contrary":"Signatures remain degenerate.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0586","prediction":"A flexible diffraction tag should distinguish twisting from bending through spot rotation versus splitting.","feasible_test":"Calibrate independent deformations.","contrary_outcome":"Signatures remain degenerate.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0587","id":"S2-0587","volume":"900v2","title":"A transparent membrane should reveal liquid impact history through metastable interference rings.","prediction":"A transparent membrane should reveal liquid impact history through metastable interference rings.","test":"Image rings after known impacts.","contrary":"Rings disappear after mechanical relaxation.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0587","prediction":"A transparent membrane should reveal liquid impact history through metastable interference rings.","feasible_test":"Image rings after known impacts.","contrary_outcome":"Rings disappear after mechanical relaxation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0588","id":"S2-0588","volume":"900v2","title":"A porous optical resonator should detect dissolved-gas release before bubbles become microscopically visible.","prediction":"A porous optical resonator should detect dissolved-gas release before bubbles become microscopically visible.","test":"Compare spectra and high-speed microscopy.","contrary":"Spectral changes begin only with visible bubbles.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0588","prediction":"A porous optical resonator should detect dissolved-gas release before bubbles become microscopically visible.","feasible_test":"Compare spectra and high-speed microscopy.","contrary_outcome":"Spectral changes begin only with visible bubbles.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0589","id":"S2-0589","volume":"900v2","title":"A semiconductor-free photothermal valve should close through vapor generation in a buried pocket.","prediction":"A semiconductor-free photothermal valve should close through vapor generation in a buried pocket.","test":"Measure pocket pressure and aperture.","contrary":"Closure occurs without vapor formation.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0589","prediction":"A semiconductor-free photothermal valve should close through vapor generation in a buried pocket.","feasible_test":"Measure pocket pressure and aperture.","contrary_outcome":"Closure occurs without vapor formation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0590","id":"S2-0590","volume":"900v2","title":"A fiber-optic mat should localize moisture through bend-loss changes caused by differential swelling.","prediction":"A fiber-optic mat should localize moisture through bend-loss changes caused by differential swelling.","test":"Map local water and optical losses.","contrary":"Loss localization cannot identify wet regions.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0590","prediction":"A fiber-optic mat should localize moisture through bend-loss changes caused by differential swelling.","feasible_test":"Map local water and optical losses.","contrary_outcome":"Loss localization cannot identify wet regions.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0591","id":"S2-0591","volume":"900v2","title":"A patterned mirror should modulate polarization when frictional sliding rotates microscopic tiles.","prediction":"A patterned mirror should modulate polarization when frictional sliding rotates microscopic tiles.","test":"Measure tile motion and polarization.","contrary":"Polarization remains unchanged after rotation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0591","prediction":"A patterned mirror should modulate polarization when frictional sliding rotates microscopic tiles.","feasible_test":"Measure tile motion and polarization.","contrary_outcome":"Polarization remains unchanged after rotation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0592","id":"S2-0592","volume":"900v2","title":"A colloidal optical ink should preserve printing-direction anisotropy through locked particle chains.","prediction":"A colloidal optical ink should preserve printing-direction anisotropy through locked particle chains.","test":"Measure structure and polarized scattering.","contrary":"Scattering becomes isotropic after drying.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0592","prediction":"A colloidal optical ink should preserve printing-direction anisotropy through locked particle chains.","feasible_test":"Measure structure and polarized scattering.","contrary_outcome":"Scattering becomes isotropic after drying.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0593","id":"S2-0593","volume":"900v2","title":"A resonant coating should split its spectral peak when drying creates two mechanically distinct domains.","prediction":"A resonant coating should split its spectral peak when drying creates two mechanically distinct domains.","test":"Map modulus and spectra.","contrary":"Splitting lacks domain correspondence.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0593","prediction":"A resonant coating should split its spectral peak when drying creates two mechanically distinct domains.","feasible_test":"Map modulus and spectra.","contrary_outcome":"Splitting lacks domain correspondence.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0594","id":"S2-0594","volume":"900v2","title":"A transparent foam should focus light transiently at collapsing bubble junctions.","prediction":"A transparent foam should focus light transiently at collapsing bubble junctions.","test":"Image light intensity and topology.","contrary":"Intensity maxima ignore junction collapse.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0594","prediction":"A transparent foam should focus light transiently at collapsing bubble junctions.","feasible_test":"Image light intensity and topology.","contrary_outcome":"Intensity maxima ignore junction collapse.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0595","id":"S2-0595","volume":"900v2","title":"A light-driven filament should select a bending wavelength through competition between absorption depth and thermal diffusion.","prediction":"A light-driven filament should select a bending wavelength through competition between absorption depth and thermal diffusion.","test":"Measure shape across modulation frequencies.","contrary":"Wavelength follows geometry alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0595","prediction":"A light-driven filament should select a bending wavelength through competition between absorption depth and thermal diffusion.","feasible_test":"Measure shape across modulation frequencies.","contrary_outcome":"Wavelength follows geometry alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0596","id":"S2-0596","volume":"900v2","title":"A photonic hydrogel should retain a two-step color response when solvent first fills pores then swells walls.","prediction":"A photonic hydrogel should retain a two-step color response when solvent first fills pores then swells walls.","test":"Measure spectra and pore occupancy.","contrary":"Color evolves in one indistinguishable stage.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0596","prediction":"A photonic hydrogel should retain a two-step color response when solvent first fills pores then swells walls.","feasible_test":"Measure spectra and pore occupancy.","contrary_outcome":"Color evolves in one indistinguishable stage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0597","id":"S2-0597","volume":"900v2","title":"A flexible interferometer should detect hidden delamination through phase noise before mean phase changes.","prediction":"A flexible interferometer should detect hidden delamination through phase noise before mean phase changes.","test":"Compare noise with tomography.","contrary":"Noise rises only after mean-phase shift.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0597","prediction":"A flexible interferometer should detect hidden delamination through phase noise before mean phase changes.","feasible_test":"Compare noise with tomography.","contrary_outcome":"Noise rises only after mean-phase shift.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0598","id":"S2-0598","volume":"900v2","title":"A dusty transparent film should recover transmission through dew-induced particle clustering without particle removal.","prediction":"A dusty transparent film should recover transmission through dew-induced particle clustering without particle removal.","test":"Measure transmission and particle mass.","contrary":"Recovery requires dust loss.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0598","prediction":"A dusty transparent film should recover transmission through dew-induced particle clustering without particle removal.","feasible_test":"Measure transmission and particle mass.","contrary_outcome":"Recovery requires dust loss.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0599","id":"S2-0599","volume":"900v2","title":"A porous emitter should show a spectral cooling plateau while an internal hydrate dehydrates.","prediction":"A porous emitter should show a spectral cooling plateau while an internal hydrate dehydrates.","test":"Measure emission and phase fraction.","contrary":"Cooling lacks phase-linked plateaus.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0599","prediction":"A porous emitter should show a spectral cooling plateau while an internal hydrate dehydrates.","feasible_test":"Measure emission and phase fraction.","contrary_outcome":"Cooling lacks phase-linked plateaus.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0600","id":"S2-0600","volume":"900v2","title":"An optically trapped aggregate should rotate after one internal bond breaks because recoil transfers angular momentum.","prediction":"An optically trapped aggregate should rotate after one internal bond breaks because recoil transfers angular momentum.","test":"Image bond failure and rotation.","contrary":"Rotation is unrelated to break orientation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0600","prediction":"An optically trapped aggregate should rotate after one internal bond breaks because recoil transfers angular momentum.","feasible_test":"Image bond failure and rotation.","contrary_outcome":"Rotation is unrelated to break orientation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0601","id":"S2-0601","volume":"900v2","title":"A layered rock analogue should leak gas along a delamination front before the front becomes hydraulically open to water.","prediction":"A layered rock analogue should leak gas along a delamination front before the front becomes hydraulically open to water.","test":"Measure gas and liquid permeability.","contrary":"Both permeabilities emerge together.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0601","prediction":"A layered rock analogue should leak gas along a delamination front before the front becomes hydraulically open to water.","feasible_test":"Measure gas and liquid permeability.","contrary_outcome":"Both permeabilities emerge together.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0602","id":"S2-0602","volume":"900v2","title":"A clay seam should redirect a freezing front through local suppression of ice nucleation.","prediction":"A clay seam should redirect a freezing front through local suppression of ice nucleation.","test":"Map temperature and front shape.","contrary":"Deflection follows thermal conductivity alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0602","prediction":"A clay seam should redirect a freezing front through local suppression of ice nucleation.","feasible_test":"Map temperature and front shape.","contrary_outcome":"Deflection follows thermal conductivity alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0603","id":"S2-0603","volume":"900v2","title":"A weathered mineral rind should detach after repeated humidity cycles accumulate interfacial shear strain.","prediction":"A weathered mineral rind should detach after repeated humidity cycles accumulate interfacial shear strain.","test":"Measure shear and detachment.","contrary":"Failure lacks cumulative strain.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0603","prediction":"A weathered mineral rind should detach after repeated humidity cycles accumulate interfacial shear strain.","feasible_test":"Measure shear and detachment.","contrary_outcome":"Failure lacks cumulative strain.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0604","id":"S2-0604","volume":"900v2","title":"A quartz sand bed should retain dissolved gas preferentially beneath finer surface patches.","prediction":"A quartz sand bed should retain dissolved gas preferentially beneath finer surface patches.","test":"Image gas and grain-size topology.","contrary":"Retention follows local pore volume alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0604","prediction":"A quartz sand bed should retain dissolved gas preferentially beneath finer surface patches.","feasible_test":"Image gas and grain-size topology.","contrary_outcome":"Retention follows local pore volume alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0605","id":"S2-0605","volume":"900v2","title":"A porous carbonate should exhibit a temporary permeability gain when dissolution removes load-bearing necks before collapse.","prediction":"A porous carbonate should exhibit a temporary permeability gain when dissolution removes load-bearing necks before collapse.","test":"Measure structure, stress, and flow.","contrary":"Permeability changes monotonically downward.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0605","prediction":"A porous carbonate should exhibit a temporary permeability gain when dissolution removes load-bearing necks before collapse.","feasible_test":"Measure structure, stress, and flow.","contrary_outcome":"Permeability changes monotonically downward.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0606","id":"S2-0606","volume":"900v2","title":"A clay lens should migrate laterally during repeated wetting through asymmetric swelling against confinement.","prediction":"A clay lens should migrate laterally during repeated wetting through asymmetric swelling against confinement.","test":"Track lens position and wall forces.","contrary":"Position returns each cycle.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0606","prediction":"A clay lens should migrate laterally during repeated wetting through asymmetric swelling against confinement.","feasible_test":"Track lens position and wall forces.","contrary_outcome":"Position returns each cycle.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0607","id":"S2-0607","volume":"900v2","title":"A mineral vein analogue should precipitate preferentially where oscillatory flow reverses most slowly.","prediction":"A mineral vein analogue should precipitate preferentially where oscillatory flow reverses most slowly.","test":"Map dwell time and deposition.","contrary":"Deposition follows mean concentration alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0607","prediction":"A mineral vein analogue should precipitate preferentially where oscillatory flow reverses most slowly.","feasible_test":"Map dwell time and deposition.","contrary_outcome":"Deposition follows mean concentration alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0608","id":"S2-0608","volume":"900v2","title":"A rock fracture should transport colloids in pulses as elastic aperture fluctuations open bottlenecks.","prediction":"A rock fracture should transport colloids in pulses as elastic aperture fluctuations open bottlenecks.","test":"Measure aperture and colloid breakthrough.","contrary":"Pulses persist with fixed apertures.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0608","prediction":"A rock fracture should transport colloids in pulses as elastic aperture fluctuations open bottlenecks.","feasible_test":"Measure aperture and colloid breakthrough.","contrary_outcome":"Pulses persist with fixed apertures.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0609","id":"S2-0609","volume":"900v2","title":"A sand arch should fail after cooling because capillary bridge contraction shifts contact forces.","prediction":"A sand arch should fail after cooling because capillary bridge contraction shifts contact forces.","test":"Measure bridge geometry and forces.","contrary":"Cooling-induced failure lacks bridge changes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0609","prediction":"A sand arch should fail after cooling because capillary bridge contraction shifts contact forces.","feasible_test":"Measure bridge geometry and forces.","contrary_outcome":"Cooling-induced failure lacks bridge changes.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0610","id":"S2-0610","volume":"900v2","title":"A mineral crust should preserve past flow direction through asymmetric sheltering around growing grains.","prediction":"A mineral crust should preserve past flow direction through asymmetric sheltering around growing grains.","test":"Measure final grain shadows after reversed flow.","contrary":"Asymmetry cannot recover flow direction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0610","prediction":"A mineral crust should preserve past flow direction through asymmetric sheltering around growing grains.","feasible_test":"Measure final grain shadows after reversed flow.","contrary_outcome":"Asymmetry cannot recover flow direction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0611","id":"S2-0611","volume":"900v2","title":"An evaporite pocket should generate a pressure pulse when a hydrate transformation blocks its outlet.","prediction":"An evaporite pocket should generate a pressure pulse when a hydrate transformation blocks its outlet.","test":"Record phase, outlet width, and pressure.","contrary":"Pressure rises without blockage.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0611","prediction":"An evaporite pocket should generate a pressure pulse when a hydrate transformation blocks its outlet.","feasible_test":"Record phase, outlet width, and pressure.","contrary_outcome":"Pressure rises without blockage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0612","id":"S2-0612","volume":"900v2","title":"A porous basalt analogue should sort dissolved tracers by reversible confinement-induced partitioning.","prediction":"A porous basalt analogue should sort dissolved tracers by reversible confinement-induced partitioning.","test":"Measure pore-resolved tracer profiles.","contrary":"Sorting follows adsorption to chemistry alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0612","prediction":"A porous basalt analogue should sort dissolved tracers by reversible confinement-induced partitioning.","feasible_test":"Measure pore-resolved tracer profiles.","contrary_outcome":"Sorting follows adsorption to chemistry alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0613","id":"S2-0613","volume":"900v2","title":"A sediment layer should form a mechanically stable gas lens under a capillary barrier.","prediction":"A sediment layer should form a mechanically stable gas lens under a capillary barrier.","test":"Image gas geometry and applied pressure.","contrary":"Gas invades diffusely without lens formation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0613","prediction":"A sediment layer should form a mechanically stable gas lens under a capillary barrier.","feasible_test":"Image gas geometry and applied pressure.","contrary_outcome":"Gas invades diffusely without lens formation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0614","id":"S2-0614","volume":"900v2","title":"A pressure-dissolved contact should regain roughness after unloading through spatially selective precipitation.","prediction":"A pressure-dissolved contact should regain roughness after unloading through spatially selective precipitation.","test":"Measure contact topography and chemistry.","contrary":"Roughness remains permanently reduced.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0614","prediction":"A pressure-dissolved contact should regain roughness after unloading through spatially selective precipitation.","feasible_test":"Measure contact topography and chemistry.","contrary_outcome":"Roughness remains permanently reduced.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0615","id":"S2-0615","volume":"900v2","title":"A freezing saline pore should concentrate ions at its warm wall through curvature-dependent ice rejection.","prediction":"A freezing saline pore should concentrate ions at its warm wall through curvature-dependent ice rejection.","test":"Map ions and wall temperature.","contrary":"Concentration follows bulk rejection without wall localization.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0615","prediction":"A freezing saline pore should concentrate ions at its warm wall through curvature-dependent ice rejection.","feasible_test":"Map ions and wall temperature.","contrary_outcome":"Concentration follows bulk rejection without wall localization.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0616","id":"S2-0616","volume":"900v2","title":"A mineral membrane should lose selectivity abruptly when dissolution connects a previously isolated large pore.","prediction":"A mineral membrane should lose selectivity abruptly when dissolution connects a previously isolated large pore.","test":"Measure topology and ion transport.","contrary":"Selectivity decays smoothly with total porosity.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0616","prediction":"A mineral membrane should lose selectivity abruptly when dissolution connects a previously isolated large pore.","feasible_test":"Measure topology and ion transport.","contrary_outcome":"Selectivity decays smoothly with total porosity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0617","id":"S2-0617","volume":"900v2","title":"A grain boundary should carry vapor faster after mechanical shear opens intermittent nanogaps.","prediction":"A grain boundary should carry vapor faster after mechanical shear opens intermittent nanogaps.","test":"Measure vapor flux and shear displacement.","contrary":"Flux is shear-independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0617","prediction":"A grain boundary should carry vapor faster after mechanical shear opens intermittent nanogaps.","feasible_test":"Measure vapor flux and shear displacement.","contrary_outcome":"Flux is shear-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0618","id":"S2-0618","volume":"900v2","title":"A hydrated salt layer should generate curvature stress that lifts neighboring inert grains.","prediction":"A hydrated salt layer should generate curvature stress that lifts neighboring inert grains.","test":"Track phase conversion and grain motion.","contrary":"Motion occurs only through liquid flow.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0618","prediction":"A hydrated salt layer should generate curvature stress that lifts neighboring inert grains.","feasible_test":"Track phase conversion and grain motion.","contrary_outcome":"Motion occurs only through liquid flow.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0619","id":"S2-0619","volume":"900v2","title":"A sediment aggregate should transmit chemical fronts faster after compression expels stagnant pore water.","prediction":"A sediment aggregate should transmit chemical fronts faster after compression expels stagnant pore water.","test":"Map front speed and pore exchange.","contrary":"Compression only slows transport.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0619","prediction":"A sediment aggregate should transmit chemical fronts faster after compression expels stagnant pore water.","feasible_test":"Map front speed and pore exchange.","contrary_outcome":"Compression only slows transport.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0620","id":"S2-0620","volume":"900v2","title":"A mineral replacement front should leave aligned voids that record the original stress direction.","prediction":"A mineral replacement front should leave aligned voids that record the original stress direction.","test":"Compare void orientation under reversed stress.","contrary":"Voids ignore stress orientation.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0620","prediction":"A mineral replacement front should leave aligned voids that record the original stress direction.","feasible_test":"Compare void orientation under reversed stress.","contrary_outcome":"Voids ignore stress orientation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0621","id":"S2-0621","volume":"900v2","title":"A gypsum needle mat should wick water directionally through collective needle bending.","prediction":"A gypsum needle mat should wick water directionally through collective needle bending.","test":"Measure water front and needle motion.","contrary":"Directional wicking persists with immobilized needles equally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0621","prediction":"A gypsum needle mat should wick water directionally through collective needle bending.","feasible_test":"Measure water front and needle motion.","contrary_outcome":"Directional wicking persists with immobilized needles equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0622","id":"S2-0622","volume":"900v2","title":"A clay-coated fracture should self-seal more efficiently after shear exposes fresh swelling edges.","prediction":"A clay-coated fracture should self-seal more efficiently after shear exposes fresh swelling edges.","test":"Measure sealing and edge exposure.","contrary":"Sealing follows clay mass alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0622","prediction":"A clay-coated fracture should self-seal more efficiently after shear exposes fresh swelling edges.","feasible_test":"Measure sealing and edge exposure.","contrary_outcome":"Sealing follows clay mass alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0623","id":"S2-0623","volume":"900v2","title":"A submerged porous grain should emit bubbles preferentially at sites of tensile residual stress.","prediction":"A submerged porous grain should emit bubbles preferentially at sites of tensile residual stress.","test":"Map stress and gas emergence.","contrary":"Emergence follows roughness alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0623","prediction":"A submerged porous grain should emit bubbles preferentially at sites of tensile residual stress.","feasible_test":"Map stress and gas emergence.","contrary_outcome":"Emergence follows roughness alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0624","id":"S2-0624","volume":"900v2","title":"A sand mixture should develop acoustic anisotropy before visible sorting during vibration.","prediction":"A sand mixture should develop acoustic anisotropy before visible sorting during vibration.","test":"Measure wave speeds and particle distributions.","contrary":"Anisotropy appears only after resolved sorting.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0624","prediction":"A sand mixture should develop acoustic anisotropy before visible sorting during vibration.","feasible_test":"Measure wave speeds and particle distributions.","contrary_outcome":"Anisotropy appears only after resolved sorting.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0625","id":"S2-0625","volume":"900v2","title":"A mineral film should crystallize in concentric bands when substrate bending periodically relieves stress.","prediction":"A mineral film should crystallize in concentric bands when substrate bending periodically relieves stress.","test":"Track growth and curvature.","contrary":"Band timing is curvature-independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0625","prediction":"A mineral film should crystallize in concentric bands when substrate bending periodically relieves stress.","feasible_test":"Track growth and curvature.","contrary_outcome":"Band timing is curvature-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0626","id":"S2-0626","volume":"900v2","title":"A rock analogue should retain a thermal memory of prior wetting through isolated adsorbed-water clusters.","prediction":"A rock analogue should retain a thermal memory of prior wetting through isolated adsorbed-water clusters.","test":"Measure thermal response and residual water.","contrary":"Memory vanishes after visible drying.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0626","prediction":"A rock analogue should retain a thermal memory of prior wetting through isolated adsorbed-water clusters.","feasible_test":"Measure thermal response and residual water.","contrary_outcome":"Memory vanishes after visible drying.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0627","id":"S2-0627","volume":"900v2","title":"A reactive fracture should channelize less when its walls deform to close the fastest-growing paths.","prediction":"A reactive fracture should channelize less when its walls deform to close the fastest-growing paths.","test":"Map flow, dissolution, and aperture.","contrary":"Deformation increases or leaves channelization unchanged.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0627","prediction":"A reactive fracture should channelize less when its walls deform to close the fastest-growing paths.","feasible_test":"Map flow, dissolution, and aperture.","contrary_outcome":"Deformation increases or leaves channelization unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0628","id":"S2-0628","volume":"900v2","title":"A dust aggregate should rebound from wet rock when its porous interior rapidly absorbs the lubricating film.","prediction":"A dust aggregate should rebound from wet rock when its porous interior rapidly absorbs the lubricating film.","test":"Measure absorption and impact dynamics.","contrary":"Rebound requires a dry interface.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0628","prediction":"A dust aggregate should rebound from wet rock when its porous interior rapidly absorbs the lubricating film.","feasible_test":"Measure absorption and impact dynamics.","contrary_outcome":"Rebound requires a dry interface.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0629","id":"S2-0629","volume":"900v2","title":"A salt-bearing pore network should expel brine through surface defects during rapid decompression.","prediction":"A salt-bearing pore network should expel brine through surface defects during rapid decompression.","test":"Image brine motion and pressure.","contrary":"Brine movement follows only gravity.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0629","prediction":"A salt-bearing pore network should expel brine through surface defects during rapid decompression.","feasible_test":"Image brine motion and pressure.","contrary_outcome":"Brine movement follows only gravity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0630","id":"S2-0630","volume":"900v2","title":"A compacted mineral powder should show a reproducible permeability rebound after stress removal through delayed contact relaxation.","prediction":"A compacted mineral powder should show a reproducible permeability rebound after stress removal through delayed contact relaxation.","test":"Measure flow and contacts.","contrary":"Permeability recovers immediately or remains fixed.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0630","prediction":"A compacted mineral powder should show a reproducible permeability rebound after stress removal through delayed contact relaxation.","feasible_test":"Measure flow and contacts.","contrary_outcome":"Permeability recovers immediately or remains fixed.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0631","id":"S2-0631","volume":"900v2","title":"A reaction-diffusion front should split when its catalyst adsorbs to a deformable boundary.","prediction":"A reaction-diffusion front should split when its catalyst adsorbs to a deformable boundary.","test":"Map adsorption and front topology.","contrary":"Splitting persists on nonadsorbing rigid boundaries.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0631","prediction":"A reaction-diffusion front should split when its catalyst adsorbs to a deformable boundary.","feasible_test":"Map adsorption and front topology.","contrary_outcome":"Splitting persists on nonadsorbing rigid boundaries.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0632","id":"S2-0632","volume":"900v2","title":"A soluble catalyst should become localized after product-induced salting out.","prediction":"A soluble catalyst should become localized after product-induced salting out.","test":"Measure catalyst partition and turnover.","contrary":"Localization occurs without product accumulation.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0632","prediction":"A soluble catalyst should become localized after product-induced salting out.","feasible_test":"Measure catalyst partition and turnover.","contrary_outcome":"Localization occurs without product accumulation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0633","id":"S2-0633","volume":"900v2","title":"A microreactor should oscillate in gas yield when bubble release resets interfacial catalyst coverage.","prediction":"A microreactor should oscillate in gas yield when bubble release resets interfacial catalyst coverage.","test":"Measure coverage and gas flux.","contrary":"Yield fluctuations ignore release timing.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0633","prediction":"A microreactor should oscillate in gas yield when bubble release resets interfacial catalyst coverage.","feasible_test":"Measure coverage and gas flux.","contrary_outcome":"Yield fluctuations ignore release timing.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0634","id":"S2-0634","volume":"900v2","title":"A porous acid-base junction should migrate against bulk flow through preferential proton binding.","prediction":"A porous acid-base junction should migrate against bulk flow through preferential proton binding.","test":"Track pH front and flow.","contrary":"Front motion follows advection alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0634","prediction":"A porous acid-base junction should migrate against bulk flow through preferential proton binding.","feasible_test":"Track pH front and flow.","contrary_outcome":"Front motion follows advection alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0635","id":"S2-0635","volume":"900v2","title":"A dissolving capsule should release cargo in reverse loading order when layered binding sites differ in exchange rate.","prediction":"A dissolving capsule should release cargo in reverse loading order when layered binding sites differ in exchange rate.","test":"Track distinguishable cargo pulses.","contrary":"Release order matches loading regardless of kinetics.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0635","prediction":"A dissolving capsule should release cargo in reverse loading order when layered binding sites differ in exchange rate.","feasible_test":"Track distinguishable cargo pulses.","contrary_outcome":"Release order matches loading regardless of kinetics.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0636","id":"S2-0636","volume":"900v2","title":"A reactive film should develop a stress-free band where opposing swelling reactions cancel.","prediction":"A reactive film should develop a stress-free band where opposing swelling reactions cancel.","test":"Map conversion and strain.","contrary":"Cancellation fails despite verified stoichiometric balance.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0636","prediction":"A reactive film should develop a stress-free band where opposing swelling reactions cancel.","feasible_test":"Map conversion and strain.","contrary_outcome":"Cancellation fails despite verified stoichiometric balance.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0637","id":"S2-0637","volume":"900v2","title":"A reversible precipitate should store chemical history as unequal dissolution times at identical final composition.","prediction":"A reversible precipitate should store chemical history as unequal dissolution times at identical final composition.","test":"Compare controlled assembly paths.","contrary":"Dissolution kinetics are history-independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0637","prediction":"A reversible precipitate should store chemical history as unequal dissolution times at identical final composition.","feasible_test":"Compare controlled assembly paths.","contrary_outcome":"Dissolution kinetics are history-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0638","id":"S2-0638","volume":"900v2","title":"An illuminated catalyst should show an activity shadow downstream because a mobile inhibitor outlives excited states.","prediction":"An illuminated catalyst should show an activity shadow downstream because a mobile inhibitor outlives excited states.","test":"Map inhibitor and turnover.","contrary":"Shadows vanish after light scattering correction alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0638","prediction":"An illuminated catalyst should show an activity shadow downstream because a mobile inhibitor outlives excited states.","feasible_test":"Map inhibitor and turnover.","contrary_outcome":"Shadows vanish after light scattering correction alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0639","id":"S2-0639","volume":"900v2","title":"A porous gel should sharpen a reaction front when its product reduces local diffusivity.","prediction":"A porous gel should sharpen a reaction front when its product reduces local diffusivity.","test":"Measure front width and diffusivity.","contrary":"Front broadens despite verified diffusivity reduction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0639","prediction":"A porous gel should sharpen a reaction front when its product reduces local diffusivity.","feasible_test":"Measure front width and diffusivity.","contrary_outcome":"Front broadens despite verified diffusivity reduction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0640","id":"S2-0640","volume":"900v2","title":"A confined redox reaction should produce an electric pulse before its color front arrives.","prediction":"A confined redox reaction should produce an electric pulse before its color front arrives.","test":"Measure potential and absorbance spatially.","contrary":"Potential onset follows the visible front.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0640","prediction":"A confined redox reaction should produce an electric pulse before its color front arrives.","feasible_test":"Measure potential and absorbance spatially.","contrary_outcome":"Potential onset follows the visible front.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0641","id":"S2-0641","volume":"900v2","title":"A molecular switch should relax through collective avalanches when neighboring switches share elastic strain.","prediction":"A molecular switch should relax through collective avalanches when neighboring switches share elastic strain.","test":"Resolve switching events and strain.","contrary":"Events remain independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0641","prediction":"A molecular switch should relax through collective avalanches when neighboring switches share elastic strain.","feasible_test":"Resolve switching events and strain.","contrary_outcome":"Events remain independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0642","id":"S2-0642","volume":"900v2","title":"A soft catalyst support should change selectivity under stress by altering intermediate residence time.","prediction":"A soft catalyst support should change selectivity under stress by altering intermediate residence time.","test":"Measure residence and products.","contrary":"Selectivity is residence-independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0642","prediction":"A soft catalyst support should change selectivity under stress by altering intermediate residence time.","feasible_test":"Measure residence and products.","contrary_outcome":"Selectivity is residence-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0643","id":"S2-0643","volume":"900v2","title":"A microdroplet should retain a nonequilibrium solvent ratio after repeated vapor exchange because internal mixing arrests.","prediction":"A microdroplet should retain a nonequilibrium solvent ratio after repeated vapor exchange because internal mixing arrests.","test":"Measure composition profiles and mobility.","contrary":"Composition follows equilibrium vapor partitioning.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0643","prediction":"A microdroplet should retain a nonequilibrium solvent ratio after repeated vapor exchange because internal mixing arrests.","feasible_test":"Measure composition profiles and mobility.","contrary_outcome":"Composition follows equilibrium vapor partitioning.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0644","id":"S2-0644","volume":"900v2","title":"A reaction-generated polymer should channel subsequent reactant flow into a moving boundary layer.","prediction":"A reaction-generated polymer should channel subsequent reactant flow into a moving boundary layer.","test":"Image polymer growth and velocity.","contrary":"Flow remains spatially unchanged.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0644","prediction":"A reaction-generated polymer should channel subsequent reactant flow into a moving boundary layer.","feasible_test":"Image polymer growth and velocity.","contrary_outcome":"Flow remains spatially unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0645","id":"S2-0645","volume":"900v2","title":"A catalytic surface should exhibit a turnover maximum at intermediate roughness because deep traps retain inhibitor.","prediction":"A catalytic surface should exhibit a turnover maximum at intermediate roughness because deep traps retain inhibitor.","test":"Measure roughness, inhibitor, and rate.","contrary":"Rate follows exposed area monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0645","prediction":"A catalytic surface should exhibit a turnover maximum at intermediate roughness because deep traps retain inhibitor.","feasible_test":"Measure roughness, inhibitor, and rate.","contrary_outcome":"Rate follows exposed area monotonically.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0646","id":"S2-0646","volume":"900v2","title":"A redox-active colloid should propel intermittently when local surface charging crosses a slip threshold.","prediction":"A redox-active colloid should propel intermittently when local surface charging crosses a slip threshold.","test":"Measure charge and motion.","contrary":"Motion lacks charge-threshold events.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0646","prediction":"A redox-active colloid should propel intermittently when local surface charging crosses a slip threshold.","feasible_test":"Measure charge and motion.","contrary_outcome":"Motion lacks charge-threshold events.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0647","id":"S2-0647","volume":"900v2","title":"A gel-bound indicator should report chemical fronts asymmetrically because proton transport changes its own binding affinity.","prediction":"A gel-bound indicator should report chemical fronts asymmetrically because proton transport changes its own binding affinity.","test":"Measure front speeds both directions.","contrary":"Speeds remain reciprocal.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0647","prediction":"A gel-bound indicator should report chemical fronts asymmetrically because proton transport changes its own binding affinity.","feasible_test":"Measure front speeds both directions.","contrary_outcome":"Speeds remain reciprocal.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0648","id":"S2-0648","volume":"900v2","title":"A reversible molecular aggregate should select a narrower size distribution after pressure cycling drives exchange at stressed contacts.","prediction":"A reversible molecular aggregate should select a narrower size distribution after pressure cycling drives exchange at stressed contacts.","test":"Measure sizes and exchange.","contrary":"Narrowing matches unstressed aging.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0648","prediction":"A reversible molecular aggregate should select a narrower size distribution after pressure cycling drives exchange at stressed contacts.","feasible_test":"Measure sizes and exchange.","contrary_outcome":"Narrowing matches unstressed aging.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0649","id":"S2-0649","volume":"900v2","title":"A chelating membrane should form a moving stiffness front as bound ions crosslink its chains.","prediction":"A chelating membrane should form a moving stiffness front as bound ions crosslink its chains.","test":"Map ion binding and modulus.","contrary":"Stiffness changes remain uniform.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0649","prediction":"A chelating membrane should form a moving stiffness front as bound ions crosslink its chains.","feasible_test":"Map ion binding and modulus.","contrary_outcome":"Stiffness changes remain uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0650","id":"S2-0650","volume":"900v2","title":"A reacting emulsion should coarsen unevenly when product partitions preferentially into small droplets.","prediction":"A reacting emulsion should coarsen unevenly when product partitions preferentially into small droplets.","test":"Measure product and droplet growth.","contrary":"Coarsening follows curvature alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0650","prediction":"A reacting emulsion should coarsen unevenly when product partitions preferentially into small droplets.","feasible_test":"Measure product and droplet growth.","contrary_outcome":"Coarsening follows curvature alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0651","id":"S2-0651","volume":"900v2","title":"A porous catalyst should heat unevenly even under uniform turnover because gas pockets interrupt heat escape.","prediction":"A porous catalyst should heat unevenly even under uniform turnover because gas pockets interrupt heat escape.","test":"Map temperature and pore gas.","contrary":"Temperature heterogeneity ignores gas topology.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0651","prediction":"A porous catalyst should heat unevenly even under uniform turnover because gas pockets interrupt heat escape.","feasible_test":"Map temperature and pore gas.","contrary_outcome":"Temperature heterogeneity ignores gas topology.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0652","id":"S2-0652","volume":"900v2","title":"A molecular film should conduct ions in bursts during cooperative hydration transitions.","prediction":"A molecular film should conduct ions in bursts during cooperative hydration transitions.","test":"Measure current and bound water.","contrary":"Current varies smoothly with hydration.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0652","prediction":"A molecular film should conduct ions in bursts during cooperative hydration transitions.","feasible_test":"Measure current and bound water.","contrary_outcome":"Current varies smoothly with hydration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0653","id":"S2-0653","volume":"900v2","title":"A redox gel should pump solvent after a symmetric voltage cycle if oxidation and reduction follow different deformation paths.","prediction":"A redox gel should pump solvent after a symmetric voltage cycle if oxidation and reduction follow different deformation paths.","test":"Measure net solvent displacement.","contrary":"Transport is zero after a complete cycle.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0653","prediction":"A redox gel should pump solvent after a symmetric voltage cycle if oxidation and reduction follow different deformation paths.","feasible_test":"Measure net solvent displacement.","contrary_outcome":"Transport is zero after a complete cycle.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0654","id":"S2-0654","volume":"900v2","title":"A reversible inhibitor should improve long-term catalyst output by preventing irreversible high-coverage aggregation.","prediction":"A reversible inhibitor should improve long-term catalyst output by preventing irreversible high-coverage aggregation.","test":"Measure aggregation and integrated yield.","contrary":"Inhibition only reduces total yield.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0654","prediction":"A reversible inhibitor should improve long-term catalyst output by preventing irreversible high-coverage aggregation.","feasible_test":"Measure aggregation and integrated yield.","contrary_outcome":"Inhibition only reduces total yield.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0655","id":"S2-0655","volume":"900v2","title":"A polymer-bound photoacid should retain a lateral pH pattern longer after mechanical compression lowers water mobility.","prediction":"A polymer-bound photoacid should retain a lateral pH pattern longer after mechanical compression lowers water mobility.","test":"Map pH decay and water diffusion.","contrary":"Pattern lifetime is compression-independent.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0655","prediction":"A polymer-bound photoacid should retain a lateral pH pattern longer after mechanical compression lowers water mobility.","feasible_test":"Map pH decay and water diffusion.","contrary_outcome":"Pattern lifetime is compression-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0656","id":"S2-0656","volume":"900v2","title":"A liquid-liquid reaction should produce directional recoil when an interfacial film breaks asymmetrically.","prediction":"A liquid-liquid reaction should produce directional recoil when an interfacial film breaks asymmetrically.","test":"Image rupture and droplet motion.","contrary":"Recoil follows external flow alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0656","prediction":"A liquid-liquid reaction should produce directional recoil when an interfacial film breaks asymmetrically.","feasible_test":"Image rupture and droplet motion.","contrary_outcome":"Recoil follows external flow alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0657","id":"S2-0657","volume":"900v2","title":"A confined precipitation reaction should stop before reagent exhaustion because its product sequesters water.","prediction":"A confined precipitation reaction should stop before reagent exhaustion because its product sequesters water.","test":"Measure free water and conversion.","contrary":"Reaction continues at unchanged free-water activity.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0657","prediction":"A confined precipitation reaction should stop before reagent exhaustion because its product sequesters water.","feasible_test":"Measure free water and conversion.","contrary_outcome":"Reaction continues at unchanged free-water activity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0658","id":"S2-0658","volume":"900v2","title":"A reactive aerosol analogue should develop internal phase separation before measurable net oxidation.","prediction":"A reactive aerosol analogue should develop internal phase separation before measurable net oxidation.","test":"Measure phase morphology and chemical conversion.","contrary":"Phase separation requires substantial oxidation.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0658","prediction":"A reactive aerosol analogue should develop internal phase separation before measurable net oxidation.","feasible_test":"Measure phase morphology and chemical conversion.","contrary_outcome":"Phase separation requires substantial oxidation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0659","id":"S2-0659","volume":"900v2","title":"A molecular catalyst should exhibit force-sensitive reversibility when its anchored ligand cannot rotate freely.","prediction":"A molecular catalyst should exhibit force-sensitive reversibility when its anchored ligand cannot rotate freely.","test":"Measure kinetics and ligand orientation.","contrary":"Anchoring orientation leaves reversibility unchanged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0659","prediction":"A molecular catalyst should exhibit force-sensitive reversibility when its anchored ligand cannot rotate freely.","feasible_test":"Measure kinetics and ligand orientation.","contrary_outcome":"Anchoring orientation leaves reversibility unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0660","id":"S2-0660","volume":"900v2","title":"An adsorption front should propagate as discrete jumps when pore-wall swelling intermittently blocks neighboring sites.","prediction":"An adsorption front should propagate as discrete jumps when pore-wall swelling intermittently blocks neighboring sites.","test":"Map uptake and aperture.","contrary":"Uptake remains continuous with no blocking events.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0660","prediction":"An adsorption front should propagate as discrete jumps when pore-wall swelling intermittently blocks neighboring sites.","feasible_test":"Map uptake and aperture.","contrary_outcome":"Uptake remains continuous with no blocking events.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0661","id":"S2-0661","volume":"900v2","title":"A plant leaf should retain a dry patch beside an open vein because local tissue collapse hydraulically isolates it.","prediction":"A plant leaf should retain a dry patch beside an open vein because local tissue collapse hydraulically isolates it.","test":"Map vein flow and tissue collapse.","contrary":"Dry patches remain hydraulically connected.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0661","prediction":"A plant leaf should retain a dry patch beside an open vein because local tissue collapse hydraulically isolates it.","feasible_test":"Map vein flow and tissue collapse.","contrary_outcome":"Dry patches remain hydraulically connected.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0662","id":"S2-0662","volume":"900v2","title":"A root sheath should reduce oxygen diffusion less than expected because drying creates radial gas channels.","prediction":"A root sheath should reduce oxygen diffusion less than expected because drying creates radial gas channels.","test":"Map channels and oxygen flux.","contrary":"Flux follows uniform water fraction alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0662","prediction":"A root sheath should reduce oxygen diffusion less than expected because drying creates radial gas channels.","feasible_test":"Map channels and oxygen flux.","contrary_outcome":"Flux follows uniform water fraction alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0663","id":"S2-0663","volume":"900v2","title":"A fungal network should change its mechanical load path after a branch junction is locally softened.","prediction":"A fungal network should change its mechanical load path after a branch junction is locally softened.","test":"Measure strain redistribution.","contrary":"Load paths remain unchanged.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0663","prediction":"A fungal network should change its mechanical load path after a branch junction is locally softened.","feasible_test":"Measure strain redistribution.","contrary_outcome":"Load paths remain unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0664","id":"S2-0664","volume":"900v2","title":"A seed coat should become permeable in waves as local swelling transfers stress to neighboring cells.","prediction":"A seed coat should become permeable in waves as local swelling transfers stress to neighboring cells.","test":"Track wetting and wall strain.","contrary":"Permeability onset is spatially independent.","layers":[1],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0664","prediction":"A seed coat should become permeable in waves as local swelling transfers stress to neighboring cells.","feasible_test":"Track wetting and wall strain.","contrary_outcome":"Permeability onset is spatially independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0665","id":"S2-0665","volume":"900v2","title":"A leaf margin should curl before its center during dehydration because edge evaporation shifts neutral-axis position.","prediction":"A leaf margin should curl before its center during dehydration because edge evaporation shifts neutral-axis position.","test":"Map water and curvature.","contrary":"Curling follows uniform tissue contraction.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0665","prediction":"A leaf margin should curl before its center during dehydration because edge evaporation shifts neutral-axis position.","feasible_test":"Map water and curvature.","contrary_outcome":"Curling follows uniform tissue contraction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0666","id":"S2-0666","volume":"900v2","title":"A wood knot should scatter drying stress into radial cracks before average shrinkage becomes measurable.","prediction":"A wood knot should scatter drying stress into radial cracks before average shrinkage becomes measurable.","test":"Map strain and crack onset.","contrary":"Cracks require measurable bulk shrinkage.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0666","prediction":"A wood knot should scatter drying stress into radial cracks before average shrinkage becomes measurable.","feasible_test":"Map strain and crack onset.","contrary_outcome":"Cracks require measurable bulk shrinkage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0667","id":"S2-0667","volume":"900v2","title":"A moss mat should retain capillary cohesion after surface drying through buried water bridges.","prediction":"A moss mat should retain capillary cohesion after surface drying through buried water bridges.","test":"Image internal water and tensile strength.","contrary":"Strength vanishes with surface water.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0667","prediction":"A moss mat should retain capillary cohesion after surface drying through buried water bridges.","feasible_test":"Image internal water and tensile strength.","contrary_outcome":"Strength vanishes with surface water.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0668","id":"S2-0668","volume":"900v2","title":"A fungal wall fragment should soften under cyclic bending through reversible hydration of stressed bonds.","prediction":"A fungal wall fragment should soften under cyclic bending through reversible hydration of stressed bonds.","test":"Measure water uptake and modulus.","contrary":"Softening persists in rigorously dry conditions equally.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0668","prediction":"A fungal wall fragment should soften under cyclic bending through reversible hydration of stressed bonds.","feasible_test":"Measure water uptake and modulus.","contrary_outcome":"Softening persists in rigorously dry conditions equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0669","id":"S2-0669","volume":"900v2","title":"A grass seed should orient its germination opening downward through humidity-driven mass redistribution alone.","prediction":"A grass seed should orient its germination opening downward through humidity-driven mass redistribution alone.","test":"Track nonviable seeds and internal water.","contrary":"Orientation requires biological growth.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0669","prediction":"A grass seed should orient its germination opening downward through humidity-driven mass redistribution alone.","feasible_test":"Track nonviable seeds and internal water.","contrary_outcome":"Orientation requires biological growth.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0670","id":"S2-0670","volume":"900v2","title":"A petal should show traveling color changes when air-space collapse propagates during compression.","prediction":"A petal should show traveling color changes when air-space collapse propagates during compression.","test":"Map scattering and void geometry.","contrary":"Color changes are spatially instantaneous.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0670","prediction":"A petal should show traveling color changes when air-space collapse propagates during compression.","feasible_test":"Map scattering and void geometry.","contrary_outcome":"Color changes are spatially instantaneous.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0671","id":"S2-0671","volume":"900v2","title":"A root cap should shed attached particles when its mucilage undergoes a local shear-thinning transition.","prediction":"A root cap should shed attached particles when its mucilage undergoes a local shear-thinning transition.","test":"Measure rheology and release.","contrary":"Release follows force magnitude alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0671","prediction":"A root cap should shed attached particles when its mucilage undergoes a local shear-thinning transition.","feasible_test":"Measure rheology and release.","contrary_outcome":"Release follows force magnitude alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0672","id":"S2-0672","volume":"900v2","title":"A fungal spore coating should buckle during drying into a pattern selected by local thickness defects.","prediction":"A fungal spore coating should buckle during drying into a pattern selected by local thickness defects.","test":"Map thickness and wrinkles.","contrary":"Patterns ignore measured defects.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0672","prediction":"A fungal spore coating should buckle during drying into a pattern selected by local thickness defects.","feasible_test":"Map thickness and wrinkles.","contrary_outcome":"Patterns ignore measured defects.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0673","id":"S2-0673","volume":"900v2","title":"A fern frond should resist progressive tearing through vein-bridge tension redistribution.","prediction":"A fern frond should resist progressive tearing through vein-bridge tension redistribution.","test":"Measure bridge forces and tear paths.","contrary":"Veins provide no redistribution before failure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0673","prediction":"A fern frond should resist progressive tearing through vein-bridge tension redistribution.","feasible_test":"Measure bridge forces and tear paths.","contrary_outcome":"Veins provide no redistribution before failure.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0674","id":"S2-0674","volume":"900v2","title":"A bark flake should collect water through repeated opening and closing during thermal cycles.","prediction":"A bark flake should collect water through repeated opening and closing during thermal cycles.","test":"Measure gaps and net uptake.","contrary":"Uptake is unchanged when motion is constrained.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0674","prediction":"A bark flake should collect water through repeated opening and closing during thermal cycles.","feasible_test":"Measure gaps and net uptake.","contrary_outcome":"Uptake is unchanged when motion is constrained.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0675","id":"S2-0675","volume":"900v2","title":"A seed hair mat should trap an air layer underwater until collective bending opens a vent.","prediction":"A seed hair mat should trap an air layer underwater until collective bending opens a vent.","test":"Image air and hair motion.","contrary":"Venting occurs without bending.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0675","prediction":"A seed hair mat should trap an air layer underwater until collective bending opens a vent.","feasible_test":"Image air and hair motion.","contrary_outcome":"Venting occurs without bending.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0676","id":"S2-0676","volume":"900v2","title":"A leaf vein should recoil nonuniformly after cutting because adjacent tissue carries residual compression.","prediction":"A leaf vein should recoil nonuniformly after cutting because adjacent tissue carries residual compression.","test":"Map pre-cut strain and recoil.","contrary":"Recoil follows vein tension alone.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0676","prediction":"A leaf vein should recoil nonuniformly after cutting because adjacent tissue carries residual compression.","feasible_test":"Map pre-cut strain and recoil.","contrary_outcome":"Recoil follows vein tension alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0677","id":"S2-0677","volume":"900v2","title":"A fungal sheet should show direction-dependent puncture resistance from aligned but freely sliding cords.","prediction":"A fungal sheet should show direction-dependent puncture resistance from aligned but freely sliding cords.","test":"Measure orientation and puncture energy.","contrary":"Resistance becomes isotropic after thickness correction.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0677","prediction":"A fungal sheet should show direction-dependent puncture resistance from aligned but freely sliding cords.","feasible_test":"Measure orientation and puncture energy.","contrary_outcome":"Resistance becomes isotropic after thickness correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0678","id":"S2-0678","volume":"900v2","title":"A root exudate gel should redistribute fine particles toward its drying boundary through contraction-driven flow.","prediction":"A root exudate gel should redistribute fine particles toward its drying boundary through contraction-driven flow.","test":"Track particles and gel motion.","contrary":"Particles remain uniformly distributed.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0678","prediction":"A root exudate gel should redistribute fine particles toward its drying boundary through contraction-driven flow.","feasible_test":"Track particles and gel motion.","contrary_outcome":"Particles remain uniformly distributed.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0679","id":"S2-0679","volume":"900v2","title":"A plant epidermis should retain a wrinkle pattern after plasmolysis because wall junctions pin folds.","prediction":"A plant epidermis should retain a wrinkle pattern after plasmolysis because wall junctions pin folds.","test":"Image junctions and rehydration.","contrary":"Wrinkles erase without junction-dependent delay.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0679","prediction":"A plant epidermis should retain a wrinkle pattern after plasmolysis because wall junctions pin folds.","feasible_test":"Image junctions and rehydration.","contrary_outcome":"Wrinkles erase without junction-dependent delay.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0680","id":"S2-0680","volume":"900v2","title":"A dead leaf should pivot under dew loading when droplet coalescence shifts mass abruptly.","prediction":"A dead leaf should pivot under dew loading when droplet coalescence shifts mass abruptly.","test":"Track droplets and angular motion.","contrary":"Motion follows smooth mass increase only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0680","prediction":"A dead leaf should pivot under dew loading when droplet coalescence shifts mass abruptly.","feasible_test":"Track droplets and angular motion.","contrary_outcome":"Motion follows smooth mass increase only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0681","id":"S2-0681","volume":"900v2","title":"A cut fungal cord should reseal hydraulically through collapse of an elastic sheath.","prediction":"A cut fungal cord should reseal hydraulically through collapse of an elastic sheath.","test":"Measure leakage and sheath diameter.","contrary":"Sealing requires later biological repair.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0681","prediction":"A cut fungal cord should reseal hydraulically through collapse of an elastic sheath.","feasible_test":"Measure leakage and sheath diameter.","contrary_outcome":"Sealing requires later biological repair.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0682","id":"S2-0682","volume":"900v2","title":"A cellulose membrane should absorb directional sound more strongly after tension aligns its pores.","prediction":"A cellulose membrane should absorb directional sound more strongly after tension aligns its pores.","test":"Measure pore geometry and attenuation.","contrary":"Attenuation follows tension alone.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0682","prediction":"A cellulose membrane should absorb directional sound more strongly after tension aligns its pores.","feasible_test":"Measure pore geometry and attenuation.","contrary_outcome":"Attenuation follows tension alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0683","id":"S2-0683","volume":"900v2","title":"A pine needle bundle should drain faster after twisting creates continuous inter-needle gutters.","prediction":"A pine needle bundle should drain faster after twisting creates continuous inter-needle gutters.","test":"Measure gutter connectivity and outflow.","contrary":"Drainage is twist-independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0683","prediction":"A pine needle bundle should drain faster after twisting creates continuous inter-needle gutters.","feasible_test":"Measure gutter connectivity and outflow.","contrary_outcome":"Drainage is twist-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0684","id":"S2-0684","volume":"900v2","title":"A seed coat should fracture less during imbibition when its outer wrinkles flatten before inner swelling.","prediction":"A seed coat should fracture less during imbibition when its outer wrinkles flatten before inner swelling.","test":"Measure wrinkle and crack timing.","contrary":"Flattening has no protective association.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0684","prediction":"A seed coat should fracture less during imbibition when its outer wrinkles flatten before inner swelling.","feasible_test":"Measure wrinkle and crack timing.","contrary_outcome":"Flattening has no protective association.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0685","id":"S2-0685","volume":"900v2","title":"A moss capsule should regulate spore release through rate-dependent opening mechanics.","prediction":"A moss capsule should regulate spore release through rate-dependent opening mechanics.","test":"Measure aperture under humidity ramps.","contrary":"Opening depends only on final humidity.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0685","prediction":"A moss capsule should regulate spore release through rate-dependent opening mechanics.","feasible_test":"Measure aperture under humidity ramps.","contrary_outcome":"Opening depends only on final humidity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0686","id":"S2-0686","volume":"900v2","title":"A fungal gill should resist collapse through trapped air during rapid immersion.","prediction":"A fungal gill should resist collapse through trapped air during rapid immersion.","test":"Compare degassed and untreated gills.","contrary":"Collapse threshold is gas-independent.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0686","prediction":"A fungal gill should resist collapse through trapped air during rapid immersion.","feasible_test":"Compare degassed and untreated gills.","contrary_outcome":"Collapse threshold is gas-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0687","id":"S2-0687","volume":"900v2","title":"A leaf skeleton should distribute impact energy through sequential joint rotation.","prediction":"A leaf skeleton should distribute impact energy through sequential joint rotation.","test":"Measure joint motion and force.","contrary":"Energy dissipation is explained by beam bending alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0687","prediction":"A leaf skeleton should distribute impact energy through sequential joint rotation.","feasible_test":"Measure joint motion and force.","contrary_outcome":"Energy dissipation is explained by beam bending alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0688","id":"S2-0688","volume":"900v2","title":"A root fiber should pull free from wet sediment by progressive contact peeling.","prediction":"A root fiber should pull free from wet sediment by progressive contact peeling.","test":"Image contacts and extraction force.","contrary":"Contacts fail simultaneously.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0688","prediction":"A root fiber should pull free from wet sediment by progressive contact peeling.","feasible_test":"Image contacts and extraction force.","contrary_outcome":"Contacts fail simultaneously.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0689","id":"S2-0689","volume":"900v2","title":"A dried fruit shell should change its resonant frequency before seam opening because hinge stiffness falls locally.","prediction":"A dried fruit shell should change its resonant frequency before seam opening because hinge stiffness falls locally.","test":"Measure modes and seam strain.","contrary":"Frequency shifts begin after opening.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0689","prediction":"A dried fruit shell should change its resonant frequency before seam opening because hinge stiffness falls locally.","feasible_test":"Measure modes and seam strain.","contrary_outcome":"Frequency shifts begin after opening.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0690","id":"S2-0690","volume":"900v2","title":"A plant wax film should recover water repellency after mild heating redistributes material into damaged regions.","prediction":"A plant wax film should recover water repellency after mild heating redistributes material into damaged regions.","test":"Map wax and wetting.","contrary":"Recovery occurs without wax redistribution.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0690","prediction":"A plant wax film should recover water repellency after mild heating redistributes material into damaged regions.","feasible_test":"Map wax and wetting.","contrary_outcome":"Recovery occurs without wax redistribution.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0691","id":"S2-0691","volume":"900v2","title":"A closed acoustic cavity should exhibit frequency wandering from slow adsorption-induced wall stress.","prediction":"A closed acoustic cavity should exhibit frequency wandering from slow adsorption-induced wall stress.","test":"Measure adsorption and resonance.","contrary":"Wandering remains after adsorption suppression.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0691","prediction":"A closed acoustic cavity should exhibit frequency wandering from slow adsorption-induced wall stress.","feasible_test":"Measure adsorption and resonance.","contrary_outcome":"Wandering remains after adsorption suppression.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0692","id":"S2-0692","volume":"900v2","title":"A thermal microbridge should detect a hidden fluid leak through asymmetric cooling before pressure falls.","prediction":"A thermal microbridge should detect a hidden fluid leak through asymmetric cooling before pressure falls.","test":"Measure temperature and leakage.","contrary":"Cooling onset follows pressure decline.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0692","prediction":"A thermal microbridge should detect a hidden fluid leak through asymmetric cooling before pressure falls.","feasible_test":"Measure temperature and leakage.","contrary_outcome":"Cooling onset follows pressure decline.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0693","id":"S2-0693","volume":"900v2","title":"A compliant optical mask should convert surface shear into a readable handed diffraction pattern.","prediction":"A compliant optical mask should convert surface shear into a readable handed diffraction pattern.","test":"Apply mirrored shear and measure diffraction.","contrary":"Handedness fails to reverse.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0693","prediction":"A compliant optical mask should convert surface shear into a readable handed diffraction pattern.","feasible_test":"Apply mirrored shear and measure diffraction.","contrary_outcome":"Handedness fails to reverse.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0694","id":"S2-0694","volume":"900v2","title":"A particle bed should show a dielectric precursor to jamming as contact capacitances become correlated.","prediction":"A particle bed should show a dielectric precursor to jamming as contact capacitances become correlated.","test":"Measure capacitance and force networks.","contrary":"Correlation appears only after jamming.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0694","prediction":"A particle bed should show a dielectric precursor to jamming as contact capacitances become correlated.","feasible_test":"Measure capacitance and force networks.","contrary_outcome":"Correlation appears only after jamming.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0695","id":"S2-0695","volume":"900v2","title":"A capillary sensor should discriminate oil contamination through contact-line relaxation rather than equilibrium angle.","prediction":"A capillary sensor should discriminate oil contamination through contact-line relaxation rather than equilibrium angle.","test":"Measure relaxation on blinded surfaces.","contrary":"Relaxation adds no discrimination.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0695","prediction":"A capillary sensor should discriminate oil contamination through contact-line relaxation rather than equilibrium angle.","feasible_test":"Measure relaxation on blinded surfaces.","contrary_outcome":"Relaxation adds no discrimination.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0696","id":"S2-0696","volume":"900v2","title":"A thin-film balance should identify entrained gas through amplitude-dependent inertial loading.","prediction":"A thin-film balance should identify entrained gas through amplitude-dependent inertial loading.","test":"Measure response across amplitudes.","contrary":"Gas and liquid loads remain indistinguishable.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0696","prediction":"A thin-film balance should identify entrained gas through amplitude-dependent inertial loading.","feasible_test":"Measure response across amplitudes.","contrary_outcome":"Gas and liquid loads remain indistinguishable.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0697","id":"S2-0697","volume":"900v2","title":"A fluorescence sensor should report local compression through dye rotational anisotropy before concentration changes.","prediction":"A fluorescence sensor should report local compression through dye rotational anisotropy before concentration changes.","test":"Measure anisotropy and concentration.","contrary":"Signal follows concentration alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0697","prediction":"A fluorescence sensor should report local compression through dye rotational anisotropy before concentration changes.","feasible_test":"Measure anisotropy and concentration.","contrary_outcome":"Signal follows concentration alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0698","id":"S2-0698","volume":"900v2","title":"A soft pressure patch should resolve load direction through asymmetric relaxation tails.","prediction":"A soft pressure patch should resolve load direction through asymmetric relaxation tails.","test":"Calibrate equal loads from different directions.","contrary":"Tails remain direction-independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0698","prediction":"A soft pressure patch should resolve load direction through asymmetric relaxation tails.","feasible_test":"Calibrate equal loads from different directions.","contrary_outcome":"Tails remain direction-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0699","id":"S2-0699","volume":"900v2","title":"A porous sound sensor should distinguish flooding from mechanical blockage through mode-dependent damping.","prediction":"A porous sound sensor should distinguish flooding from mechanical blockage through mode-dependent damping.","test":"Compare known blockage states.","contrary":"Damping signatures overlap completely.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0699","prediction":"A porous sound sensor should distinguish flooding from mechanical blockage through mode-dependent damping.","feasible_test":"Compare known blockage states.","contrary_outcome":"Damping signatures overlap completely.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0700","id":"S2-0700","volume":"900v2","title":"A resonant fiber should detect an attached droplet's evaporation mode through frequency-noise statistics.","prediction":"A resonant fiber should detect an attached droplet's evaporation mode through frequency-noise statistics.","test":"Image contact lines and record noise.","contrary":"Noise cannot separate pinned and receding modes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0700","prediction":"A resonant fiber should detect an attached droplet's evaporation mode through frequency-noise statistics.","feasible_test":"Image contact lines and record noise.","contrary_outcome":"Noise cannot separate pinned and receding modes.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0701","id":"S2-0701","volume":"900v2","title":"A microwave cavity should distinguish bound from mobile water using joint loss and frequency shifts.","prediction":"A microwave cavity should distinguish bound from mobile water using joint loss and frequency shifts.","test":"Calibrate independently verified states.","contrary":"Signals remain degenerate.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0701","prediction":"A microwave cavity should distinguish bound from mobile water using joint loss and frequency shifts.","feasible_test":"Calibrate independently verified states.","contrary_outcome":"Signals remain degenerate.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0702","id":"S2-0702","volume":"900v2","title":"A flexible photodetector mount should reduce motion artifacts through a mechanically delayed reference channel.","prediction":"A flexible photodetector mount should reduce motion artifacts through a mechanically delayed reference channel.","test":"Test controlled vibration and light pulses.","contrary":"Correction removes real optical signals equally.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0702","prediction":"A flexible photodetector mount should reduce motion artifacts through a mechanically delayed reference channel.","feasible_test":"Test controlled vibration and light pulses.","contrary_outcome":"Correction removes real optical signals equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0703","id":"S2-0703","volume":"900v2","title":"A microthermal sensor should detect pore connectivity through the decay shape of a heat pulse.","prediction":"A microthermal sensor should detect pore connectivity through the decay shape of a heat pulse.","test":"Compare imaged networks at equal porosity.","contrary":"Decay depends only on total porosity.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0703","prediction":"A microthermal sensor should detect pore connectivity through the decay shape of a heat pulse.","feasible_test":"Compare imaged networks at equal porosity.","contrary_outcome":"Decay depends only on total porosity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0704","id":"S2-0704","volume":"900v2","title":"A noncontact vibrometer should reveal adhesive debonding through local phase discontinuities.","prediction":"A noncontact vibrometer should reveal adhesive debonding through local phase discontinuities.","test":"Compare phase maps and peel sections.","contrary":"Discontinuities do not predict debonding.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0704","prediction":"A noncontact vibrometer should reveal adhesive debonding through local phase discontinuities.","feasible_test":"Compare phase maps and peel sections.","contrary_outcome":"Discontinuities do not predict debonding.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0705","id":"S2-0705","volume":"900v2","title":"A gas sensor coating should recover faster when mechanical pulses dislodge condensed solvent clusters.","prediction":"A gas sensor coating should recover faster when mechanical pulses dislodge condensed solvent clusters.","test":"Measure clusters and sensor baseline.","contrary":"Recovery is unchanged after cluster removal.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0705","prediction":"A gas sensor coating should recover faster when mechanical pulses dislodge condensed solvent clusters.","feasible_test":"Measure clusters and sensor baseline.","contrary_outcome":"Recovery is unchanged after cluster removal.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0706","id":"S2-0706","volume":"900v2","title":"A surface-potential probe should distinguish ionic contamination from trapped electronic charge through humidity-dependent relaxation.","prediction":"A surface-potential probe should distinguish ionic contamination from trapped electronic charge through humidity-dependent relaxation.","test":"Measure calibrated contaminants.","contrary":"Relaxation pathways remain indistinguishable.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0706","prediction":"A surface-potential probe should distinguish ionic contamination from trapped electronic charge through humidity-dependent relaxation.","feasible_test":"Measure calibrated contaminants.","contrary_outcome":"Relaxation pathways remain indistinguishable.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0707","id":"S2-0707","volume":"900v2","title":"A compressible optical cavity should measure fluid viscosity through its rebound waveform.","prediction":"A compressible optical cavity should measure fluid viscosity through its rebound waveform.","test":"Calibrate viscosity and density independently.","contrary":"Rebound depends only on density.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0707","prediction":"A compressible optical cavity should measure fluid viscosity through its rebound waveform.","feasible_test":"Calibrate viscosity and density independently.","contrary_outcome":"Rebound depends only on density.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0708","id":"S2-0708","volume":"900v2","title":"A capillary array should detect crystallization onset through correlated meniscus motion.","prediction":"A capillary array should detect crystallization onset through correlated meniscus motion.","test":"Image crystal and menisci.","contrary":"Correlation begins only after bulk blockage.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0708","prediction":"A capillary array should detect crystallization onset through correlated meniscus motion.","feasible_test":"Image crystal and menisci.","contrary_outcome":"Correlation begins only after bulk blockage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0709","id":"S2-0709","volume":"900v2","title":"A thin piezoelectric film should detect granular contact rearrangement through high-order voltage cumulants.","prediction":"A thin piezoelectric film should detect granular contact rearrangement through high-order voltage cumulants.","test":"Compare electrical statistics and imaging.","contrary":"Statistics add no event specificity.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0709","prediction":"A thin piezoelectric film should detect granular contact rearrangement through high-order voltage cumulants.","feasible_test":"Compare electrical statistics and imaging.","contrary_outcome":"Statistics add no event specificity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0710","id":"S2-0710","volume":"900v2","title":"A dielectric film should reveal subsurface moisture gradients through asymmetric charging transients.","prediction":"A dielectric film should reveal subsurface moisture gradients through asymmetric charging transients.","test":"Reverse sample orientation and measure profiles.","contrary":"Transients remain symmetric.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0710","prediction":"A dielectric film should reveal subsurface moisture gradients through asymmetric charging transients.","feasible_test":"Reverse sample orientation and measure profiles.","contrary_outcome":"Transients remain symmetric.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0711","id":"S2-0711","volume":"900v2","title":"A laser-speckle assay should distinguish surface slip from internal shear using two illumination depths.","prediction":"A laser-speckle assay should distinguish surface slip from internal shear using two illumination depths.","test":"Test transparent mechanical phantoms.","contrary":"Depth signals cannot separate motions.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0711","prediction":"A laser-speckle assay should distinguish surface slip from internal shear using two illumination depths.","feasible_test":"Test transparent mechanical phantoms.","contrary_outcome":"Depth signals cannot separate motions.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0712","id":"S2-0712","volume":"900v2","title":"An impedance sensor should measure pore opening kinetics without confusing them with electrolyte concentration by using phase trajectories.","prediction":"An impedance sensor should measure pore opening kinetics without confusing them with electrolyte concentration by using phase trajectories.","test":"Calibrate both processes.","contrary":"Trajectories remain overlapping.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0712","prediction":"An impedance sensor should measure pore opening kinetics without confusing them with electrolyte concentration by using phase trajectories.","feasible_test":"Calibrate both processes.","contrary_outcome":"Trajectories remain overlapping.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0713","id":"S2-0713","volume":"900v2","title":"A thermal lens should reveal internal convection onset before visible particle motion.","prediction":"A thermal lens should reveal internal convection onset before visible particle motion.","test":"Measure focal shifts and flow.","contrary":"Focal changes follow temperature alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0713","prediction":"A thermal lens should reveal internal convection onset before visible particle motion.","feasible_test":"Measure focal shifts and flow.","contrary_outcome":"Focal changes follow temperature alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0714","id":"S2-0714","volume":"900v2","title":"A microcantilever should identify a drying skin through coupled mass and stiffness transients.","prediction":"A microcantilever should identify a drying skin through coupled mass and stiffness transients.","test":"Image skin and measure modes.","contrary":"Signals cannot distinguish skin formation.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0714","prediction":"A microcantilever should identify a drying skin through coupled mass and stiffness transients.","feasible_test":"Image skin and measure modes.","contrary_outcome":"Signals cannot distinguish skin formation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0715","id":"S2-0715","volume":"900v2","title":"A colorimetric membrane should preserve pulse order when two reagents penetrate at unequal speeds.","prediction":"A colorimetric membrane should preserve pulse order when two reagents penetrate at unequal speeds.","test":"Apply reversed sequences and map color.","contrary":"Final patterns are sequence-independent.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0715","prediction":"A colorimetric membrane should preserve pulse order when two reagents penetrate at unequal speeds.","feasible_test":"Apply reversed sequences and map color.","contrary_outcome":"Final patterns are sequence-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0716","id":"S2-0716","volume":"900v2","title":"A flexible magnetic sensor should detect fatigue through changes in stress-induced domain noise.","prediction":"A flexible magnetic sensor should detect fatigue through changes in stress-induced domain noise.","test":"Measure noise and crack initiation.","contrary":"Noise adds no early warning.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0716","prediction":"A flexible magnetic sensor should detect fatigue through changes in stress-induced domain noise.","feasible_test":"Measure noise and crack initiation.","contrary_outcome":"Noise adds no early warning.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0717","id":"S2-0717","volume":"900v2","title":"A porous humidity sensor should exhibit a recovery overshoot when hidden reservoirs desorb after its surface dries.","prediction":"A porous humidity sensor should exhibit a recovery overshoot when hidden reservoirs desorb after its surface dries.","test":"Map internal water and output.","contrary":"Output returns monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0717","prediction":"A porous humidity sensor should exhibit a recovery overshoot when hidden reservoirs desorb after its surface dries.","feasible_test":"Map internal water and output.","contrary_outcome":"Output returns monotonically.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0718","id":"S2-0718","volume":"900v2","title":"A suspended optical film should measure droplet adhesion through vibration-induced contact-line phase lag.","prediction":"A suspended optical film should measure droplet adhesion through vibration-induced contact-line phase lag.","test":"Compare independent adhesion tests.","contrary":"Phase lag is adhesion-independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0718","prediction":"A suspended optical film should measure droplet adhesion through vibration-induced contact-line phase lag.","feasible_test":"Compare independent adhesion tests.","contrary_outcome":"Phase lag is adhesion-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0719","id":"S2-0719","volume":"900v2","title":"A microfluidic calorimeter should resolve mixing heat separately from reaction heat through spatially separated temperature maxima.","prediction":"A microfluidic calorimeter should resolve mixing heat separately from reaction heat through spatially separated temperature maxima.","test":"Map controls and full reaction.","contrary":"Maxima remain inseparable.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0719","prediction":"A microfluidic calorimeter should resolve mixing heat separately from reaction heat through spatially separated temperature maxima.","feasible_test":"Map controls and full reaction.","contrary_outcome":"Maxima remain inseparable.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0720","id":"S2-0720","volume":"900v2","title":"A photothermal acoustic assay should detect buried gas pockets through pulse-shape asymmetry.","prediction":"A photothermal acoustic assay should detect buried gas pockets through pulse-shape asymmetry.","test":"Test blinded pocket phantoms.","contrary":"Asymmetry cannot identify pockets.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0720","prediction":"A photothermal acoustic assay should detect buried gas pockets through pulse-shape asymmetry.","feasible_test":"Test blinded pocket phantoms.","contrary_outcome":"Asymmetry cannot identify pockets.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0721","id":"S2-0721","volume":"900v2","title":"An evaporating droplet should form a central void when its elastic skin traps a retreating liquid interface.","prediction":"An evaporating droplet should form a central void when its elastic skin traps a retreating liquid interface.","test":"Image skin and liquid boundary.","contrary":"Drying leaves no skin-supported void.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0721","prediction":"An evaporating droplet should form a central void when its elastic skin traps a retreating liquid interface.","feasible_test":"Image skin and liquid boundary.","contrary_outcome":"Drying leaves no skin-supported void.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0722","id":"S2-0722","volume":"900v2","title":"A foam should transmit salt faster along Plateau borders than predicted from liquid fraction alone.","prediction":"A foam should transmit salt faster along Plateau borders than predicted from liquid fraction alone.","test":"Measure tracer transport and border geometry.","contrary":"Transport follows liquid fraction only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0722","prediction":"A foam should transmit salt faster along Plateau borders than predicted from liquid fraction alone.","feasible_test":"Measure tracer transport and border geometry.","contrary_outcome":"Transport follows liquid fraction only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0723","id":"S2-0723","volume":"900v2","title":"A confined emulsion should unjam through collective droplet rotations before translation begins.","prediction":"A confined emulsion should unjam through collective droplet rotations before translation begins.","test":"Track rotations and displacement.","contrary":"Translation precedes rotational coordination.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0723","prediction":"A confined emulsion should unjam through collective droplet rotations before translation begins.","feasible_test":"Track rotations and displacement.","contrary_outcome":"Translation precedes rotational coordination.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0724","id":"S2-0724","volume":"900v2","title":"A bubble raft should support a localized indentation through tensile capillary chains.","prediction":"A bubble raft should support a localized indentation through tensile capillary chains.","test":"Map interface forces and deformation.","contrary":"Load spreads as a homogeneous membrane.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0724","prediction":"A bubble raft should support a localized indentation through tensile capillary chains.","feasible_test":"Map interface forces and deformation.","contrary_outcome":"Load spreads as a homogeneous membrane.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0725","id":"S2-0725","volume":"900v2","title":"A liquid plug should divide unevenly at a symmetric fork when wall wetting has unequal age.","prediction":"A liquid plug should divide unevenly at a symmetric fork when wall wetting has unequal age.","test":"Control age and measure branch volumes.","contrary":"Division remains equal.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0725","prediction":"A liquid plug should divide unevenly at a symmetric fork when wall wetting has unequal age.","feasible_test":"Control age and measure branch volumes.","contrary_outcome":"Division remains equal.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0726","id":"S2-0726","volume":"900v2","title":"A spinning film should develop stationary thickness bands when solvent viscosity rises sharply during evaporation.","prediction":"A spinning film should develop stationary thickness bands when solvent viscosity rises sharply during evaporation.","test":"Map thickness and composition.","contrary":"Bands require external vibration.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0726","prediction":"A spinning film should develop stationary thickness bands when solvent viscosity rises sharply during evaporation.","feasible_test":"Map thickness and composition.","contrary_outcome":"Bands require external vibration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0727","id":"S2-0727","volume":"900v2","title":"A droplet should cross a wettability barrier through elastic substrate recoil after temporary pinning.","prediction":"A droplet should cross a wettability barrier through elastic substrate recoil after temporary pinning.","test":"Measure strain release and motion.","contrary":"Crossing occurs without recoil.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0727","prediction":"A droplet should cross a wettability barrier through elastic substrate recoil after temporary pinning.","feasible_test":"Measure strain release and motion.","contrary_outcome":"Crossing occurs without recoil.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0728","id":"S2-0728","volume":"900v2","title":"A capillary suspension should retain stress after bridge rupture through particle interlocking.","prediction":"A capillary suspension should retain stress after bridge rupture through particle interlocking.","test":"Measure bridges and residual modulus.","contrary":"Modulus vanishes with bridge connectivity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0728","prediction":"A capillary suspension should retain stress after bridge rupture through particle interlocking.","feasible_test":"Measure bridges and residual modulus.","contrary_outcome":"Modulus vanishes with bridge connectivity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0729","id":"S2-0729","volume":"900v2","title":"A wet elastic mesh should transport droplets against a weak slope through traveling pore contraction.","prediction":"A wet elastic mesh should transport droplets against a weak slope through traveling pore contraction.","test":"Measure droplet motion and pore phase.","contrary":"Transport follows gravity alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0729","prediction":"A wet elastic mesh should transport droplets against a weak slope through traveling pore contraction.","feasible_test":"Measure droplet motion and pore phase.","contrary_outcome":"Transport follows gravity alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0730","id":"S2-0730","volume":"900v2","title":"A liquid jet should suppress breakup when a soluble polymer accumulates at extensional necks.","prediction":"A liquid jet should suppress breakup when a soluble polymer accumulates at extensional necks.","test":"Map polymer and neck dynamics.","contrary":"Suppression occurs without neck enrichment.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0730","prediction":"A liquid jet should suppress breakup when a soluble polymer accumulates at extensional necks.","feasible_test":"Map polymer and neck dynamics.","contrary_outcome":"Suppression occurs without neck enrichment.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0731","id":"S2-0731","volume":"900v2","title":"A low-viscosity core should speed drainage of a viscous droplet when deformation opens an internal circulation path.","prediction":"A low-viscosity core should speed drainage of a viscous droplet when deformation opens an internal circulation path.","test":"Image flow and film thickness.","contrary":"Drainage remains core-independent.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0731","prediction":"A low-viscosity core should speed drainage of a viscous droplet when deformation opens an internal circulation path.","feasible_test":"Image flow and film thickness.","contrary_outcome":"Drainage remains core-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0732","id":"S2-0732","volume":"900v2","title":"An air film should survive under a falling droplet longer on a viscoelastic than elastic matched surface.","prediction":"An air film should survive under a falling droplet longer on a viscoelastic than elastic matched surface.","test":"Measure air-film lifetime.","contrary":"Lifetime follows static modulus alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0732","prediction":"An air film should survive under a falling droplet longer on a viscoelastic than elastic matched surface.","feasible_test":"Measure air-film lifetime.","contrary_outcome":"Lifetime follows static modulus alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0733","id":"S2-0733","volume":"900v2","title":"A porous capillary should draw liquid in bursts when pore-wall snap-through changes suction.","prediction":"A porous capillary should draw liquid in bursts when pore-wall snap-through changes suction.","test":"Synchronize wall shape and uptake.","contrary":"Uptake bursts lack snap-through events.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0733","prediction":"A porous capillary should draw liquid in bursts when pore-wall snap-through changes suction.","feasible_test":"Synchronize wall shape and uptake.","contrary_outcome":"Uptake bursts lack snap-through events.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0734","id":"S2-0734","volume":"900v2","title":"A fluid interface should carry an elastic wave along a jammed particle band.","prediction":"A fluid interface should carry an elastic wave along a jammed particle band.","test":"Measure propagation and particle contacts.","contrary":"Response remains purely viscous.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0734","prediction":"A fluid interface should carry an elastic wave along a jammed particle band.","feasible_test":"Measure propagation and particle contacts.","contrary_outcome":"Response remains purely viscous.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0735","id":"S2-0735","volume":"900v2","title":"A draining foam should concentrate particles at junctions before bulk liquid loss becomes measurable.","prediction":"A draining foam should concentrate particles at junctions before bulk liquid loss becomes measurable.","test":"Image particles and gravimetric drainage.","contrary":"Concentration changes require bulk drainage.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0735","prediction":"A draining foam should concentrate particles at junctions before bulk liquid loss becomes measurable.","feasible_test":"Image particles and gravimetric drainage.","contrary_outcome":"Concentration changes require bulk drainage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0736","id":"S2-0736","volume":"900v2","title":"A droplet collision should eject a satellite preferentially toward the more slowly relaxing surface.","prediction":"A droplet collision should eject a satellite preferentially toward the more slowly relaxing surface.","test":"Measure relaxation and satellite direction.","contrary":"Ejection is directionally random.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0736","prediction":"A droplet collision should eject a satellite preferentially toward the more slowly relaxing surface.","feasible_test":"Measure relaxation and satellite direction.","contrary_outcome":"Ejection is directionally random.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0737","id":"S2-0737","volume":"900v2","title":"A thin liquid bridge should resist separation when adsorbed polymers span its narrowing neck.","prediction":"A thin liquid bridge should resist separation when adsorbed polymers span its narrowing neck.","test":"Measure force and polymer orientation.","contrary":"Resistance follows solvent viscosity alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0737","prediction":"A thin liquid bridge should resist separation when adsorbed polymers span its narrowing neck.","feasible_test":"Measure force and polymer orientation.","contrary_outcome":"Resistance follows solvent viscosity alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0738","id":"S2-0738","volume":"900v2","title":"A capillary network should route liquid through a longer path when the shorter path traps compressible gas.","prediction":"A capillary network should route liquid through a longer path when the shorter path traps compressible gas.","test":"Image fronts and gas pressure.","contrary":"Shortest paths always fill first.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0738","prediction":"A capillary network should route liquid through a longer path when the shorter path traps compressible gas.","feasible_test":"Image fronts and gas pressure.","contrary_outcome":"Shortest paths always fill first.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0739","id":"S2-0739","volume":"900v2","title":"A wetting front should accelerate after merging with a neighboring front through pressure equalization.","prediction":"A wetting front should accelerate after merging with a neighboring front through pressure equalization.","test":"Measure speed around controlled mergers.","contrary":"Speed changes follow geometry alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0739","prediction":"A wetting front should accelerate after merging with a neighboring front through pressure equalization.","feasible_test":"Measure speed around controlled mergers.","contrary_outcome":"Speed changes follow geometry alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0740","id":"S2-0740","volume":"900v2","title":"A liquid-coated fiber should transport droplets by periodic radial swelling without axial motion.","prediction":"A liquid-coated fiber should transport droplets by periodic radial swelling without axial motion.","test":"Track droplet displacement and diameter.","contrary":"Net transport remains zero.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0740","prediction":"A liquid-coated fiber should transport droplets by periodic radial swelling without axial motion.","feasible_test":"Track droplet displacement and diameter.","contrary_outcome":"Net transport remains zero.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0741","id":"S2-0741","volume":"900v2","title":"A viscous bubble should leave a temporary lubricating corridor that guides a following bubble.","prediction":"A viscous bubble should leave a temporary lubricating corridor that guides a following bubble.","test":"Measure trajectories and wall films.","contrary":"Following trajectories ignore film history.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0741","prediction":"A viscous bubble should leave a temporary lubricating corridor that guides a following bubble.","feasible_test":"Measure trajectories and wall films.","contrary_outcome":"Following trajectories ignore film history.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0742","id":"S2-0742","volume":"900v2","title":"A confined suspension should form reversible particle lanes under oscillatory squeeze flow.","prediction":"A confined suspension should form reversible particle lanes under oscillatory squeeze flow.","test":"Map trajectories and lane structure.","contrary":"Lanes require net directional flow.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0742","prediction":"A confined suspension should form reversible particle lanes under oscillatory squeeze flow.","feasible_test":"Map trajectories and lane structure.","contrary_outcome":"Lanes require net directional flow.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0743","id":"S2-0743","volume":"900v2","title":"A liquid lens should become mechanically stable after particles migrate into its rim.","prediction":"A liquid lens should become mechanically stable after particles migrate into its rim.","test":"Track particles and shape fluctuations.","contrary":"Stability is rim-loading independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0743","prediction":"A liquid lens should become mechanically stable after particles migrate into its rim.","feasible_test":"Track particles and shape fluctuations.","contrary_outcome":"Stability is rim-loading independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0744","id":"S2-0744","volume":"900v2","title":"A wetting ridge should move ahead of a droplet during rapid substrate swelling.","prediction":"A wetting ridge should move ahead of a droplet during rapid substrate swelling.","test":"Measure ridge and contact-line positions.","contrary":"Ridge remains attached to the line.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0744","prediction":"A wetting ridge should move ahead of a droplet during rapid substrate swelling.","feasible_test":"Measure ridge and contact-line positions.","contrary_outcome":"Ridge remains attached to the line.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0745","id":"S2-0745","volume":"900v2","title":"A surfactant-rich film should repair a local thinning defect through lateral elastic stress.","prediction":"A surfactant-rich film should repair a local thinning defect through lateral elastic stress.","test":"Map thickness and surface velocity.","contrary":"Repair follows capillary pressure alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0745","prediction":"A surfactant-rich film should repair a local thinning defect through lateral elastic stress.","feasible_test":"Map thickness and surface velocity.","contrary_outcome":"Repair follows capillary pressure alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0746","id":"S2-0746","volume":"900v2","title":"A gas pocket should migrate through a soft solid under cyclic compression via asymmetric cavity opening.","prediction":"A gas pocket should migrate through a soft solid under cyclic compression via asymmetric cavity opening.","test":"Track pocket and strain.","contrary":"Pocket returns each cycle.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0746","prediction":"A gas pocket should migrate through a soft solid under cyclic compression via asymmetric cavity opening.","feasible_test":"Track pocket and strain.","contrary_outcome":"Pocket returns each cycle.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0747","id":"S2-0747","volume":"900v2","title":"A droplet should retain a deformed contact footprint after unloading because surface molecules reorganize slowly.","prediction":"A droplet should retain a deformed contact footprint after unloading because surface molecules reorganize slowly.","test":"Map footprint and surface composition.","contrary":"Footprint recovers before reorganization.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0747","prediction":"A droplet should retain a deformed contact footprint after unloading because surface molecules reorganize slowly.","feasible_test":"Map footprint and surface composition.","contrary_outcome":"Footprint recovers before reorganization.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0748","id":"S2-0748","volume":"900v2","title":"A nonuniform liquid film should generate a measurable voltage through ion-selective evaporation at its thinnest region.","prediction":"A nonuniform liquid film should generate a measurable voltage through ion-selective evaporation at its thinnest region.","test":"Measure potential and ion flux.","contrary":"Voltage vanishes after thermal corrections.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0748","prediction":"A nonuniform liquid film should generate a measurable voltage through ion-selective evaporation at its thinnest region.","feasible_test":"Measure potential and ion flux.","contrary_outcome":"Voltage vanishes after thermal corrections.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0749","id":"S2-0749","volume":"900v2","title":"A coalescing emulsion should exhibit a transient elasticity maximum when broken interfaces form a percolating network.","prediction":"A coalescing emulsion should exhibit a transient elasticity maximum when broken interfaces form a percolating network.","test":"Measure topology and modulus.","contrary":"Modulus follows droplet volume fraction monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0749","prediction":"A coalescing emulsion should exhibit a transient elasticity maximum when broken interfaces form a percolating network.","feasible_test":"Measure topology and modulus.","contrary_outcome":"Modulus follows droplet volume fraction monotonically.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0750","id":"S2-0750","volume":"900v2","title":"A capillary foam should resist local puncture through rapid liquid recruitment from distant borders.","prediction":"A capillary foam should resist local puncture through rapid liquid recruitment from distant borders.","test":"Track liquid and rupture pressure.","contrary":"Resistance is independent of reservoir connectivity.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0750","prediction":"A capillary foam should resist local puncture through rapid liquid recruitment from distant borders.","feasible_test":"Track liquid and rupture pressure.","contrary_outcome":"Resistance is independent of reservoir connectivity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0751","id":"S2-0751","volume":"900v2","title":"An elastic lattice should exhibit a temporary band gap when mobile masses relocate under vibration.","prediction":"An elastic lattice should exhibit a temporary band gap when mobile masses relocate under vibration.","test":"Track masses and wave transmission.","contrary":"Transmission changes precede no relocation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0751","prediction":"An elastic lattice should exhibit a temporary band gap when mobile masses relocate under vibration.","feasible_test":"Track masses and wave transmission.","contrary_outcome":"Transmission changes precede no relocation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0752","id":"S2-0752","volume":"900v2","title":"A compressed shell should release energy through a rotating buckle instead of a fixed dimple when friction is anisotropic.","prediction":"A compressed shell should release energy through a rotating buckle instead of a fixed dimple when friction is anisotropic.","test":"Image buckle paths.","contrary":"Rotation is unrelated to friction direction.","layers":[1],"categories":["physical","energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0752","prediction":"A compressed shell should release energy through a rotating buckle instead of a fixed dimple when friction is anisotropic.","feasible_test":"Image buckle paths.","contrary_outcome":"Rotation is unrelated to friction direction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0753","id":"S2-0753","volume":"900v2","title":"A layered beam should store load history in residual interlayer slip without permanent bulk strain.","prediction":"A layered beam should store load history in residual interlayer slip without permanent bulk strain.","test":"Measure slip and reloading curves.","contrary":"Reloading is history-independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0753","prediction":"A layered beam should store load history in residual interlayer slip without permanent bulk strain.","feasible_test":"Measure slip and reloading curves.","contrary_outcome":"Reloading is history-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0754","id":"S2-0754","volume":"900v2","title":"A granular spring should harden after rest because contact asperities creep into larger load-bearing areas.","prediction":"A granular spring should harden after rest because contact asperities creep into larger load-bearing areas.","test":"Map contacts and stiffness.","contrary":"Hardening occurs without contact growth.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0754","prediction":"A granular spring should harden after rest because contact asperities creep into larger load-bearing areas.","feasible_test":"Map contacts and stiffness.","contrary_outcome":"Hardening occurs without contact growth.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0755","id":"S2-0755","volume":"900v2","title":"A soft hinge should reverse its preferred folding direction after asymmetric solvent loss.","prediction":"A soft hinge should reverse its preferred folding direction after asymmetric solvent loss.","test":"Measure solvent and torque.","contrary":"Preference remains fixed.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0755","prediction":"A soft hinge should reverse its preferred folding direction after asymmetric solvent loss.","feasible_test":"Measure solvent and torque.","contrary_outcome":"Preference remains fixed.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0756","id":"S2-0756","volume":"900v2","title":"A fracture should advance intermittently when its wake contains elastic ligaments that unload sequentially.","prediction":"A fracture should advance intermittently when its wake contains elastic ligaments that unload sequentially.","test":"Image ligaments and crack speed.","contrary":"Speed bursts lack ligament failures.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0756","prediction":"A fracture should advance intermittently when its wake contains elastic ligaments that unload sequentially.","feasible_test":"Image ligaments and crack speed.","contrary_outcome":"Speed bursts lack ligament failures.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0757","id":"S2-0757","volume":"900v2","title":"A fibrous mat should resist puncture better after controlled shear aligns fibers around the indenter path.","prediction":"A fibrous mat should resist puncture better after controlled shear aligns fibers around the indenter path.","test":"Measure orientation and puncture.","contrary":"Alignment provides no gain after density correction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0757","prediction":"A fibrous mat should resist puncture better after controlled shear aligns fibers around the indenter path.","feasible_test":"Measure orientation and puncture.","contrary_outcome":"Alignment provides no gain after density correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0758","id":"S2-0758","volume":"900v2","title":"An inflated membrane should wrinkle at lower pressure when its seam relaxes faster than its faces.","prediction":"An inflated membrane should wrinkle at lower pressure when its seam relaxes faster than its faces.","test":"Measure seam strain and wrinkles.","contrary":"Threshold is seam-relaxation independent.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0758","prediction":"An inflated membrane should wrinkle at lower pressure when its seam relaxes faster than its faces.","feasible_test":"Measure seam strain and wrinkles.","contrary_outcome":"Threshold is seam-relaxation independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0759","id":"S2-0759","volume":"900v2","title":"A porous elastomer should exhibit delayed lateral expansion after axial unloading because gas returns unevenly.","prediction":"A porous elastomer should exhibit delayed lateral expansion after axial unloading because gas returns unevenly.","test":"Measure gas pressures and strain.","contrary":"Expansion is immediate and uniform.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0759","prediction":"A porous elastomer should exhibit delayed lateral expansion after axial unloading because gas returns unevenly.","feasible_test":"Measure gas pressures and strain.","contrary_outcome":"Expansion is immediate and uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0760","id":"S2-0760","volume":"900v2","title":"A mechanical linkage should transfer energy uphill in frequency through successive snap-through events.","prediction":"A mechanical linkage should transfer energy uphill in frequency through successive snap-through events.","test":"Measure modal energy and snaps.","contrary":"Energy remains in the driven band.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0760","prediction":"A mechanical linkage should transfer energy uphill in frequency through successive snap-through events.","feasible_test":"Measure modal energy and snaps.","contrary_outcome":"Energy remains in the driven band.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0761","id":"S2-0761","volume":"900v2","title":"A cracked coating should regain barrier performance under compression through crack-face interlocking.","prediction":"A cracked coating should regain barrier performance under compression through crack-face interlocking.","test":"Measure permeability and face contact.","contrary":"Closure does not restore barrier function.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0761","prediction":"A cracked coating should regain barrier performance under compression through crack-face interlocking.","feasible_test":"Measure permeability and face contact.","contrary_outcome":"Closure does not restore barrier function.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0762","id":"S2-0762","volume":"900v2","title":"A woven strip should twist under pure tension when yarn sliding breaks reflection symmetry.","prediction":"A woven strip should twist under pure tension when yarn sliding breaks reflection symmetry.","test":"Track yarn positions and torque.","contrary":"Twist disappears after geometric correction.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0762","prediction":"A woven strip should twist under pure tension when yarn sliding breaks reflection symmetry.","feasible_test":"Track yarn positions and torque.","contrary_outcome":"Twist disappears after geometric correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0763","id":"S2-0763","volume":"900v2","title":"A soft arch should stabilize itself through liquid redistribution toward its highly compressed feet.","prediction":"A soft arch should stabilize itself through liquid redistribution toward its highly compressed feet.","test":"Map liquid and buckling load.","contrary":"Redistribution does not increase stability.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0763","prediction":"A soft arch should stabilize itself through liquid redistribution toward its highly compressed feet.","feasible_test":"Map liquid and buckling load.","contrary_outcome":"Redistribution does not increase stability.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0764","id":"S2-0764","volume":"900v2","title":"A lattice defect should travel under symmetric vibration when neighboring cells relax at different rates.","prediction":"A lattice defect should travel under symmetric vibration when neighboring cells relax at different rates.","test":"Track defect position.","contrary":"Net motion vanishes after each cycle.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0764","prediction":"A lattice defect should travel under symmetric vibration when neighboring cells relax at different rates.","feasible_test":"Track defect position.","contrary_outcome":"Net motion vanishes after each cycle.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0765","id":"S2-0765","volume":"900v2","title":"A granular impact should leave a buried toroidal shear zone detectable by subsequent wave scattering.","prediction":"A granular impact should leave a buried toroidal shear zone detectable by subsequent wave scattering.","test":"Image strain and wave fields.","contrary":"Scattering cannot identify the buried zone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0765","prediction":"A granular impact should leave a buried toroidal shear zone detectable by subsequent wave scattering.","feasible_test":"Image strain and wave fields.","contrary_outcome":"Scattering cannot identify the buried zone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0766","id":"S2-0766","volume":"900v2","title":"A folded membrane should dissipate energy through repeated air-pocket pumping at crease intersections.","prediction":"A folded membrane should dissipate energy through repeated air-pocket pumping at crease intersections.","test":"Measure pressure and hysteresis.","contrary":"Dissipation persists unchanged after venting.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0766","prediction":"A folded membrane should dissipate energy through repeated air-pocket pumping at crease intersections.","feasible_test":"Measure pressure and hysteresis.","contrary_outcome":"Dissipation persists unchanged after venting.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0767","id":"S2-0767","volume":"900v2","title":"A fiber knot should tighten asymmetrically when one segment absorbs solvent faster.","prediction":"A fiber knot should tighten asymmetrically when one segment absorbs solvent faster.","test":"Measure solvent and knot geometry.","contrary":"Tightening remains symmetric.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0767","prediction":"A fiber knot should tighten asymmetrically when one segment absorbs solvent faster.","feasible_test":"Measure solvent and knot geometry.","contrary_outcome":"Tightening remains symmetric.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0768","id":"S2-0768","volume":"900v2","title":"A compliant gear should skip teeth at a rate set by stress relaxation rather than applied torque alone.","prediction":"A compliant gear should skip teeth at a rate set by stress relaxation rather than applied torque alone.","test":"Measure skips across dwell times.","contrary":"Skip rate is dwell-independent.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0768","prediction":"A compliant gear should skip teeth at a rate set by stress relaxation rather than applied torque alone.","feasible_test":"Measure skips across dwell times.","contrary_outcome":"Skip rate is dwell-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0769","id":"S2-0769","volume":"900v2","title":"A thin shell should localize corrosion-induced bending at existing curvature maxima.","prediction":"A thin shell should localize corrosion-induced bending at existing curvature maxima.","test":"Map corrosion and curvature.","contrary":"Bending follows uniform thickness loss.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0769","prediction":"A thin shell should localize corrosion-induced bending at existing curvature maxima.","feasible_test":"Map corrosion and curvature.","contrary_outcome":"Bending follows uniform thickness loss.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0770","id":"S2-0770","volume":"900v2","title":"A particle-filled rubber should show acoustic harmonics from reversible particle debonding.","prediction":"A particle-filled rubber should show acoustic harmonics from reversible particle debonding.","test":"Measure harmonics and interface motion.","contrary":"Harmonics persist when debonding is prevented.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0770","prediction":"A particle-filled rubber should show acoustic harmonics from reversible particle debonding.","feasible_test":"Measure harmonics and interface motion.","contrary_outcome":"Harmonics persist when debonding is prevented.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0771","id":"S2-0771","volume":"900v2","title":"A thermal wave should concentrate solute in a sealed pore through cyclic condensation and evaporation.","prediction":"A thermal wave should concentrate solute in a sealed pore through cyclic condensation and evaporation.","test":"Track concentration with zero net water loss.","contrary":"Solute remains uniformly distributed.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0771","prediction":"A thermal wave should concentrate solute in a sealed pore through cyclic condensation and evaporation.","feasible_test":"Track concentration with zero net water loss.","contrary_outcome":"Solute remains uniformly distributed.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0772","id":"S2-0772","volume":"900v2","title":"A radiative absorber should pulse its temperature when a reversible surface film alternately wets and de-wets.","prediction":"A radiative absorber should pulse its temperature when a reversible surface film alternately wets and de-wets.","test":"Measure film and temperature.","contrary":"Pulses occur without wetting transitions.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0772","prediction":"A radiative absorber should pulse its temperature when a reversible surface film alternately wets and de-wets.","feasible_test":"Measure film and temperature.","contrary_outcome":"Pulses occur without wetting transitions.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0773","id":"S2-0773","volume":"900v2","title":"A heat pipe should restart more reliably when compliant walls squeeze isolated condensate into a connected wick.","prediction":"A heat pipe should restart more reliably when compliant walls squeeze isolated condensate into a connected wick.","test":"Image condensate and restart.","contrary":"Wall motion does not improve reconnection.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0773","prediction":"A heat pipe should restart more reliably when compliant walls squeeze isolated condensate into a connected wick.","feasible_test":"Image condensate and restart.","contrary_outcome":"Wall motion does not improve reconnection.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0774","id":"S2-0774","volume":"900v2","title":"A phase-change layer should retain a preferred nucleation site after complete melting because its support preserves strain.","prediction":"A phase-change layer should retain a preferred nucleation site after complete melting because its support preserves strain.","test":"Map support strain and nucleation.","contrary":"Sites randomize after melting.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0774","prediction":"A phase-change layer should retain a preferred nucleation site after complete melting because its support preserves strain.","feasible_test":"Map support strain and nucleation.","contrary_outcome":"Sites randomize after melting.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0775","id":"S2-0775","volume":"900v2","title":"A porous thermal shield should cool faster after a pressure pulse removes trapped vapor.","prediction":"A porous thermal shield should cool faster after a pressure pulse removes trapped vapor.","test":"Measure vapor topology and temperature.","contrary":"Cooling is pressure-independent after expansion correction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0775","prediction":"A porous thermal shield should cool faster after a pressure pulse removes trapped vapor.","feasible_test":"Measure vapor topology and temperature.","contrary_outcome":"Cooling is pressure-independent after expansion correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0776","id":"S2-0776","volume":"900v2","title":"A wet fiber bundle should transport heat axially more strongly when tension aligns its water bridges.","prediction":"A wet fiber bundle should transport heat axially more strongly when tension aligns its water bridges.","test":"Measure bridge orientation and conductivity.","contrary":"Conductivity follows fiber alignment alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0776","prediction":"A wet fiber bundle should transport heat axially more strongly when tension aligns its water bridges.","feasible_test":"Measure bridge orientation and conductivity.","contrary_outcome":"Conductivity follows fiber alignment alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0777","id":"S2-0777","volume":"900v2","title":"A thermal actuator should oscillate autonomously when contact with its heat source alternates through buckling.","prediction":"A thermal actuator should oscillate autonomously when contact with its heat source alternates through buckling.","test":"Measure contact, temperature, and motion.","contrary":"Motion damps to a stationary state.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0777","prediction":"A thermal actuator should oscillate autonomously when contact with its heat source alternates through buckling.","feasible_test":"Measure contact, temperature, and motion.","contrary_outcome":"Motion damps to a stationary state.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0778","id":"S2-0778","volume":"900v2","title":"A thin metal-free radiator should show hysteretic cooling because pore collapse changes its infrared emissivity.","prediction":"A thin metal-free radiator should show hysteretic cooling because pore collapse changes its infrared emissivity.","test":"Measure pores and emission.","contrary":"Cooling hysteresis follows heat capacity alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0778","prediction":"A thin metal-free radiator should show hysteretic cooling because pore collapse changes its infrared emissivity.","feasible_test":"Measure pores and emission.","contrary_outcome":"Cooling hysteresis follows heat capacity alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0779","id":"S2-0779","volume":"900v2","title":"A granular phase-change bed should develop a moving hot spot when melted contacts increase local thermal coupling.","prediction":"A granular phase-change bed should develop a moving hot spot when melted contacts increase local thermal coupling.","test":"Map phase and temperature.","contrary":"Hot spots remain fixed at boundaries.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0779","prediction":"A granular phase-change bed should develop a moving hot spot when melted contacts increase local thermal coupling.","feasible_test":"Map phase and temperature.","contrary_outcome":"Hot spots remain fixed at boundaries.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0780","id":"S2-0780","volume":"900v2","title":"A thermally cycled gel should produce net fluid transport through unequal swelling and drying times.","prediction":"A thermally cycled gel should produce net fluid transport through unequal swelling and drying times.","test":"Measure transport in a symmetric channel.","contrary":"Net flow remains zero.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0780","prediction":"A thermally cycled gel should produce net fluid transport through unequal swelling and drying times.","feasible_test":"Measure transport in a symmetric channel.","contrary_outcome":"Net flow remains zero.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0781","id":"S2-0781","volume":"900v2","title":"A dielectric membrane should generate a delayed current pulse when mechanical pores reseal.","prediction":"A dielectric membrane should generate a delayed current pulse when mechanical pores reseal.","test":"Measure pore closure and current.","contrary":"Current follows strain rate alone.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0781","prediction":"A dielectric membrane should generate a delayed current pulse when mechanical pores reseal.","feasible_test":"Measure pore closure and current.","contrary_outcome":"Current follows strain rate alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0782","id":"S2-0782","volume":"900v2","title":"A charged porous solid should relax faster electrically after compression connects adsorbed-water clusters.","prediction":"A charged porous solid should relax faster electrically after compression connects adsorbed-water clusters.","test":"Map water and charge decay.","contrary":"Decay is connectivity-independent.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0782","prediction":"A charged porous solid should relax faster electrically after compression connects adsorbed-water clusters.","feasible_test":"Map water and charge decay.","contrary_outcome":"Decay is connectivity-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0783","id":"S2-0783","volume":"900v2","title":"A liquid-metal droplet should orient in an electric field through oxide-skin torque before bulk charge redistributes.","prediction":"A liquid-metal droplet should orient in an electric field through oxide-skin torque before bulk charge redistributes.","test":"Measure orientation and charge dynamics.","contrary":"Orientation follows charge equilibration.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0783","prediction":"A liquid-metal droplet should orient in an electric field through oxide-skin torque before bulk charge redistributes.","feasible_test":"Measure orientation and charge dynamics.","contrary_outcome":"Orientation follows charge equilibration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0784","id":"S2-0784","volume":"900v2","title":"An ionic hydrogel should show conductivity stripes after a shear pulse transports bound counterions.","prediction":"An ionic hydrogel should show conductivity stripes after a shear pulse transports bound counterions.","test":"Map ions and conductivity.","contrary":"Stripes are absent after geometry correction.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0784","prediction":"An ionic hydrogel should show conductivity stripes after a shear pulse transports bound counterions.","feasible_test":"Map ions and conductivity.","contrary_outcome":"Stripes are absent after geometry correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0785","id":"S2-0785","volume":"900v2","title":"A conductive particle network should retain sensitivity after partial fracture through stress-driven contact renewal.","prediction":"A conductive particle network should retain sensitivity after partial fracture through stress-driven contact renewal.","test":"Image contacts and resistance.","contrary":"Sensitivity disappears once cracks form.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0785","prediction":"A conductive particle network should retain sensitivity after partial fracture through stress-driven contact renewal.","feasible_test":"Image contacts and resistance.","contrary_outcome":"Sensitivity disappears once cracks form.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0786","id":"S2-0786","volume":"900v2","title":"A piezoelectric membrane should separate pressure from humidity through opposite phase responses at two frequencies.","prediction":"A piezoelectric membrane should separate pressure from humidity through opposite phase responses at two frequencies.","test":"Calibrate independent inputs.","contrary":"Responses remain degenerate.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0786","prediction":"A piezoelectric membrane should separate pressure from humidity through opposite phase responses at two frequencies.","feasible_test":"Calibrate independent inputs.","contrary_outcome":"Responses remain degenerate.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0787","id":"S2-0787","volume":"900v2","title":"A soft electret should discharge selectively at advancing solvent fronts.","prediction":"A soft electret should discharge selectively at advancing solvent fronts.","test":"Map charge and solvent.","contrary":"Discharge is spatially uniform.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0787","prediction":"A soft electret should discharge selectively at advancing solvent fronts.","feasible_test":"Map charge and solvent.","contrary_outcome":"Discharge is spatially uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0788","id":"S2-0788","volume":"900v2","title":"A magnetic suspension should exhibit transient conductivity through field-aligned contacts that outlive the field.","prediction":"A magnetic suspension should exhibit transient conductivity through field-aligned contacts that outlive the field.","test":"Measure structure and conductance.","contrary":"Conductivity resets immediately.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0788","prediction":"A magnetic suspension should exhibit transient conductivity through field-aligned contacts that outlive the field.","feasible_test":"Measure structure and conductance.","contrary_outcome":"Conductivity resets immediately.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0789","id":"S2-0789","volume":"900v2","title":"A redox gel should bend twice after one voltage step because ion exchange and solvent exchange occur sequentially.","prediction":"A redox gel should bend twice after one voltage step because ion exchange and solvent exchange occur sequentially.","test":"Measure ion, water, and curvature.","contrary":"Bending remains monotonic.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0789","prediction":"A redox gel should bend twice after one voltage step because ion exchange and solvent exchange occur sequentially.","feasible_test":"Measure ion, water, and curvature.","contrary_outcome":"Bending remains monotonic.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0790","id":"S2-0790","volume":"900v2","title":"A liquid junction should preserve a concentration gradient longer under gentle oscillation that periodically reseals its neck.","prediction":"A liquid junction should preserve a concentration gradient longer under gentle oscillation that periodically reseals its neck.","test":"Measure neck and concentration.","contrary":"Oscillation only accelerates mixing.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0790","prediction":"A liquid junction should preserve a concentration gradient longer under gentle oscillation that periodically reseals its neck.","feasible_test":"Measure neck and concentration.","contrary_outcome":"Oscillation only accelerates mixing.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0791","id":"S2-0791","volume":"900v2","title":"A passive optical array should identify local pressure through the order in which resonators buckle.","prediction":"A passive optical array should identify local pressure through the order in which resonators buckle.","test":"Calibrate spatial loads.","contrary":"Buckling order is unreproducible.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0791","prediction":"A passive optical array should identify local pressure through the order in which resonators buckle.","feasible_test":"Calibrate spatial loads.","contrary_outcome":"Buckling order is unreproducible.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0792","id":"S2-0792","volume":"900v2","title":"A porous fluorescence film should display a lifetime plateau when strongly bound water sites saturate.","prediction":"A porous fluorescence film should display a lifetime plateau when strongly bound water sites saturate.","test":"Measure binding and lifetime.","contrary":"Lifetime tracks total water continuously.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0792","prediction":"A porous fluorescence film should display a lifetime plateau when strongly bound water sites saturate.","feasible_test":"Measure binding and lifetime.","contrary_outcome":"Lifetime tracks total water continuously.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0793","id":"S2-0793","volume":"900v2","title":"A waveguide should detect an approaching wetting front through evanescent coupling before direct liquid contact.","prediction":"A waveguide should detect an approaching wetting front through evanescent coupling before direct liquid contact.","test":"Image fronts and attenuation.","contrary":"Signal starts only after contact.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0793","prediction":"A waveguide should detect an approaching wetting front through evanescent coupling before direct liquid contact.","feasible_test":"Image fronts and attenuation.","contrary_outcome":"Signal starts only after contact.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0794","id":"S2-0794","volume":"900v2","title":"A reflective crack sensor should distinguish opening from sliding through polarization phase.","prediction":"A reflective crack sensor should distinguish opening from sliding through polarization phase.","test":"Apply independent displacements.","contrary":"Signals remain indistinguishable.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0794","prediction":"A reflective crack sensor should distinguish opening from sliding through polarization phase.","feasible_test":"Apply independent displacements.","contrary_outcome":"Signals remain indistinguishable.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0795","id":"S2-0795","volume":"900v2","title":"A thermal coating should expose a buried void through anisotropic cooling around its rim.","prediction":"A thermal coating should expose a buried void through anisotropic cooling around its rim.","test":"Compare blinded void geometries.","contrary":"Cooling lacks rim-specific anisotropy.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0795","prediction":"A thermal coating should expose a buried void through anisotropic cooling around its rim.","feasible_test":"Compare blinded void geometries.","contrary_outcome":"Cooling lacks rim-specific anisotropy.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0796","id":"S2-0796","volume":"900v2","title":"A speckle pattern should recover after compression only when the contact network returns to its original topology.","prediction":"A speckle pattern should recover after compression only when the contact network returns to its original topology.","test":"Measure topology and phase recovery.","contrary":"Recovery occurs despite topology changes equally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0796","prediction":"A speckle pattern should recover after compression only when the contact network returns to its original topology.","feasible_test":"Measure topology and phase recovery.","contrary_outcome":"Recovery occurs despite topology changes equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0797","id":"S2-0797","volume":"900v2","title":"A microlens should reveal internal osmotic pressure through astigmatism generated by unequal support tension.","prediction":"A microlens should reveal internal osmotic pressure through astigmatism generated by unequal support tension.","test":"Measure pressure and focal axes.","contrary":"Astigmatism is pressure-independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0797","prediction":"A microlens should reveal internal osmotic pressure through astigmatism generated by unequal support tension.","feasible_test":"Measure pressure and focal axes.","contrary_outcome":"Astigmatism is pressure-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0798","id":"S2-0798","volume":"900v2","title":"A humidity indicator should retain exposure duration through an advancing irreversible crystallization boundary.","prediction":"A humidity indicator should retain exposure duration through an advancing irreversible crystallization boundary.","test":"Measure boundary position after known exposures.","contrary":"Position depends only on peak humidity.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0798","prediction":"A humidity indicator should retain exposure duration through an advancing irreversible crystallization boundary.","feasible_test":"Measure boundary position after known exposures.","contrary_outcome":"Position depends only on peak humidity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0799","id":"S2-0799","volume":"900v2","title":"A transparent adhesive should reveal weak interfaces through enhanced evanescent scattering during subcritical peeling.","prediction":"A transparent adhesive should reveal weak interfaces through enhanced evanescent scattering during subcritical peeling.","test":"Measure scattering and fracture energy.","contrary":"Scattering cannot distinguish weak interfaces.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0799","prediction":"A transparent adhesive should reveal weak interfaces through enhanced evanescent scattering during subcritical peeling.","feasible_test":"Measure scattering and fracture energy.","contrary_outcome":"Scattering cannot distinguish weak interfaces.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0800","id":"S2-0800","volume":"900v2","title":"A photonic lattice should amplify a small solvent-composition contrast near mechanical buckling.","prediction":"A photonic lattice should amplify a small solvent-composition contrast near mechanical buckling.","test":"Measure composition and spectra.","contrary":"Sensitivity lacks a buckling-associated maximum.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0800","prediction":"A photonic lattice should amplify a small solvent-composition contrast near mechanical buckling.","feasible_test":"Measure composition and spectra.","contrary_outcome":"Sensitivity lacks a buckling-associated maximum.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0801","id":"S2-0801","volume":"900v2","title":"A plant membrane analogue should pump vapor through cyclic pore opening even with zero mean temperature gradient.","prediction":"A plant membrane analogue should pump vapor through cyclic pore opening even with zero mean temperature gradient.","test":"Measure vapor transport and pore phase.","contrary":"Net vapor flux remains zero.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0801","prediction":"A plant membrane analogue should pump vapor through cyclic pore opening even with zero mean temperature gradient.","feasible_test":"Measure vapor transport and pore phase.","contrary_outcome":"Net vapor flux remains zero.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0802","id":"S2-0802","volume":"900v2","title":"A nonliving root replica should reinforce soil less after surface mucilage collapses into isolated beads.","prediction":"A nonliving root replica should reinforce soil less after surface mucilage collapses into isolated beads.","test":"Measure bead formation and pullout.","contrary":"Reinforcement is morphology-independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0802","prediction":"A nonliving root replica should reinforce soil less after surface mucilage collapses into isolated beads.","feasible_test":"Measure bead formation and pullout.","contrary_outcome":"Reinforcement is morphology-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0803","id":"S2-0803","volume":"900v2","title":"A fungal wall analogue should resist osmotic shock through rapid alignment of embedded fibers.","prediction":"A fungal wall analogue should resist osmotic shock through rapid alignment of embedded fibers.","test":"Measure alignment and rupture.","contrary":"Rupture resistance lacks alignment dependence.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0803","prediction":"A fungal wall analogue should resist osmotic shock through rapid alignment of embedded fibers.","feasible_test":"Measure alignment and rupture.","contrary_outcome":"Rupture resistance lacks alignment dependence.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0804","id":"S2-0804","volume":"900v2","title":"A cellulose paper should unfold a crease under humidity through unequal fiber rotations across its thickness.","prediction":"A cellulose paper should unfold a crease under humidity through unequal fiber rotations across its thickness.","test":"Image rotations and shape.","contrary":"Unfolding follows uniform swelling alone.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0804","prediction":"A cellulose paper should unfold a crease under humidity through unequal fiber rotations across its thickness.","feasible_test":"Image rotations and shape.","contrary_outcome":"Unfolding follows uniform swelling alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0805","id":"S2-0805","volume":"900v2","title":"A bark-derived porous sheet should retain airborne particles after vibration through reentrant pore trapping.","prediction":"A bark-derived porous sheet should retain airborne particles after vibration through reentrant pore trapping.","test":"Image trapped particles.","contrary":"Retention is explained by adhesion alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0805","prediction":"A bark-derived porous sheet should retain airborne particles after vibration through reentrant pore trapping.","feasible_test":"Image trapped particles.","contrary_outcome":"Retention is explained by adhesion alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0806","id":"S2-0806","volume":"900v2","title":"A seed-coat replica should admit water in discrete bursts when trapped air vents through narrow seams.","prediction":"A seed-coat replica should admit water in discrete bursts when trapped air vents through narrow seams.","test":"Measure gas and uptake.","contrary":"Uptake is continuous despite venting.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0806","prediction":"A seed-coat replica should admit water in discrete bursts when trapped air vents through narrow seams.","feasible_test":"Measure gas and uptake.","contrary_outcome":"Uptake is continuous despite venting.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0807","id":"S2-0807","volume":"900v2","title":"A leaf-inspired membrane should distribute a puncture load through pressurized channels surrounding the defect.","prediction":"A leaf-inspired membrane should distribute a puncture load through pressurized channels surrounding the defect.","test":"Map pressure and strain.","contrary":"Channels provide no load redistribution.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0807","prediction":"A leaf-inspired membrane should distribute a puncture load through pressurized channels surrounding the defect.","feasible_test":"Map pressure and strain.","contrary_outcome":"Channels provide no load redistribution.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0808","id":"S2-0808","volume":"900v2","title":"A spore-wall replica should resist collapse through curvature-driven stress redistribution around pores.","prediction":"A spore-wall replica should resist collapse through curvature-driven stress redistribution around pores.","test":"Measure stress and collapse.","contrary":"Porous and matched nonporous shells collapse identically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0808","prediction":"A spore-wall replica should resist collapse through curvature-driven stress redistribution around pores.","feasible_test":"Measure stress and collapse.","contrary_outcome":"Porous and matched nonporous shells collapse identically.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0809","id":"S2-0809","volume":"900v2","title":"A wood-inspired laminate should arrest delamination when alternating layers redirect interfacial fluid.","prediction":"A wood-inspired laminate should arrest delamination when alternating layers redirect interfacial fluid.","test":"Map fluid and crack position.","contrary":"Arrest occurs independently of fluid routing.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0809","prediction":"A wood-inspired laminate should arrest delamination when alternating layers redirect interfacial fluid.","feasible_test":"Map fluid and crack position.","contrary_outcome":"Arrest occurs independently of fluid routing.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0810","id":"S2-0810","volume":"900v2","title":"A plant-hair-inspired filter should release dust during drying when elastic recoil breaks capillary bridges.","prediction":"A plant-hair-inspired filter should release dust during drying when elastic recoil breaks capillary bridges.","test":"Measure recoil and particle release.","contrary":"Release remains unchanged with recoil constrained.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0810","prediction":"A plant-hair-inspired filter should release dust during drying when elastic recoil breaks capillary bridges.","feasible_test":"Measure recoil and particle release.","contrary_outcome":"Release remains unchanged with recoil constrained.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0811","id":"S2-0811","volume":"900v2","title":"A thin film should retain unequal surface stresses after equal final adsorption because adsorption order changes molecular packing.","prediction":"A thin film should retain unequal surface stresses after equal final adsorption because adsorption order changes molecular packing.","test":"Measure packing and curvature.","contrary":"Stress is order-independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0811","prediction":"A thin film should retain unequal surface stresses after equal final adsorption because adsorption order changes molecular packing.","feasible_test":"Measure packing and curvature.","contrary_outcome":"Stress is order-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0812","id":"S2-0812","volume":"900v2","title":"A reacting gel should bend toward a catalyst-free zone when product diffuses faster than substrate.","prediction":"A reacting gel should bend toward a catalyst-free zone when product diffuses faster than substrate.","test":"Map species and curvature.","contrary":"Bending lacks the predicted diffusion contrast.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0812","prediction":"A reacting gel should bend toward a catalyst-free zone when product diffuses faster than substrate.","feasible_test":"Map species and curvature.","contrary_outcome":"Bending lacks the predicted diffusion contrast.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0813","id":"S2-0813","volume":"900v2","title":"A confined liquid should crystallize first near a compliant wall that accommodates transformation strain.","prediction":"A confined liquid should crystallize first near a compliant wall that accommodates transformation strain.","test":"Compare wall deformation and nucleation.","contrary":"Nucleation is compliance-independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0813","prediction":"A confined liquid should crystallize first near a compliant wall that accommodates transformation strain.","feasible_test":"Compare wall deformation and nucleation.","contrary_outcome":"Nucleation is compliance-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0814","id":"S2-0814","volume":"900v2","title":"A molecular crystal should emit acoustic pulses during reversible guest exchange without cracking.","prediction":"A molecular crystal should emit acoustic pulses during reversible guest exchange without cracking.","test":"Measure pulses and tomography.","contrary":"Pulses require permanent fracture.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0814","prediction":"A molecular crystal should emit acoustic pulses during reversible guest exchange without cracking.","feasible_test":"Measure pulses and tomography.","contrary_outcome":"Pulses require permanent fracture.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0815","id":"S2-0815","volume":"900v2","title":"A porous shell should become selectively permeable after one-sided drying aligns its pore necks.","prediction":"A porous shell should become selectively permeable after one-sided drying aligns its pore necks.","test":"Map necks and transport.","contrary":"Transport remains isotropic.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0815","prediction":"A porous shell should become selectively permeable after one-sided drying aligns its pore necks.","feasible_test":"Map necks and transport.","contrary_outcome":"Transport remains isotropic.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0816","id":"S2-0816","volume":"900v2","title":"An emulsion interface should trap a reaction intermediate long enough to redirect product selectivity.","prediction":"An emulsion interface should trap a reaction intermediate long enough to redirect product selectivity.","test":"Measure intermediate residence and products.","contrary":"Selectivity matches bulk reactions.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0816","prediction":"An emulsion interface should trap a reaction intermediate long enough to redirect product selectivity.","feasible_test":"Measure intermediate residence and products.","contrary_outcome":"Selectivity matches bulk reactions.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0817","id":"S2-0817","volume":"900v2","title":"A soluble polymer should protect a catalyst by absorbing mechanical stress during bubble detachment.","prediction":"A soluble polymer should protect a catalyst by absorbing mechanical stress during bubble detachment.","test":"Measure catalyst damage and local strain.","contrary":"Protection follows chemical binding alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0817","prediction":"A soluble polymer should protect a catalyst by absorbing mechanical stress during bubble detachment.","feasible_test":"Measure catalyst damage and local strain.","contrary_outcome":"Protection follows chemical binding alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0818","id":"S2-0818","volume":"900v2","title":"A colloidal bridge should fail through rotational unlocking before translational separation.","prediction":"A colloidal bridge should fail through rotational unlocking before translational separation.","test":"Track particle orientation and force.","contrary":"Translation begins before unlocking.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0818","prediction":"A colloidal bridge should fail through rotational unlocking before translational separation.","feasible_test":"Track particle orientation and force.","contrary_outcome":"Translation begins before unlocking.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0819","id":"S2-0819","volume":"900v2","title":"A self-assembled tube should expel internal liquid when a chirality reversal travels along it.","prediction":"A self-assembled tube should expel internal liquid when a chirality reversal travels along it.","test":"Track twist and flow.","contrary":"Flow is unrelated to reversal motion.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0819","prediction":"A self-assembled tube should expel internal liquid when a chirality reversal travels along it.","feasible_test":"Track twist and flow.","contrary_outcome":"Flow is unrelated to reversal motion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0820","id":"S2-0820","volume":"900v2","title":"A reactive membrane should preserve a chemical gradient after input removal through slow reversible crosslinking.","prediction":"A reactive membrane should preserve a chemical gradient after input removal through slow reversible crosslinking.","test":"Measure gradient and crosslinks.","contrary":"Decay follows ordinary diffusion.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0820","prediction":"A reactive membrane should preserve a chemical gradient after input removal through slow reversible crosslinking.","feasible_test":"Measure gradient and crosslinks.","contrary_outcome":"Decay follows ordinary diffusion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0821","id":"S2-0821","volume":"900v2","title":"A salt-loaded gel should develop a moving stiffness minimum ahead of its swelling front.","prediction":"A salt-loaded gel should develop a moving stiffness minimum ahead of its swelling front.","test":"Map modulus and water.","contrary":"Minimum coincides only with maximum hydration.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0821","prediction":"A salt-loaded gel should develop a moving stiffness minimum ahead of its swelling front.","feasible_test":"Map modulus and water.","contrary_outcome":"Minimum coincides only with maximum hydration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0822","id":"S2-0822","volume":"900v2","title":"A molecular aggregate should survive dilution longer when mechanical confinement suppresses end fluctuations.","prediction":"A molecular aggregate should survive dilution longer when mechanical confinement suppresses end fluctuations.","test":"Measure disassembly and fluctuations.","contrary":"Lifetime is confinement-independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0822","prediction":"A molecular aggregate should survive dilution longer when mechanical confinement suppresses end fluctuations.","feasible_test":"Measure disassembly and fluctuations.","contrary_outcome":"Lifetime is confinement-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0823","id":"S2-0823","volume":"900v2","title":"A photoreactive film should write a mechanical stress pattern at optical intensities below visible color change.","prediction":"A photoreactive film should write a mechanical stress pattern at optical intensities below visible color change.","test":"Measure stress and absorbance.","contrary":"Stress appears only after visible conversion.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0823","prediction":"A photoreactive film should write a mechanical stress pattern at optical intensities below visible color change.","feasible_test":"Measure stress and absorbance.","contrary_outcome":"Stress appears only after visible conversion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0824","id":"S2-0824","volume":"900v2","title":"A catalyst-support interface should heal through reversible ligand exchange after mild mechanical separation.","prediction":"A catalyst-support interface should heal through reversible ligand exchange after mild mechanical separation.","test":"Measure interfacial bonds and activity.","contrary":"Healing occurs without ligand exchange.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0824","prediction":"A catalyst-support interface should heal through reversible ligand exchange after mild mechanical separation.","feasible_test":"Measure interfacial bonds and activity.","contrary_outcome":"Healing occurs without ligand exchange.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0825","id":"S2-0825","volume":"900v2","title":"A permeable capsule should show synchronized pore opening when internal pressure couples distant defects.","prediction":"A permeable capsule should show synchronized pore opening when internal pressure couples distant defects.","test":"Measure pore timing and pressure.","contrary":"Openings remain statistically independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0825","prediction":"A permeable capsule should show synchronized pore opening when internal pressure couples distant defects.","feasible_test":"Measure pore timing and pressure.","contrary_outcome":"Openings remain statistically independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0826","id":"S2-0826","volume":"900v2","title":"A chemical wave should slow at a tensile region because strain dilutes immobilized catalyst sites.","prediction":"A chemical wave should slow at a tensile region because strain dilutes immobilized catalyst sites.","test":"Measure site density and speed.","contrary":"Speed is unchanged after verified dilution.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0826","prediction":"A chemical wave should slow at a tensile region because strain dilutes immobilized catalyst sites.","feasible_test":"Measure site density and speed.","contrary_outcome":"Speed is unchanged after verified dilution.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0827","id":"S2-0827","volume":"900v2","title":"A molecular sieve should show exposure-history-dependent rejection from slow aperture reconstruction.","prediction":"A molecular sieve should show exposure-history-dependent rejection from slow aperture reconstruction.","test":"Measure aperture and rejection.","contrary":"Rejection depends only on current solution.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0827","prediction":"A molecular sieve should show exposure-history-dependent rejection from slow aperture reconstruction.","feasible_test":"Measure aperture and rejection.","contrary_outcome":"Rejection depends only on current solution.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0828","id":"S2-0828","volume":"900v2","title":"A reactive liquid film should climb a vertical groove when product lowers contact angle locally.","prediction":"A reactive liquid film should climb a vertical groove when product lowers contact angle locally.","test":"Map product and ascent.","contrary":"Ascent follows evaporation alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0828","prediction":"A reactive liquid film should climb a vertical groove when product lowers contact angle locally.","feasible_test":"Map product and ascent.","contrary_outcome":"Ascent follows evaporation alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0829","id":"S2-0829","volume":"900v2","title":"A synthetic colloidal cell should divide asymmetrically when reaction-generated stress localizes at one interface.","prediction":"A synthetic colloidal cell should divide asymmetrically when reaction-generated stress localizes at one interface.","test":"Measure stress and fission.","contrary":"Fission occurs without stress localization.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0829","prediction":"A synthetic colloidal cell should divide asymmetrically when reaction-generated stress localizes at one interface.","feasible_test":"Measure stress and fission.","contrary_outcome":"Fission occurs without stress localization.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0830","id":"S2-0830","volume":"900v2","title":"A polymer-supported absorber should become less photoreactive after folding shields its active sites.","prediction":"A polymer-supported absorber should become less photoreactive after folding shields its active sites.","test":"Measure geometry and quantum yield.","contrary":"Yield follows absorbed photons alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0830","prediction":"A polymer-supported absorber should become less photoreactive after folding shields its active sites.","feasible_test":"Measure geometry and quantum yield.","contrary_outcome":"Yield follows absorbed photons alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0831","id":"S2-0831","volume":"900v2","title":"A sediment pore should retain a contaminant pulse through reversible incorporation into a transient precipitate.","prediction":"A sediment pore should retain a contaminant pulse through reversible incorporation into a transient precipitate.","test":"Measure precipitate and release.","contrary":"Retention is explained by adsorption alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0831","prediction":"A sediment pore should retain a contaminant pulse through reversible incorporation into a transient precipitate.","feasible_test":"Measure precipitate and release.","contrary_outcome":"Retention is explained by adsorption alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0832","id":"S2-0832","volume":"900v2","title":"A weathering rind should preserve microcrack orientation after chemical replacement erases original grain boundaries.","prediction":"A weathering rind should preserve microcrack orientation after chemical replacement erases original grain boundaries.","test":"Map cracks and replacement.","contrary":"Crack orientation randomizes after replacement.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0832","prediction":"A weathering rind should preserve microcrack orientation after chemical replacement erases original grain boundaries.","feasible_test":"Map cracks and replacement.","contrary_outcome":"Crack orientation randomizes after replacement.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0833","id":"S2-0833","volume":"900v2","title":"A cooling mineral surface should attract suspended fines through local condensation-driven flow.","prediction":"A cooling mineral surface should attract suspended fines through local condensation-driven flow.","test":"Measure flow and particle motion.","contrary":"Attraction persists without condensation equally.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0833","prediction":"A cooling mineral surface should attract suspended fines through local condensation-driven flow.","feasible_test":"Measure flow and particle motion.","contrary_outcome":"Attraction persists without condensation equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0834","id":"S2-0834","volume":"900v2","title":"A porous stone should emit a delayed gas pulse when drying reconnects formerly sealed cavities.","prediction":"A porous stone should emit a delayed gas pulse when drying reconnects formerly sealed cavities.","test":"Map connectivity and efflux.","contrary":"Efflux follows continuous diffusion.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0834","prediction":"A porous stone should emit a delayed gas pulse when drying reconnects formerly sealed cavities.","feasible_test":"Map connectivity and efflux.","contrary_outcome":"Efflux follows continuous diffusion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0835","id":"S2-0835","volume":"900v2","title":"A clay-coated fiber should buckle under hydration at a wavelength selected by coating permeability.","prediction":"A clay-coated fiber should buckle under hydration at a wavelength selected by coating permeability.","test":"Measure permeability and buckling.","contrary":"Wavelength depends only on elastic modulus.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0835","prediction":"A clay-coated fiber should buckle under hydration at a wavelength selected by coating permeability.","feasible_test":"Measure permeability and buckling.","contrary_outcome":"Wavelength depends only on elastic modulus.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0836","id":"S2-0836","volume":"900v2","title":"A precipitating fracture should alternate its dominant flow path as each active channel seals itself.","prediction":"A precipitating fracture should alternate its dominant flow path as each active channel seals itself.","test":"Track deposition and flow routing.","contrary":"One path remains dominant throughout.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0836","prediction":"A precipitating fracture should alternate its dominant flow path as each active channel seals itself.","feasible_test":"Track deposition and flow routing.","contrary_outcome":"One path remains dominant throughout.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0837","id":"S2-0837","volume":"900v2","title":"A salt aerosol analogue should retain internal acidity gradients after apparent complete drying.","prediction":"A salt aerosol analogue should retain internal acidity gradients after apparent complete drying.","test":"Map acidity and water.","contrary":"Dry particles become chemically uniform.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0837","prediction":"A salt aerosol analogue should retain internal acidity gradients after apparent complete drying.","feasible_test":"Map acidity and water.","contrary_outcome":"Dry particles become chemically uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0838","id":"S2-0838","volume":"900v2","title":"A mineral aggregate should capture more colloids after small compressive cycles renew hidden contact surfaces.","prediction":"A mineral aggregate should capture more colloids after small compressive cycles renew hidden contact surfaces.","test":"Measure new surfaces and uptake.","contrary":"Capture follows static surface area alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0838","prediction":"A mineral aggregate should capture more colloids after small compressive cycles renew hidden contact surfaces.","feasible_test":"Measure new surfaces and uptake.","contrary_outcome":"Capture follows static surface area alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0839","id":"S2-0839","volume":"900v2","title":"A porous ice analogue should separate dissolved gases during repeated partial melting through unequal diffusion rates.","prediction":"A porous ice analogue should separate dissolved gases during repeated partial melting through unequal diffusion rates.","test":"Measure gas ratios.","contrary":"Ratios match equilibrium solubility alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0839","prediction":"A porous ice analogue should separate dissolved gases during repeated partial melting through unequal diffusion rates.","feasible_test":"Measure gas ratios.","contrary_outcome":"Ratios match equilibrium solubility alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0840","id":"S2-0840","volume":"900v2","title":"A reactive grain should move uphill in a density gradient when dissolution shifts its average density.","prediction":"A reactive grain should move uphill in a density gradient when dissolution shifts its average density.","test":"Track volume, density, and position.","contrary":"Motion follows external flow alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0840","prediction":"A reactive grain should move uphill in a density gradient when dissolution shifts its average density.","feasible_test":"Track volume, density, and position.","contrary_outcome":"Motion follows external flow alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0841","id":"S2-0841","volume":"900v2","title":"An oxidized mineral film should retain an adsorption gradient after its bulk redox state equilibrates.","prediction":"An oxidized mineral film should retain an adsorption gradient after its bulk redox state equilibrates.","test":"Measure local adsorption and oxidation.","contrary":"Adsorption becomes uniform with redox equilibration.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0841","prediction":"An oxidized mineral film should retain an adsorption gradient after its bulk redox state equilibrates.","feasible_test":"Measure local adsorption and oxidation.","contrary_outcome":"Adsorption becomes uniform with redox equilibration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0842","id":"S2-0842","volume":"900v2","title":"A sediment layer should compact in a traveling front when gas dissolution removes local pore support.","prediction":"A sediment layer should compact in a traveling front when gas dissolution removes local pore support.","test":"Measure gas and strain.","contrary":"Compaction is spatially uniform.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0842","prediction":"A sediment layer should compact in a traveling front when gas dissolution removes local pore support.","feasible_test":"Measure gas and strain.","contrary_outcome":"Compaction is spatially uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0843","id":"S2-0843","volume":"900v2","title":"A freeze-dried mineral gel should recover permeability after vibration reconnects collapsed channels.","prediction":"A freeze-dried mineral gel should recover permeability after vibration reconnects collapsed channels.","test":"Image channels and flow.","contrary":"Permeability stays fixed despite reconnection.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0843","prediction":"A freeze-dried mineral gel should recover permeability after vibration reconnects collapsed channels.","feasible_test":"Image channels and flow.","contrary_outcome":"Permeability stays fixed despite reconnection.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0844","id":"S2-0844","volume":"900v2","title":"A thin hydrate coating should protect a crystal from dissolution until mechanical cracking exposes a percolating pathway.","prediction":"A thin hydrate coating should protect a crystal from dissolution until mechanical cracking exposes a percolating pathway.","test":"Measure cracks and dissolution.","contrary":"Protection fails without pathway connection.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0844","prediction":"A thin hydrate coating should protect a crystal from dissolution until mechanical cracking exposes a percolating pathway.","feasible_test":"Measure cracks and dissolution.","contrary_outcome":"Protection fails without pathway connection.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0845","id":"S2-0845","volume":"900v2","title":"A porous ash analogue should release alkaline ions in bursts when trapped gas opens wetting pathways.","prediction":"A porous ash analogue should release alkaline ions in bursts when trapped gas opens wetting pathways.","test":"Track gas and ion flux.","contrary":"Release is smooth and gas-independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0845","prediction":"A porous ash analogue should release alkaline ions in bursts when trapped gas opens wetting pathways.","feasible_test":"Track gas and ion flux.","contrary_outcome":"Release is smooth and gas-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0846","id":"S2-0846","volume":"900v2","title":"A soft mineral substrate should bias crystal orientation through deformation under early nuclei.","prediction":"A soft mineral substrate should bias crystal orientation through deformation under early nuclei.","test":"Map strain and orientation.","contrary":"Orientation remains random across compliance contrasts.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0846","prediction":"A soft mineral substrate should bias crystal orientation through deformation under early nuclei.","feasible_test":"Map strain and orientation.","contrary_outcome":"Orientation remains random across compliance contrasts.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0847","id":"S2-0847","volume":"900v2","title":"A flowing brine should create localized cooling at dissolution pits that feeds back on pit growth.","prediction":"A flowing brine should create localized cooling at dissolution pits that feeds back on pit growth.","test":"Measure temperature and topography.","contrary":"Pit growth is unchanged under thermal clamping.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0847","prediction":"A flowing brine should create localized cooling at dissolution pits that feeds back on pit growth.","feasible_test":"Measure temperature and topography.","contrary_outcome":"Pit growth is unchanged under thermal clamping.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0848","id":"S2-0848","volume":"900v2","title":"A dust-covered wet surface should dry more slowly after particles form a mechanically stable vapor barrier.","prediction":"A dust-covered wet surface should dry more slowly after particles form a mechanically stable vapor barrier.","test":"Measure crust integrity and evaporation.","contrary":"Drying follows coverage without mechanical effects.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0848","prediction":"A dust-covered wet surface should dry more slowly after particles form a mechanically stable vapor barrier.","feasible_test":"Measure crust integrity and evaporation.","contrary_outcome":"Drying follows coverage without mechanical effects.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0849","id":"S2-0849","volume":"900v2","title":"A mineral membrane should maintain a pH offset through asymmetric proton adsorption after bulk solutions equalize.","prediction":"A mineral membrane should maintain a pH offset through asymmetric proton adsorption after bulk solutions equalize.","test":"Measure local pH and binding.","contrary":"Offset vanishes with bulk equilibration.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0849","prediction":"A mineral membrane should maintain a pH offset through asymmetric proton adsorption after bulk solutions equalize.","feasible_test":"Measure local pH and binding.","contrary_outcome":"Offset vanishes with bulk equilibration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0850","id":"S2-0850","volume":"900v2","title":"A compacted sediment should recover flow anisotropy after unloading through delayed reopening of horizontal contacts.","prediction":"A compacted sediment should recover flow anisotropy after unloading through delayed reopening of horizontal contacts.","test":"Measure contact geometry and permeability.","contrary":"Anisotropy remains permanently fixed.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0850","prediction":"A compacted sediment should recover flow anisotropy after unloading through delayed reopening of horizontal contacts.","feasible_test":"Measure contact geometry and permeability.","contrary_outcome":"Anisotropy remains permanently fixed.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0851","id":"S2-0851","volume":"900v2","title":"A leaf-derived film should become acoustically transparent when hydration matches its impedance to air-filled support pores.","prediction":"A leaf-derived film should become acoustically transparent when hydration matches its impedance to air-filled support pores.","test":"Measure transmission and hydration.","contrary":"Transmission changes monotonically without matching maximum.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0851","prediction":"A leaf-derived film should become acoustically transparent when hydration matches its impedance to air-filled support pores.","feasible_test":"Measure transmission and hydration.","contrary_outcome":"Transmission changes monotonically without matching maximum.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0852","id":"S2-0852","volume":"900v2","title":"A root mucilage analogue should transmit pressure pulses farther after partial dehydration forms elastic strands.","prediction":"A root mucilage analogue should transmit pressure pulses farther after partial dehydration forms elastic strands.","test":"Measure pulse attenuation and structure.","contrary":"Dehydration only increases attenuation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0852","prediction":"A root mucilage analogue should transmit pressure pulses farther after partial dehydration forms elastic strands.","feasible_test":"Measure pulse attenuation and structure.","contrary_outcome":"Dehydration only increases attenuation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0853","id":"S2-0853","volume":"900v2","title":"A fungal network analogue should redistribute a chemical tracer after local mechanical severing through recoil-driven flow.","prediction":"A fungal network analogue should redistribute a chemical tracer after local mechanical severing through recoil-driven flow.","test":"Track tracer and recoil.","contrary":"Redistribution follows diffusion alone.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0853","prediction":"A fungal network analogue should redistribute a chemical tracer after local mechanical severing through recoil-driven flow.","feasible_test":"Track tracer and recoil.","contrary_outcome":"Redistribution follows diffusion alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0854","id":"S2-0854","volume":"900v2","title":"A cellulose seed replica should jump after a capillary bridge snaps and releases stored bending.","prediction":"A cellulose seed replica should jump after a capillary bridge snaps and releases stored bending.","test":"Measure bridge rupture and launch.","contrary":"Launch precedes bridge rupture.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0854","prediction":"A cellulose seed replica should jump after a capillary bridge snaps and releases stored bending.","feasible_test":"Measure bridge rupture and launch.","contrary_outcome":"Launch precedes bridge rupture.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0855","id":"S2-0855","volume":"900v2","title":"A plant-cuticle analogue should preserve asymmetric wetting after inversion because molecular orientation survives handling.","prediction":"A plant-cuticle analogue should preserve asymmetric wetting after inversion because molecular orientation survives handling.","test":"Measure both faces before and after inversion.","contrary":"Asymmetry follows support geometry alone.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0855","prediction":"A plant-cuticle analogue should preserve asymmetric wetting after inversion because molecular orientation survives handling.","feasible_test":"Measure both faces before and after inversion.","contrary_outcome":"Asymmetry follows support geometry alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0856","id":"S2-0856","volume":"900v2","title":"A leaf-vein replica should prevent ice invasion through repeated narrow-to-wide channel transitions.","prediction":"A leaf-vein replica should prevent ice invasion through repeated narrow-to-wide channel transitions.","test":"Image freezing across matched channels.","contrary":"Transition count has no independent effect.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0856","prediction":"A leaf-vein replica should prevent ice invasion through repeated narrow-to-wide channel transitions.","feasible_test":"Image freezing across matched channels.","contrary_outcome":"Transition count has no independent effect.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0857","id":"S2-0857","volume":"900v2","title":"A moss-inspired mat should retain thermal insulation after wetting when hairs enclose disconnected air volumes.","prediction":"A moss-inspired mat should retain thermal insulation after wetting when hairs enclose disconnected air volumes.","test":"Image gas and measure conductivity.","contrary":"Conductivity follows total water alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0857","prediction":"A moss-inspired mat should retain thermal insulation after wetting when hairs enclose disconnected air volumes.","feasible_test":"Image gas and measure conductivity.","contrary_outcome":"Conductivity follows total water alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0858","id":"S2-0858","volume":"900v2","title":"A wood-inspired channel array should drain sideways after axial blockage through compliant crosslinks.","prediction":"A wood-inspired channel array should drain sideways after axial blockage through compliant crosslinks.","test":"Measure crosslink deformation and flow.","contrary":"Rerouting requires fixed open lateral pores.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0858","prediction":"A wood-inspired channel array should drain sideways after axial blockage through compliant crosslinks.","feasible_test":"Measure crosslink deformation and flow.","contrary_outcome":"Rerouting requires fixed open lateral pores.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0859","id":"S2-0859","volume":"900v2","title":"A fruit-shell analogue should amplify a small humidity change near a prestressed snap threshold.","prediction":"A fruit-shell analogue should amplify a small humidity change near a prestressed snap threshold.","test":"Measure humidity and shell displacement.","contrary":"Response remains smooth across threshold.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0859","prediction":"A fruit-shell analogue should amplify a small humidity change near a prestressed snap threshold.","feasible_test":"Measure humidity and shell displacement.","contrary_outcome":"Response remains smooth across threshold.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0860","id":"S2-0860","volume":"900v2","title":"A pollen-shell analogue should refill after collapse through elastic unfolding before water enters its cavity.","prediction":"A pollen-shell analogue should refill after collapse through elastic unfolding before water enters its cavity.","test":"Image shape and liquid entry.","contrary":"Water entry precedes unfolding.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0860","prediction":"A pollen-shell analogue should refill after collapse through elastic unfolding before water enters its cavity.","feasible_test":"Image shape and liquid entry.","contrary_outcome":"Water entry precedes unfolding.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0861","id":"S2-0861","volume":"900v2","title":"An optical sensor should resolve pore closure through a change in depolarization decay rather than mean brightness.","prediction":"An optical sensor should resolve pore closure through a change in depolarization decay rather than mean brightness.","test":"Measure both during imaged closure.","contrary":"Decay adds no closure specificity.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0861","prediction":"An optical sensor should resolve pore closure through a change in depolarization decay rather than mean brightness.","feasible_test":"Measure both during imaged closure.","contrary_outcome":"Decay adds no closure specificity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0862","id":"S2-0862","volume":"900v2","title":"A flexible reflector should identify impact direction through the orientation of residual microfolds.","prediction":"A flexible reflector should identify impact direction through the orientation of residual microfolds.","test":"Apply blinded impacts and image diffraction.","contrary":"Orientation cannot recover direction.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0862","prediction":"A flexible reflector should identify impact direction through the orientation of residual microfolds.","feasible_test":"Apply blinded impacts and image diffraction.","contrary_outcome":"Orientation cannot recover direction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0863","id":"S2-0863","volume":"900v2","title":"A thermal waveguide should route heat around a dry crack when neighboring pores fill with condensed water.","prediction":"A thermal waveguide should route heat around a dry crack when neighboring pores fill with condensed water.","test":"Map heat flux and liquid.","contrary":"Heat routing remains unchanged.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0863","prediction":"A thermal waveguide should route heat around a dry crack when neighboring pores fill with condensed water.","feasible_test":"Map heat flux and liquid.","contrary_outcome":"Heat routing remains unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0864","id":"S2-0864","volume":"900v2","title":"A resonant gel sensor should distinguish aging from dehydration through opposite changes in two modal frequency ratios.","prediction":"A resonant gel sensor should distinguish aging from dehydration through opposite changes in two modal frequency ratios.","test":"Calibrate independent processes.","contrary":"Ratios remain degenerate.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0864","prediction":"A resonant gel sensor should distinguish aging from dehydration through opposite changes in two modal frequency ratios.","feasible_test":"Calibrate independent processes.","contrary_outcome":"Ratios remain degenerate.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0865","id":"S2-0865","volume":"900v2","title":"A fluorescent membrane should show a migrating lifetime boundary during ion exchange without net swelling.","prediction":"A fluorescent membrane should show a migrating lifetime boundary during ion exchange without net swelling.","test":"Map ions, lifetime, and volume.","contrary":"Lifetime boundary requires swelling.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0865","prediction":"A fluorescent membrane should show a migrating lifetime boundary during ion exchange without net swelling.","feasible_test":"Map ions, lifetime, and volume.","contrary_outcome":"Lifetime boundary requires swelling.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0866","id":"S2-0866","volume":"900v2","title":"A speckle thermometer should retain accuracy under strain when a mechanically insensitive reference wavelength is included.","prediction":"A speckle thermometer should retain accuracy under strain when a mechanically insensitive reference wavelength is included.","test":"Test combined heating and loading.","contrary":"Reference correction does not reduce error.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0866","prediction":"A speckle thermometer should retain accuracy under strain when a mechanically insensitive reference wavelength is included.","feasible_test":"Test combined heating and loading.","contrary_outcome":"Reference correction does not reduce error.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0867","id":"S2-0867","volume":"900v2","title":"An acoustic film should detect a single blocked pore through correlated sideband changes across resonators.","prediction":"An acoustic film should detect a single blocked pore through correlated sideband changes across resonators.","test":"Block known pores blindly.","contrary":"Sidebands cannot localize blockage.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0867","prediction":"An acoustic film should detect a single blocked pore through correlated sideband changes across resonators.","feasible_test":"Block known pores blindly.","contrary_outcome":"Sidebands cannot localize blockage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0868","id":"S2-0868","volume":"900v2","title":"A dielectric sensor should reveal bubble dissolution through a moving relaxation-frequency peak.","prediction":"A dielectric sensor should reveal bubble dissolution through a moving relaxation-frequency peak.","test":"Image bubble volume and spectra.","contrary":"Peak remains fixed during dissolution.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0868","prediction":"A dielectric sensor should reveal bubble dissolution through a moving relaxation-frequency peak.","feasible_test":"Image bubble volume and spectra.","contrary_outcome":"Peak remains fixed during dissolution.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0869","id":"S2-0869","volume":"900v2","title":"A photonic sensor should discriminate vapor uptake from liquid pressure through the direction of resonance trajectories.","prediction":"A photonic sensor should discriminate vapor uptake from liquid pressure through the direction of resonance trajectories.","test":"Calibrate both inputs.","contrary":"Trajectories overlap after normalization.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0869","prediction":"A photonic sensor should discriminate vapor uptake from liquid pressure through the direction of resonance trajectories.","feasible_test":"Calibrate both inputs.","contrary_outcome":"Trajectories overlap after normalization.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0870","id":"S2-0870","volume":"900v2","title":"A microbalance should distinguish surface crystallization from internal precipitation through mode-shape-dependent loading.","prediction":"A microbalance should distinguish surface crystallization from internal precipitation through mode-shape-dependent loading.","test":"Compare imaged deposition sites.","contrary":"Modes provide no location information.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0870","prediction":"A microbalance should distinguish surface crystallization from internal precipitation through mode-shape-dependent loading.","feasible_test":"Compare imaged deposition sites.","contrary_outcome":"Modes provide no location information.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0871","id":"S2-0871","volume":"900v2","title":"A soft actuator should maintain oscillation under steady heat through delayed evaporation at its hinge.","prediction":"A soft actuator should maintain oscillation under steady heat through delayed evaporation at its hinge.","test":"Measure hinge water and motion.","contrary":"Oscillation requires external periodic forcing.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0871","prediction":"A soft actuator should maintain oscillation under steady heat through delayed evaporation at its hinge.","feasible_test":"Measure hinge water and motion.","contrary_outcome":"Oscillation requires external periodic forcing.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0872","id":"S2-0872","volume":"900v2","title":"A capillary motor should reverse direction when a moving liquid bridge crosses its rotational axis.","prediction":"A capillary motor should reverse direction when a moving liquid bridge crosses its rotational axis.","test":"Track bridge geometry and torque.","contrary":"Torque sign ignores bridge position.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0872","prediction":"A capillary motor should reverse direction when a moving liquid bridge crosses its rotational axis.","feasible_test":"Track bridge geometry and torque.","contrary_outcome":"Torque sign ignores bridge position.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0873","id":"S2-0873","volume":"900v2","title":"A granular conveyor should transport fragile particles through traveling stiffness modulation without bulk vibration.","prediction":"A granular conveyor should transport fragile particles through traveling stiffness modulation without bulk vibration.","test":"Measure trajectories and damage.","contrary":"Transport remains zero without bulk motion.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0873","prediction":"A granular conveyor should transport fragile particles through traveling stiffness modulation without bulk vibration.","feasible_test":"Measure trajectories and damage.","contrary_outcome":"Transport remains zero without bulk motion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0874","id":"S2-0874","volume":"900v2","title":"A porous gripper should release objects faster when air enters through a branching vent network.","prediction":"A porous gripper should release objects faster when air enters through a branching vent network.","test":"Measure pressure and release.","contrary":"Release time follows total vent area alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0874","prediction":"A porous gripper should release objects faster when air enters through a branching vent network.","feasible_test":"Measure pressure and release.","contrary_outcome":"Release time follows total vent area alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0875","id":"S2-0875","volume":"900v2","title":"A fluidic timer should retain its interval after orientation changes because capillary pinning dominates gravity.","prediction":"A fluidic timer should retain its interval after orientation changes because capillary pinning dominates gravity.","test":"Test orientations and meniscus position.","contrary":"Timing varies with hydrostatic head.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0875","prediction":"A fluidic timer should retain its interval after orientation changes because capillary pinning dominates gravity.","feasible_test":"Test orientations and meniscus position.","contrary_outcome":"Timing varies with hydrostatic head.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0876","id":"S2-0876","volume":"900v2","title":"A deformable separator should switch selectivity when pressure unfolds reentrant pores.","prediction":"A deformable separator should switch selectivity when pressure unfolds reentrant pores.","test":"Measure pore geometry and rejection.","contrary":"Selectivity changes without unfolding.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0876","prediction":"A deformable separator should switch selectivity when pressure unfolds reentrant pores.","feasible_test":"Measure pore geometry and rejection.","contrary_outcome":"Selectivity changes without unfolding.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0877","id":"S2-0877","volume":"900v2","title":"A self-closing package vent should reseal after condensation swells a porous hinge.","prediction":"A self-closing package vent should reseal after condensation swells a porous hinge.","test":"Measure humidity, hinge size, and leakage.","contrary":"Sealing is unrelated to hinge swelling.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0877","prediction":"A self-closing package vent should reseal after condensation swells a porous hinge.","feasible_test":"Measure humidity, hinge size, and leakage.","contrary_outcome":"Sealing is unrelated to hinge swelling.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0878","id":"S2-0878","volume":"900v2","title":"A passive mixing chamber should homogenize faster when a trapped bubble oscillates through thermal breathing.","prediction":"A passive mixing chamber should homogenize faster when a trapped bubble oscillates through thermal breathing.","test":"Measure bubble and concentration fields.","contrary":"Mixing gain persists without bubble motion.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0878","prediction":"A passive mixing chamber should homogenize faster when a trapped bubble oscillates through thermal breathing.","feasible_test":"Measure bubble and concentration fields.","contrary_outcome":"Mixing gain persists without bubble motion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0879","id":"S2-0879","volume":"900v2","title":"A soft check valve should suppress water hammer by opening a temporary side pocket.","prediction":"A soft check valve should suppress water hammer by opening a temporary side pocket.","test":"Measure pressure and pocket volume.","contrary":"Peak suppression occurs without pocket opening.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0879","prediction":"A soft check valve should suppress water hammer by opening a temporary side pocket.","feasible_test":"Measure pressure and pocket volume.","contrary_outcome":"Peak suppression occurs without pocket opening.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0880","id":"S2-0880","volume":"900v2","title":"A capillary fuel cell analogue should stabilize output when a flexible wick buffers transient liquid demand.","prediction":"A capillary fuel cell analogue should stabilize output when a flexible wick buffers transient liquid demand.","test":"Measure wick strain and voltage.","contrary":"Stability follows stored liquid volume alone.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0880","prediction":"A capillary fuel cell analogue should stabilize output when a flexible wick buffers transient liquid demand.","feasible_test":"Measure wick strain and voltage.","contrary_outcome":"Stability follows stored liquid volume alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0881","id":"S2-0881","volume":"900v2","title":"A sealed molecular assembly should exhibit a delayed density inversion as guest molecules migrate from core to shell.","prediction":"A sealed molecular assembly should exhibit a delayed density inversion as guest molecules migrate from core to shell.","test":"Map guest and density.","contrary":"Density changes remain uniform.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0881","prediction":"A sealed molecular assembly should exhibit a delayed density inversion as guest molecules migrate from core to shell.","feasible_test":"Map guest and density.","contrary_outcome":"Density changes remain uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0882","id":"S2-0882","volume":"900v2","title":"A shrinking gel should rotate an embedded asymmetric particle through anisotropic contraction stress.","prediction":"A shrinking gel should rotate an embedded asymmetric particle through anisotropic contraction stress.","test":"Measure strain and torque.","contrary":"Rotation follows external convection alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0882","prediction":"A shrinking gel should rotate an embedded asymmetric particle through anisotropic contraction stress.","feasible_test":"Measure strain and torque.","contrary_outcome":"Rotation follows external convection alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0883","id":"S2-0883","volume":"900v2","title":"A flexible crystal should guide a reaction front along its compressed side because stress changes activation volume.","prediction":"A flexible crystal should guide a reaction front along its compressed side because stress changes activation volume.","test":"Map stress and front speed.","contrary":"Speed is stress-independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0883","prediction":"A flexible crystal should guide a reaction front along its compressed side because stress changes activation volume.","feasible_test":"Map stress and front speed.","contrary_outcome":"Speed is stress-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0884","id":"S2-0884","volume":"900v2","title":"A colloidal monolayer should retain a lattice defect after a droplet crosses it, encoding travel direction.","prediction":"A colloidal monolayer should retain a lattice defect after a droplet crosses it, encoding travel direction.","test":"Track defects after reversed paths.","contrary":"Defect patterns are direction-independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0884","prediction":"A colloidal monolayer should retain a lattice defect after a droplet crosses it, encoding travel direction.","feasible_test":"Track defects after reversed paths.","contrary_outcome":"Defect patterns are direction-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0885","id":"S2-0885","volume":"900v2","title":"A polymer membrane should transport water uphill in chemical potential only while externally driven shape cycles supply work.","prediction":"A polymer membrane should transport water uphill in chemical potential only while externally driven shape cycles supply work.","test":"Measure work and water flux.","contrary":"Apparent pumping disappears after pressure correction.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0885","prediction":"A polymer membrane should transport water uphill in chemical potential only while externally driven shape cycles supply work.","feasible_test":"Measure work and water flux.","contrary_outcome":"Apparent pumping disappears after pressure correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0886","id":"S2-0886","volume":"900v2","title":"A reactive porous film should cool below its inert counterpart through endothermic adsorption at moving wetting fronts.","prediction":"A reactive porous film should cool below its inert counterpart through endothermic adsorption at moving wetting fronts.","test":"Measure heat and front position.","contrary":"Cooling is explained entirely by evaporation.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0886","prediction":"A reactive porous film should cool below its inert counterpart through endothermic adsorption at moving wetting fronts.","feasible_test":"Measure heat and front position.","contrary_outcome":"Cooling is explained entirely by evaporation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0887","id":"S2-0887","volume":"900v2","title":"A liquid-filled lattice should arrest cracks through pressure redistribution into intact neighboring cells.","prediction":"A liquid-filled lattice should arrest cracks through pressure redistribution into intact neighboring cells.","test":"Measure cell pressures and crack speed.","contrary":"Arrest persists with cells vented equally.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0887","prediction":"A liquid-filled lattice should arrest cracks through pressure redistribution into intact neighboring cells.","feasible_test":"Measure cell pressures and crack speed.","contrary_outcome":"Arrest persists with cells vented equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0888","id":"S2-0888","volume":"900v2","title":"A suspended particle cluster should rotate when one bond's photochemical shortening creates unbalanced internal torque coupled to fluid.","prediction":"A suspended particle cluster should rotate when one bond's photochemical shortening creates unbalanced internal torque coupled to fluid.","test":"Track bonds and rotation.","contrary":"Rotation lacks bond-shortening correlation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0888","prediction":"A suspended particle cluster should rotate when one bond's photochemical shortening creates unbalanced internal torque coupled to fluid.","feasible_test":"Track bonds and rotation.","contrary_outcome":"Rotation lacks bond-shortening correlation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0889","id":"S2-0889","volume":"900v2","title":"A membrane-bound enzyme array should develop traveling activity bands when product changes lateral mobility.","prediction":"A membrane-bound enzyme array should develop traveling activity bands when product changes lateral mobility.","test":"Map activity and diffusion.","contrary":"Bands persist with immobilized enzymes equally.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0889","prediction":"A membrane-bound enzyme array should develop traveling activity bands when product changes lateral mobility.","feasible_test":"Map activity and diffusion.","contrary_outcome":"Bands persist with immobilized enzymes equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0890","id":"S2-0890","volume":"900v2","title":"A drying silica film should retain an electric potential pattern from spatially unequal counterion immobilization.","prediction":"A drying silica film should retain an electric potential pattern from spatially unequal counterion immobilization.","test":"Map ions and surface potential.","contrary":"Potential vanishes after moisture equilibration.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0890","prediction":"A drying silica film should retain an electric potential pattern from spatially unequal counterion immobilization.","feasible_test":"Map ions and surface potential.","contrary_outcome":"Potential vanishes after moisture equilibration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0891","id":"S2-0891","volume":"900v2","title":"A swollen fiber knot should release stored twist before loosening its contact region.","prediction":"A swollen fiber knot should release stored twist before loosening its contact region.","test":"Measure twist and contact opening.","contrary":"Contact loosening consistently precedes twist release.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0891","prediction":"A swollen fiber knot should release stored twist before loosening its contact region.","feasible_test":"Measure twist and contact opening.","contrary_outcome":"Contact loosening consistently precedes twist release.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0892","id":"S2-0892","volume":"900v2","title":"A thermally cycled porous sheet should develop stable vapor channels through repeated local pore dilation.","prediction":"A thermally cycled porous sheet should develop stable vapor channels through repeated local pore dilation.","test":"Image channels and vapor flux.","contrary":"Flux topology remains unchanged by cycling.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0892","prediction":"A thermally cycled porous sheet should develop stable vapor channels through repeated local pore dilation.","feasible_test":"Image channels and vapor flux.","contrary_outcome":"Flux topology remains unchanged by cycling.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0893","id":"S2-0893","volume":"900v2","title":"A confined protein gel should expel a lubricating boundary layer under torsion.","prediction":"A confined protein gel should expel a lubricating boundary layer under torsion.","test":"Map solvent and torque.","contrary":"Torque reduction occurs without solvent enrichment.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0893","prediction":"A confined protein gel should expel a lubricating boundary layer under torsion.","feasible_test":"Map solvent and torque.","contrary_outcome":"Torque reduction occurs without solvent enrichment.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0894","id":"S2-0894","volume":"900v2","title":"A bubble-supported membrane should oscillate after a single solute pulse through delayed gas dissolution and elastic recoil.","prediction":"A bubble-supported membrane should oscillate after a single solute pulse through delayed gas dissolution and elastic recoil.","test":"Measure gas volume and displacement.","contrary":"Response is monotonic.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0894","prediction":"A bubble-supported membrane should oscillate after a single solute pulse through delayed gas dissolution and elastic recoil.","feasible_test":"Measure gas volume and displacement.","contrary_outcome":"Response is monotonic.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0895","id":"S2-0895","volume":"900v2","title":"A layered optical coating should reveal solvent invasion through a reversible spectral chirp.","prediction":"A layered optical coating should reveal solvent invasion through a reversible spectral chirp.","test":"Measure depth profiles and spectra.","contrary":"Chirp cannot recover invasion depth.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0895","prediction":"A layered optical coating should reveal solvent invasion through a reversible spectral chirp.","feasible_test":"Measure depth profiles and spectra.","contrary_outcome":"Chirp cannot recover invasion depth.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0896","id":"S2-0896","volume":"900v2","title":"A root-inspired branching pump should continue flow after one branch dries through capillary pressure redistribution.","prediction":"A root-inspired branching pump should continue flow after one branch dries through capillary pressure redistribution.","test":"Measure branch pressures and flux.","contrary":"Drying one branch stops the entire network.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0896","prediction":"A root-inspired branching pump should continue flow after one branch dries through capillary pressure redistribution.","feasible_test":"Measure branch pressures and flux.","contrary_outcome":"Drying one branch stops the entire network.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0897","id":"S2-0897","volume":"900v2","title":"A granular optical shutter should reopen after humidity falls because capillary bridges release sequentially.","prediction":"A granular optical shutter should reopen after humidity falls because capillary bridges release sequentially.","test":"Track contacts and transmission.","contrary":"Transmission recovers without bridge failure.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0897","prediction":"A granular optical shutter should reopen after humidity falls because capillary bridges release sequentially.","feasible_test":"Track contacts and transmission.","contrary_outcome":"Transmission recovers without bridge failure.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0898","id":"S2-0898","volume":"900v2","title":"A mineral-coated elastic fiber should generate localized chemical pulses when bending cracks its coating.","prediction":"A mineral-coated elastic fiber should generate localized chemical pulses when bending cracks its coating.","test":"Measure crack opening and ion release.","contrary":"Release depends only on exposed total area.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0898","prediction":"A mineral-coated elastic fiber should generate localized chemical pulses when bending cracks its coating.","feasible_test":"Measure crack opening and ion release.","contrary_outcome":"Release depends only on exposed total area.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0899","id":"S2-0899","volume":"900v2","title":"A cell-free droplet network should transmit a mechanical pulse farther when temporary tethers form during contact compression.","prediction":"A cell-free droplet network should transmit a mechanical pulse farther when temporary tethers form during contact compression.","test":"Measure tethers and pulse attenuation.","contrary":"Tether formation does not improve transmission.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0899","prediction":"A cell-free droplet network should transmit a mechanical pulse farther when temporary tethers form during contact compression.","feasible_test":"Measure tethers and pulse attenuation.","contrary_outcome":"Tether formation does not improve transmission.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v2--S2-0900","id":"S2-0900","volume":"900v2","title":"A passive thermal latch should retain a hot-event record through a metastable capillary bridge formed during cooling.","prediction":"A passive thermal latch should retain a hot-event record through a metastable capillary bridge formed during cooling.","test":"Read bridge state after heat pulses.","contrary":"State depends only on final temperature.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v2/hypotheses.json","original":{"id":"S2-0900","prediction":"A passive thermal latch should retain a hot-event record through a metastable capillary bridge formed during cooling.","feasible_test":"Read bridge state after heat pulses.","contrary_outcome":"State depends only on final temperature.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v2/selected90.json","dossier_source":"sources/9v2/selected9.json"},{"uid":"900v3--S3-0001","id":"S3-0001","volume":"900v3","title":"Thermal seam latency","prediction":"A newly opened seam delays the first spatial temperature derivative discontinuity without shifting distant bulk relaxation.","test":"Pulse one tile; compare infrared arrival maps with mechanically verified seam opening and a monolithic reference.","contrary":"Seam and bulk changes remain indistinguishable after emissivity calibration.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0001","title":"Thermal seam latency","question":"Can contact opening be distinguished from bulk diffusivity in a heated tiled plate?","prediction":"A newly opened seam delays the first spatial temperature derivative discontinuity without shifting distant bulk relaxation.","test":"Pulse one tile; compare infrared arrival maps with mechanically verified seam opening and a monolithic reference.","contrary_outcome":"Seam and bulk changes remain indistinguishable after emissivity calibration.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0002","id":"S3-0002","volume":"900v3","title":"Condensation heat routing","prediction":"The ridge shifts the early heat-flux maximum toward its base before any visible bridge forms.","test":"Record synchronized interferometry and heat-flux sensors during controlled dew formation with ridge-free fins.","contrary":"The peak moves only after liquid bridging or follows sensor lag.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0002","title":"Condensation heat routing","question":"Does a dry ridge redirect latent heat before condensate bridges adjacent cold fins?","prediction":"The ridge shifts the early heat-flux maximum toward its base before any visible bridge forms.","test":"Record synchronized interferometry and heat-flux sensors during controlled dew formation with ridge-free fins.","contrary_outcome":"The peak moves only after liquid bridging or follows sensor lag.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0003","id":"S3-0003","volume":"900v3","title":"Radiative aperture memory","prediction":"The shutter narrows peak-to-peak absorber temperature at equal integrated incident energy despite identical mean aperture.","test":"Compare hysteretic and spring-linear shutters under replayed light histories; measure absorbed power and temperature.","contrary":"Any reduction disappears after absorbed-energy matching.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0003","title":"Radiative aperture memory","question":"Can a passive shutter's mechanical hysteresis reduce temperature cycling under intermittent light?","prediction":"The shutter narrows peak-to-peak absorber temperature at equal integrated incident energy despite identical mean aperture.","test":"Compare hysteretic and spring-linear shutters under replayed light histories; measure absorbed power and temperature.","contrary_outcome":"Any reduction disappears after absorbed-energy matching.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0004","id":"S3-0004","volume":"900v3","title":"Freeze-front stress release","prediction":"Strain relaxation and a short temperature excursion coincide when the front crosses the seam.","test":"Use pure-water thin cells with sealed compliant or rigid inserts and synchronized strain/temperature imaging.","contrary":"Temperature excursions track illumination or front velocity rather than seam release.","layers":[1],"categories":["energy","biology","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0004","title":"Freeze-front stress release","question":"Will a deliberate compliant seam release freezing stress as a localized thermal pulse?","prediction":"Strain relaxation and a short temperature excursion coincide when the front crosses the seam.","test":"Use pure-water thin cells with sealed compliant or rigid inserts and synchronized strain/temperature imaging.","contrary_outcome":"Temperature excursions track illumination or front velocity rather than seam release.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0005","id":"S3-0005","volume":"900v3","title":"Heat-capacity inversion bias","prediction":"One-point inverse estimates overstate latent heat when a melting island lies behind the sensor.","test":"Compare surface inversions with electrical calorimetry and tomographic melt fractions in differently positioned islands.","contrary":"Inferred latent heat remains placement-independent within propagated uncertainty.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0005","title":"Heat-capacity inversion bias","question":"Does spatially segregated phase change bias calorimetry inferred from one surface temperature?","prediction":"One-point inverse estimates overstate latent heat when a melting island lies behind the sensor.","test":"Compare surface inversions with electrical calorimetry and tomographic melt fractions in differently positioned islands.","contrary_outcome":"Inferred latent heat remains placement-independent within propagated uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0006","id":"S3-0006","volume":"900v3","title":"Thermal contact avalanches","prediction":"Conductance jumps coincide with groups of acoustic contact events rather than smooth contact-area growth.","test":"Compress rough transparent pairs while measuring calibrated heat flow, real contact area and acoustic events.","contrary":"Conductance follows continuous area alone and event coincidence vanishes after drift correction.","layers":[1,2,3],"categories":["physical","energy","anomalies","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0006","title":"Thermal contact avalanches","question":"Can low-load rough contacts transfer heat in discrete jumps during slow compression?","prediction":"Conductance jumps coincide with groups of acoustic contact events rather than smooth contact-area growth.","test":"Compress rough transparent pairs while measuring calibrated heat flow, real contact area and acoustic events.","contrary_outcome":"Conductance follows continuous area alone and event coincidence vanishes after drift correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0006","title":"Thermal contact avalanches","question":"Can low-load rough contacts transfer heat in discrete jumps during slow compression?","prediction":"Conductance jumps coincide with groups of acoustic contact events rather than smooth contact-area growth.","test":"Compress rough transparent pairs while measuring calibrated heat flow, real contact area and acoustic events.","contrary_outcome":"Conductance follows continuous area alone and event coincidence vanishes after drift correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can low-load rough contacts transfer heat in discrete jumps during slow compression experimental physical mechanism"},"dossier":{"id":"S3-0006","title":"Thermal contact avalanches","question":"Can low-load rough contacts transfer heat in discrete jumps during slow compression?","prediction":"Conductance jumps coincide with groups of acoustic contact events rather than smooth contact-area growth.","test":"Compress rough transparent pairs while measuring calibrated heat flow, real contact area and acoustic events.","contrary_outcome":"Conductance follows continuous area alone and event coincidence vanishes after drift correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can low-load rough contacts transfer heat in discrete jumps during slow compression experimental physical mechanism","bibliography":"B. Gotsmann and M. A. Lantz (2013), Quantized thermal transport across contacts of rough surfaces, Nature Materials12:59–65; DOI10.1038/nmat3460.","source_url":"https://pubmed.ncbi.nlm.nih.gov/23085568/","access_level":"Primary-paper abstract accessed via PubMed; publisher full-text fetch failed.","evidence_scope":"The abstract reports pressure-dependent nanoscale contact transport. This motivates contact sensitivity; it does not establish macroscopic conductance avalanches or acoustic coincidence. Atomic-scale transport cannot be assumed to describe a rough millimeter contact.","primary_measure":"Jump amplitude in conductance G=Q/(Th−Tc), W/K, and excess coincidence of independently identified acoustic and thermal events.","calibration":"Calibrate heat input electrically and measure parasitic losses with an unloaded dummy. Calibrate temperature difference against a traceable reference; calibrate force and acoustic transfer response separately. Estimate the temporal resolution after thermal convolution before defining an event.","comparison_design":"Randomize slow compression histories across separately prepared rough contacts. Include polished, bonded and unloaded acoustic controls. Image real contact area independently. Keep load rate, temperature and surface chemistry matched.","analysis_plan":"Fit continuous area-dependent conductance as the null, then test prespecified change points in held-out records. Convolve proposed jumps with the measured sensor response. Compare coincidence to circular time-shifts that preserve autocorrelation. A conductance jump alone does not identify a collective contact event.","conditional_analysis":"Individual heat paths contribute positive parallel conductances, so topology can create steps when paths open, but a finite sensor bandwidth can make continuous contact evolution look discontinuous. There is no theorem requiring avalanches; the directional claim remains unproved.","independent_replication":"Independent units are cleaned, independently assembled contact pairs, not time samples. Replicate with a second heat-flow architecture and independently prepared roughness. Proceed only if calibrated jump resolution is smaller than the smallest retained event.","proof_status":"Unproved. No new experimental observations, physical demonstration, universal theorem, or worldwide novelty verification is supplied.","decision_rule":"Before collecting confirmation data, use pilot-only noise and engineering resolution to choose a smallest meaningful effect. Fix the confirmatory sample size from independent-unit variance and a declared precision/power target. Support requires the preregistered directional contrast with uncertainty excluding that negligible interval and independent replication. A null or reversed effect with adequate precision is contrary evidence within the tested range; an imprecise null is inconclusive."},"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0007","id":"S3-0007","volume":"900v3","title":"Evaporation shadow cooling","prediction":"A stand-off screen decreases surface temperature while vapor transport remains measurable and unchanged within tolerance.","test":"Compare screened and unscreened water pans with humidity velocimetry and gravimetric loss.","contrary":"Cooling is explained entirely by reduced radiative input or altered evaporation rate.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0007","title":"Evaporation shadow cooling","question":"Can a dry permeable screen lower the temperature of an evaporating surface by suppressing warm-air entrainment?","prediction":"A stand-off screen decreases surface temperature while vapor transport remains measurable and unchanged within tolerance.","test":"Compare screened and unscreened water pans with humidity velocimetry and gravimetric loss.","contrary_outcome":"Cooling is explained entirely by reduced radiative input or altered evaporation rate.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0008","id":"S3-0008","volume":"900v3","title":"Thermal edge topology","prediction":"A continuous rim suppresses the slowest thermal mode beyond the effect of its volume fraction.","test":"Measure modal cooldown of matched patterned plates with continuous versus interrupted rims.","contrary":"The slowest mode depends only on conductive area after boundary losses are fitted.","layers":[1,2,3],"categories":["energy","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0008","title":"Thermal edge topology","question":"Does a connected high-conductivity rim dominate cooldown more than an equal-area disconnected rim?","prediction":"A continuous rim suppresses the slowest thermal mode beyond the effect of its volume fraction.","test":"Measure modal cooldown of matched patterned plates with continuous versus interrupted rims.","contrary_outcome":"The slowest mode depends only on conductive area after boundary losses are fitted.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0008","title":"Thermal edge topology","question":"Does a connected high-conductivity rim dominate cooldown more than an equal-area disconnected rim?","prediction":"A continuous rim suppresses the slowest thermal mode beyond the effect of its volume fraction.","test":"Measure modal cooldown of matched patterned plates with continuous versus interrupted rims.","contrary_outcome":"The slowest mode depends only on conductive area after boundary losses are fitted.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Does a connected high-conductivity rim dominate cooldown more than an equal-area disconnected rim experimental physical mechanism"},"dossier":{"id":"S3-0008","title":"Thermal edge topology","question":"Does a connected high-conductivity rim dominate cooldown more than an equal-area disconnected rim?","prediction":"A continuous rim suppresses the slowest thermal mode beyond the effect of its volume fraction.","test":"Measure modal cooldown of matched patterned plates with continuous versus interrupted rims.","contrary_outcome":"The slowest mode depends only on conductive area after boundary losses are fitted.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Does a connected high-conductivity rim dominate cooldown more than an equal-area disconnected rim experimental physical mechanism","bibliography":"H. Hu et al.(2022), Observation of Topological Edge States in Thermal Diffusion, Advanced Materials34:2202257; DOI10.1002/adma.202202257.","source_url":"https://advanced.onlinelibrary.wiley.com/doi/10.1002/adma.202202257","access_level":"Primary research article HTML accessed, including abstract and experimental discussion.","evidence_scope":"The paper reports experimentally retrieved thermal-lattice decay behavior. Its patterned lattice is related diffusion evidence, not proof that a continuous conductive rim improves every plate.","primary_measure":"Slowest identifiable thermal decay rate λ1 in s−1 after a prescribed initial temperature pattern; report its mode shape as a secondary outcome.","calibration":"Calibrate spatial temperature against contact standards and camera flat-field drift. Measure each region conductivity, heat capacity and thickness independently. Calibrate external loss by isothermal whole-plate cooldown.","comparison_design":"Compare continuous and interrupted rims with equal conductive volume, mass, outer shape and boundary contact. Use more than one initial heating pattern to avoid missing the slow mode. Randomize specimen order and include a homogeneous reference.","analysis_plan":"Fit a common diffusion operator with separately measured boundaries. Use held-out time windows and report modes below the resolution threshold as unidentified. Contrast λ1 with uncertainty from specimen properties and boundary heat loss.","conditional_analysis":"For a specified positive-conductivity field, the Rayleigh quotient involves integral k|∇φ|² divided by integral ρcφ², plus boundary loss. Moving fixed conductive volume changes where gradients are penalized; connectivity alone does not guarantee an increase. The proposed direction is unproved.","independent_replication":"Replicate using separately fabricated plates and a second lab with a different rim-manufacturing process. Gate on equal measured volume and boundary losses; repeat the modal result under independent initial temperature fields.","proof_status":"Unproved. No new experimental observations, physical demonstration, universal theorem, or worldwide novelty verification is supplied.","decision_rule":"Before collecting confirmation data, use pilot-only noise and engineering resolution to choose a smallest meaningful effect. Fix the confirmatory sample size from independent-unit variance and a declared precision/power target. Support requires the preregistered directional contrast with uncertainty excluding that negligible interval and independent replication. A null or reversed effect with adequate precision is contrary evidence within the tested range; an imprecise null is inconclusive."},"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0009","id":"S3-0009","volume":"900v3","title":"Capillary dryout precursor","prediction":"Meniscus acceleration exceeds its stable-state envelope several frames before dryout onset.","test":"Image a transparent water wick during slow heat ramps; align wall thermometry and repeated dryout events.","contrary":"Acceleration provides no lead over temperature after accounting for camera uncertainty.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0009","title":"Capillary dryout precursor","question":"Does local meniscus acceleration predict wick dryout before a measurable wall-temperature rise?","prediction":"Meniscus acceleration exceeds its stable-state envelope several frames before dryout onset.","test":"Image a transparent water wick during slow heat ramps; align wall thermometry and repeated dryout events.","contrary_outcome":"Acceleration provides no lead over temperature after accounting for camera uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0010","id":"S3-0010","volume":"900v3","title":"Thermal guard misalignment","prediction":"Guard offsets produce an apparent negative fitted interface resistance despite positive independently measured dissipation.","test":"Scan guard position in an instrumented dummy interface and compare full-field and one-dimensional inversions.","contrary":"Negative estimates persist with aligned guards and corrected multidimensional heat flow.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0010","title":"Thermal guard misalignment","question":"Can a displaced guard heater create apparent negative interface resistance in steady calorimetry?","prediction":"Guard offsets produce an apparent negative fitted interface resistance despite positive independently measured dissipation.","test":"Scan guard position in an instrumented dummy interface and compare full-field and one-dimensional inversions.","contrary_outcome":"Negative estimates persist with aligned guards and corrected multidimensional heat flow.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0011","id":"S3-0011","volume":"900v3","title":"Frost acoustic coupling","prediction":"Branch asymmetry follows pressure-node position while measured substrate displacement remains below a calibrated limit.","test":"Grow frost in a small cold cell; translate acoustic nodes and use laser vibrometry and humidity imaging.","contrary":"Asymmetry follows substrate vibration or uncontrolled temperature gradients.","layers":[1],"categories":["physical","biology","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0011","title":"Frost acoustic coupling","question":"Does a weak standing sound field change frost branching through vapor redistribution rather than vibration of the substrate?","prediction":"Branch asymmetry follows pressure-node position while measured substrate displacement remains below a calibrated limit.","test":"Grow frost in a small cold cell; translate acoustic nodes and use laser vibrometry and humidity imaging.","contrary_outcome":"Asymmetry follows substrate vibration or uncontrolled temperature gradients.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0012","id":"S3-0012","volume":"900v3","title":"Thermal rectification boundary","prediction":"The heat-current asymmetry changes sign when preload closes the gap while solid composition is unchanged.","test":"Reverse reservoir temperatures at several measured gap states and compare a bonded-contact control.","contrary":"Rectification retains one sign or is accounted for by reservoir contact offsets.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0012","title":"Thermal rectification boundary","question":"Can a temperature-dependent contact gap reverse the sign of apparent thermal rectification?","prediction":"The heat-current asymmetry changes sign when preload closes the gap while solid composition is unchanged.","test":"Reverse reservoir temperatures at several measured gap states and compare a bonded-contact control.","contrary_outcome":"Rectification retains one sign or is accounted for by reservoir contact offsets.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0013","id":"S3-0013","volume":"900v3","title":"PCM void migration","prediction":"Void centroid drifts toward the terminal solidification region across cycles.","test":"Image a transparent phase-change cavity under reversed freezing direction and neutral-density tracer checks.","contrary":"Drift follows buoyancy alone and does not reverse with freezing sequence.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0013","title":"PCM void migration","question":"Will repeated melting move a trapped void toward the last-freezing location even without net fluid circulation?","prediction":"Void centroid drifts toward the terminal solidification region across cycles.","test":"Image a transparent phase-change cavity under reversed freezing direction and neutral-density tracer checks.","contrary_outcome":"Drift follows buoyancy alone and does not reverse with freezing sequence.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0014","id":"S3-0014","volume":"900v3","title":"Heat-pulse geometry discrimination","prediction":"An elongated void produces a reproducible anisotropic curvature tensor after early signals have converged.","test":"Compare machined void standards using pulsed thermography and independently measured diffusivity.","contrary":"Late-time curvature cannot classify shape beyond noise or superficial emissivity artifacts.","layers":[1,2,3],"categories":["energy","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0014","title":"Heat-pulse geometry discrimination","question":"Can two equal-volume buried voids be distinguished by the late-time spatial curvature of a heat pulse?","prediction":"An elongated void produces a reproducible anisotropic curvature tensor after early signals have converged.","test":"Compare machined void standards using pulsed thermography and independently measured diffusivity.","contrary_outcome":"Late-time curvature cannot classify shape beyond noise or superficial emissivity artifacts.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0014","title":"Heat-pulse geometry discrimination","question":"Can two equal-volume buried voids be distinguished by the late-time spatial curvature of a heat pulse?","prediction":"An elongated void produces a reproducible anisotropic curvature tensor after early signals have converged.","test":"Compare machined void standards using pulsed thermography and independently measured diffusivity.","contrary_outcome":"Late-time curvature cannot classify shape beyond noise or superficial emissivity artifacts.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can two equal-volume buried voids be distinguished by the late-time spatial curvature of a heat pulse experimental physical mechanism"},"dossier":{"id":"S3-0014","title":"Heat-pulse geometry discrimination","question":"Can two equal-volume buried voids be distinguished by the late-time spatial curvature of a heat pulse?","prediction":"An elongated void produces a reproducible anisotropic curvature tensor after early signals have converged.","test":"Compare machined void standards using pulsed thermography and independently measured diffusivity.","contrary_outcome":"Late-time curvature cannot classify shape beyond noise or superficial emissivity artifacts.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can two equal-volume buried voids be distinguished by the late-time spatial curvature of a heat pulse experimental physical mechanism","bibliography":"Characterizing Depth of Defects with Low Size/Depth Aspect Ratio and Low Thermal Reflection by Using Pulsed IR Thermography(2021); indexed PMID33920169, PMCIDPMC8069946. Authors/DOI not verified in this access session.","source_url":"https://pmc.ncbi.nlm.nih.gov/articles/PMC8069946/","access_level":"Search snippets and bibliographic lead only; full-text access returned a browser challenge and PubMed body was unavailable.","evidence_scope":"The accessible lead concerns size/depth limitations in pulsed thermography. No quantitative result from the inaccessible body is used. This is a related primary-paper lead, not confirmed evidence for shape-tensor classification.","primary_measure":"Eigenvalue ratio and principal direction of the spatial Hessian of temperature at prespecified late times, with units K/m².","calibration":"Calibrate pixel scale, timing, heater footprint, emissivity and temperature noise on a void-free plate. Machine equal-volume void standards and verify depth/shape by independent geometry measurement.","comparison_design":"Blindly classify elongated and compact voids with equal depth, volume and top-surface finish. Include rotated elongated voids, isotropic bulk controls and multiple pulse energies within linear response.","analysis_plan":"Predefine late time using measured diffusion length rather than selecting the most separable image. Estimate Hessians with a fixed spatial kernel, propagate correlated pixel noise, and evaluate orientation recovery on held-out specimens.","conditional_analysis":"The heat equation smooths spatial structure; distinct defects can produce nearly indistinguishable surface fields. Anisotropic curvature may encode shape, but no uniqueness or robust-classification theorem is supplied. The prediction remains unproved, especially when depth exceeds lateral size.","independent_replication":"Independent units are separately machined specimens. Replicate with a second camera and independent heating footprint. Gate on blinded orientation recovery exceeding randomized-label performance and confidence bounds excluding a pilot-chosen negligible contrast.","proof_status":"Unproved. No new experimental observations, physical demonstration, universal theorem, or worldwide novelty verification is supplied.","decision_rule":"Before collecting confirmation data, use pilot-only noise and engineering resolution to choose a smallest meaningful effect. Fix the confirmatory sample size from independent-unit variance and a declared precision/power target. Support requires the preregistered directional contrast with uncertainty excluding that negligible interval and independent replication. A null or reversed effect with adequate precision is contrary evidence within the tested range; an imprecise null is inconclusive."},"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0015","id":"S3-0015","volume":"900v3","title":"Thermal mass detachment","prediction":"Timed conductive engagement lowers peak temperature for the same ballast mass and heater energy.","test":"Compare passive latch timing with permanently attached and detached ballast using calorimetry.","contrary":"Benefits vanish when total heat loss and engagement work are included.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0015","title":"Thermal mass detachment","question":"Does a thermally lagged ballast suppress overshoot more efficiently when attached only during cooling?","prediction":"Timed conductive engagement lowers peak temperature for the same ballast mass and heater energy.","test":"Compare passive latch timing with permanently attached and detached ballast using calorimetry.","contrary_outcome":"Benefits vanish when total heat loss and engagement work are included.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0016","id":"S3-0016","volume":"900v3","title":"Radiative view-factor calibration","prediction":"Occluder motion changes the inferred reflected component while leaving true target temperature constant.","test":"Use controlled-emissivity targets, independently calibrated thermometers and several occluder positions.","contrary":"Recovered true temperatures drift with occluder position beyond uncertainty.","layers":[1,2,3],"categories":["measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0016","title":"Radiative view-factor calibration","question":"Can a moving cool occluder reveal a thermographic scene's reflected-temperature bias without contact measurements?","prediction":"Occluder motion changes the inferred reflected component while leaving true target temperature constant.","test":"Use controlled-emissivity targets, independently calibrated thermometers and several occluder positions.","contrary_outcome":"Recovered true temperatures drift with occluder position beyond uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0016","title":"Radiative view-factor calibration","question":"Can a moving cool occluder reveal a thermographic scene's reflected-temperature bias without contact measurements?","prediction":"Occluder motion changes the inferred reflected component while leaving true target temperature constant.","test":"Use controlled-emissivity targets, independently calibrated thermometers and several occluder positions.","contrary_outcome":"Recovered true temperatures drift with occluder position beyond uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a moving cool occluder reveal a thermographic scene's reflected-temperature bias without contact measurements experimental physical mechanism"},"dossier":{"id":"S3-0016","title":"Radiative view-factor calibration","question":"Can a moving cool occluder reveal a thermographic scene's reflected-temperature bias without contact measurements?","prediction":"Occluder motion changes the inferred reflected component while leaving true target temperature constant.","test":"Use controlled-emissivity targets, independently calibrated thermometers and several occluder positions.","contrary_outcome":"Recovered true temperatures drift with occluder position beyond uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a moving cool occluder reveal a thermographic scene's reflected-temperature bias without contact measurements experimental physical mechanism","bibliography":"S. Marinetti and P. G. Cesaratto(2012), Emissivity estimation for accurate quantitative thermography, NDT&E International51:127–134; DOI10.1016/j.ndteint.2012.06.001.","source_url":"https://www.sciencedirect.com/science/article/pii/S0963869512000813","access_level":"Publisher search excerpt exposed abstract and sections; direct open failed. Institutional CNR metadata corroborated authors/year. Full paper not accessed.","evidence_scope":"The accessed abstract concerns sensor-specific emissivity calibration with approximately constant surroundings radiation. It supports attention to reflected radiation, not the proposed moving-occluder estimator.","primary_measure":"Error in reconstructed true target temperature, K, versus independent buried/contact reference; separate emissivity and reflected-radiance estimates.","calibration":"Calibrate camera spectral response with traceable blackbody references. Measure occluder temperature and angular radiance, target viewing geometry, target emissivity and contact-sensor heat leakage.","comparison_design":"Hold target temperature with feedback while translating a cool occluder outside direct target contact. Compare glossy and diffuse standards, static/temperature-matched occluders, and equal-airflow sham motion.","analysis_plan":"Fit measured radiance L=εB(T)+(1−ε)Lrefl in the calibrated band with an explicit angular reflection model. Test whether occluder motion provides sufficient rank to separate unknowns. Use withheld occluder positions to check predictions.","conditional_analysis":"One band and unknown emissivity/reflected radiance is underdetermined without additional constraints. Occluder motion may provide those constraints only if its view-factor effect is known and true target temperature remains stable. No general identifiability theorem is claimed.","independent_replication":"Replicate on independent target preparations using a second spectral band or contact-independent thermometer. Gate on recovery across withheld geometry and successful airflow/shading controls.","proof_status":"Unproved. No new experimental observations, physical demonstration, universal theorem, or worldwide novelty verification is supplied.","decision_rule":"Before collecting confirmation data, use pilot-only noise and engineering resolution to choose a smallest meaningful effect. Fix the confirmatory sample size from independent-unit variance and a declared precision/power target. Support requires the preregistered directional contrast with uncertainty excluding that negligible interval and independent replication. A null or reversed effect with adequate precision is contrary evidence within the tested range; an imprecise null is inconclusive."},"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0017","id":"S3-0017","volume":"900v3","title":"Thermal wave blind spot","prediction":"Interface sensitivity has a minimum caused by phase cancellation rather than monotonic depth attenuation.","test":"Sweep modulation frequency on a characterized bilayer; compare amplitude/phase with finite-difference predictions.","contrary":"Sensitivity is monotonic or the minimum disappears with instrument transfer correction.","layers":[1],"categories":["physical","energy","biology","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0017","title":"Thermal wave blind spot","question":"Does periodic heating lose sensitivity to an interface precisely when diffusion length matches the coating thickness?","prediction":"Interface sensitivity has a minimum caused by phase cancellation rather than monotonic depth attenuation.","test":"Sweep modulation frequency on a characterized bilayer; compare amplitude/phase with finite-difference predictions.","contrary_outcome":"Sensitivity is monotonic or the minimum disappears with instrument transfer correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0018","id":"S3-0018","volume":"900v3","title":"Boiling-free hot-spot leveling","prediction":"A deformable pocket flattens wall temperature more than a rigid cavity at equal input power.","test":"Heat transparent water cells below boiling; measure pocket shape, particle velocities and wall temperatures.","contrary":"Uniformity changes are entirely explained by altered conduction geometry.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0018","title":"Boiling-free hot-spot leveling","question":"Can a gas pocket improve lateral temperature uniformity through deformation-driven liquid circulation below boiling?","prediction":"A deformable pocket flattens wall temperature more than a rigid cavity at equal input power.","test":"Heat transparent water cells below boiling; measure pocket shape, particle velocities and wall temperatures.","contrary_outcome":"Uniformity changes are entirely explained by altered conduction geometry.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0019","id":"S3-0019","volume":"900v3","title":"Thermal expansion closure order","prediction":"Sequentially closing compliant contacts leaves distinct steady heat-flow partitions through frictional lock-in.","test":"Apply identical final preload through two sequences; verify geometry and map branch heat currents.","contrary":"Final currents collapse when the final contact state is matched.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0019","title":"Thermal expansion closure order","question":"Does closure order of parallel contacts matter for the final steady heat distribution?","prediction":"Sequentially closing compliant contacts leaves distinct steady heat-flow partitions through frictional lock-in.","test":"Apply identical final preload through two sequences; verify geometry and map branch heat currents.","contrary_outcome":"Final currents collapse when the final contact state is matched.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0020","id":"S3-0020","volume":"900v3","title":"Substrate thermal echo","prediction":"The reheating temperature derivative carries a layer-specific delayed inflection.","test":"Apply heating-interruption-heating sequences to known layered specimens and compare monotonic controls.","contrary":"No layer-specific inflection survives correction for heater dynamics.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0020","title":"Substrate thermal echo","question":"Can a short cooling interruption reveal a buried layer whose properties are invisible during monotonic heating?","prediction":"The reheating temperature derivative carries a layer-specific delayed inflection.","test":"Apply heating-interruption-heating sequences to known layered specimens and compare monotonic controls.","contrary_outcome":"No layer-specific inflection survives correction for heater dynamics.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0021","id":"S3-0021","volume":"900v3","title":"Dew thermal runaway threshold","prediction":"A percolating droplet path produces a step in local thermal conductance and dew growth rate.","test":"Image droplet connectivity while measuring heat flux on a cooled patterned plate.","contrary":"Conductance evolves smoothly or steps precede connectivity and follow controller behavior.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0021","title":"Dew thermal runaway threshold","question":"Can condensate coalescence abruptly increase local cooling without a change in ambient humidity?","prediction":"A percolating droplet path produces a step in local thermal conductance and dew growth rate.","test":"Image droplet connectivity while measuring heat flux on a cooled patterned plate.","contrary_outcome":"Conductance evolves smoothly or steps precede connectivity and follow controller behavior.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0022","id":"S3-0022","volume":"900v3","title":"Thermal storage geometry fatigue","prediction":"The recoverable heat per cycle declines with persistent front pinning at the neck.","test":"Cycle sealed transparent storage cells with wide-neck controls and periodic calorimetry.","contrary":"Capacity decline is independent of pinning or explained by leakage and calibration drift.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0022","title":"Thermal storage geometry fatigue","question":"Does repeatedly moving the melt front through a narrow neck reduce useful latent storage before measurable material loss?","prediction":"The recoverable heat per cycle declines with persistent front pinning at the neck.","test":"Cycle sealed transparent storage cells with wide-neck controls and periodic calorimetry.","contrary_outcome":"Capacity decline is independent of pinning or explained by leakage and calibration drift.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0023","id":"S3-0023","volume":"900v3","title":"Air-gap breathing loss","prediction":"Measured heat transfer exceeds the average of static-gap conductances due to displaced warm air.","test":"Oscillate a low-temperature gap while measuring air motion and compare hermetically sealed gaps.","contrary":"Heat transfer equals the quasistatic prediction after actuator heating is removed.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0023","title":"Air-gap breathing loss","question":"Does cyclic opening of an insulating air gap create excess heat transport beyond time-averaged conduction?","prediction":"Measured heat transfer exceeds the average of static-gap conductances due to displaced warm air.","test":"Oscillate a low-temperature gap while measuring air motion and compare hermetically sealed gaps.","contrary_outcome":"Heat transfer equals the quasistatic prediction after actuator heating is removed.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0024","id":"S3-0024","volume":"900v3","title":"Thermal lens location ambiguity","prediction":"The two phase delays identify absorption depth when either measurement alone is degenerate.","test":"Heat calibrated absorbing layers at known depths and fit a prespecified joint model.","contrary":"Depth estimates remain nonidentifiable within measurement uncertainty.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0024","title":"Thermal lens location ambiguity","question":"Can simultaneous transmission and reflection thermometry separate surface absorption from bulk absorption in a clear slab?","prediction":"The two phase delays identify absorption depth when either measurement alone is degenerate.","test":"Heat calibrated absorbing layers at known depths and fit a prespecified joint model.","contrary_outcome":"Depth estimates remain nonidentifiable within measurement uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0025","id":"S3-0025","volume":"900v3","title":"Humidity-buffer heat debt","prediction":"Delaying regeneration airflow shifts the heat-release peak without changing total cycle enthalpy.","test":"Measure complete humidity and heat balances for identical panels under shifted airflow schedules.","contrary":"Cooling/release balances fail closure or timing has no reproducible effect.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0025","title":"Humidity-buffer heat debt","question":"Does a sorbing panel's apparent daytime cooling require a measurable nighttime heat release that depends on airflow timing?","prediction":"Delaying regeneration airflow shifts the heat-release peak without changing total cycle enthalpy.","test":"Measure complete humidity and heat balances for identical panels under shifted airflow schedules.","contrary_outcome":"Cooling/release balances fail closure or timing has no reproducible effect.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0026","id":"S3-0026","volume":"900v3","title":"Thermal chimney entrance switching","prediction":"Flow and temperature remain on separate branches after opposite ramp histories.","test":"Ramp power up and down in a transparent heated channel and measure pressure, flow and flap position.","contrary":"Branches disappear after temperature equilibration or originate in sensor hysteresis.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0026","title":"Thermal chimney entrance switching","question":"Can a reversible entrance flap create two stable passive flow rates under identical heating?","prediction":"Flow and temperature remain on separate branches after opposite ramp histories.","test":"Ramp power up and down in a transparent heated channel and measure pressure, flow and flap position.","contrary_outcome":"Branches disappear after temperature equilibration or originate in sensor hysteresis.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0027","id":"S3-0027","volume":"900v3","title":"Contact-free thermal torque","prediction":"Torque reverses with thermal-view asymmetry and persists as gas pressure decreases.","test":"Suspend a balanced composite, change only cold-view orientation and measure torque over pressure.","contrary":"Torque vanishes with convection or follows electrostatic charging.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0027","title":"Contact-free thermal torque","question":"Can asymmetric radiative cooling rotate a suspended composite at temperatures too low for significant gas convection?","prediction":"Torque reverses with thermal-view asymmetry and persists as gas pressure decreases.","test":"Suspend a balanced composite, change only cold-view orientation and measure torque over pressure.","contrary_outcome":"Torque vanishes with convection or follows electrostatic charging.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0028","id":"S3-0028","volume":"900v3","title":"Melt-film drainage arrest","prediction":"Film thickness builds upstream at a capillary barrier before a discrete release.","test":"Observe low-temperature wax melting on grooved versus flat inclined substrates with thickness interferometry.","contrary":"Film flows continuously and any pause is caused by front arrest.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0028","title":"Melt-film drainage arrest","question":"Can a shallow groove halt a moving melt film while the solid-liquid front continues advancing?","prediction":"Film thickness builds upstream at a capillary barrier before a discrete release.","test":"Observe low-temperature wax melting on grooved versus flat inclined substrates with thickness interferometry.","contrary_outcome":"Film flows continuously and any pause is caused by front arrest.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0029","id":"S3-0029","volume":"900v3","title":"Heat-flux sensor footprint","prediction":"Smaller high-conductivity sensors report larger local flux relative to an external calorimetric balance.","test":"Embed different-size sensors in otherwise matched slabs; verify total heat flow independently.","contrary":"Normalized readings converge without a footprint trend.","layers":[1,2,3],"categories":["physical","energy","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0029","title":"Heat-flux sensor footprint","question":"Does an embedded flux sensor alter local transport enough to bias the area-average flux upward?","prediction":"Smaller high-conductivity sensors report larger local flux relative to an external calorimetric balance.","test":"Embed different-size sensors in otherwise matched slabs; verify total heat flow independently.","contrary_outcome":"Normalized readings converge without a footprint trend.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0029","title":"Heat-flux sensor footprint","question":"Does an embedded flux sensor alter local transport enough to bias the area-average flux upward?","prediction":"Smaller high-conductivity sensors report larger local flux relative to an external calorimetric balance.","test":"Embed different-size sensors in otherwise matched slabs; verify total heat flow independently.","contrary_outcome":"Normalized readings converge without a footprint trend.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Does an embedded flux sensor alter local transport enough to bias the area-average flux upward experimental physical mechanism"},"dossier":{"id":"S3-0029","title":"Heat-flux sensor footprint","question":"Does an embedded flux sensor alter local transport enough to bias the area-average flux upward?","prediction":"Smaller high-conductivity sensors report larger local flux relative to an external calorimetric balance.","test":"Embed different-size sensors in otherwise matched slabs; verify total heat flow independently.","contrary_outcome":"Normalized readings converge without a footprint trend.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Does an embedded flux sensor alter local transport enough to bias the area-average flux upward experimental physical mechanism","bibliography":"S. K. Singh, M. K. Yadav and S. Khandekar(2017), Measurement issues associated with surface mounting of thermopile heat flux sensors, Applied Thermal Engineering114:1105–1113; DOI10.1016/j.applthermaleng.2016.12.076.","source_url":"https://www.sciencedirect.com/science/article/pii/S1359431116341898","access_level":"Publisher search result exposed abstract, highlights and introduction; direct open failed. No full methods or raw data accessed.","evidence_scope":"The accessed abstract explicitly addresses thermal intrusion and impedance matching. Thus sensor disturbance is established related prior art. The proposed size-dependent upward bias for a specific embedded geometry remains a conditional extension, and may already have been studied.","primary_measure":"Relative error (local sensor flux−external calorimetric area-average flux)/external flux, dimensionless, versus sensor footprint.","calibration":"Calibrate sensor sensitivity in situ and externally close electrical input, stored heat and losses. Measure sensor/substrate conductivity, thickness and contact resistance. Quantify uncertainty of active area.","comparison_design":"Use interchangeable sensor footprints with identical outer mounting geometry and matched thermal impedance. Compare high-conductivity, impedance-matched and dummy inserts. Independently image temperature fields around each insert.","analysis_plan":"Fit a conjugate heat-transfer model using independently measured properties, then compare predicted local diversion with held-out sensor sizes. Keep calibration data separate from evaluation. Treat the external balance as area-average truth only after energy closure.","conditional_analysis":"A high-conductivity inclusion can draw lateral heat toward itself, but the sign depends on boundaries and interfaces. A parallel-resistance caricature is not proof of the proposed experiment. No universal upward-bias theorem is asserted.","independent_replication":"Replicate with a second sensor technology and separately machined slabs. Gate on external energy closure and sign agreement across independent units; reject the directional claim if calibrated bias is absent or reversed.","proof_status":"Unproved. No new experimental observations, physical demonstration, universal theorem, or worldwide novelty verification is supplied.","decision_rule":"Before collecting confirmation data, use pilot-only noise and engineering resolution to choose a smallest meaningful effect. Fix the confirmatory sample size from independent-unit variance and a declared precision/power target. Support requires the preregistered directional contrast with uncertainty excluding that negligible interval and independent replication. A null or reversed effect with adequate precision is contrary evidence within the tested range; an imprecise null is inconclusive."},"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0030","id":"S3-0030","volume":"900v3","title":"Thermal pulse reciprocity failure","prediction":"Swapping heater and sensor produces unequal pulses only when transient expansion changes a contact.","test":"Swap source/detector positions while independently monitoring contact displacement; compare bonded controls.","contrary":"Asymmetry persists in stable bonded specimens or follows instrument response.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0030","title":"Thermal pulse reciprocity failure","question":"Can contact evolution during a pulse cause apparent heat-propagation nonreciprocity in otherwise reciprocal solids?","prediction":"Swapping heater and sensor produces unequal pulses only when transient expansion changes a contact.","test":"Swap source/detector positions while independently monitoring contact displacement; compare bonded controls.","contrary_outcome":"Asymmetry persists in stable bonded specimens or follows instrument response.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0031","id":"S3-0031","volume":"900v3","title":"Solar absorber angular traps","prediction":"Angle-resolved shortwave absorption remains high while measured longwave loss is lower than a planar control.","test":"Use spectrally characterized low-temperature samples and a calibrated radiative balance across angles.","contrary":"Loss reduction follows lower solar absorption or unaccounted convection.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0031","title":"Solar absorber angular traps","question":"Can a shallow cavity retain solar absorption under oblique light while reducing its thermal infrared escape?","prediction":"Angle-resolved shortwave absorption remains high while measured longwave loss is lower than a planar control.","test":"Use spectrally characterized low-temperature samples and a calibrated radiative balance across angles.","contrary_outcome":"Loss reduction follows lower solar absorption or unaccounted convection.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0032","id":"S3-0032","volume":"900v3","title":"Thermal strain ink","prediction":"Birefringence gradients scale with spatial temperature gradients after uniform expansion is removed.","test":"Calibrate with known gradient fields, crossed polarizers and contact thermometry on a stress-free reference.","contrary":"Optical response tracks ambient stress rather than thermal gradients.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0032","title":"Thermal strain ink","question":"Can a mechanically bonded transparent layer convert sub-kelvin temperature gradients into measurable polarization changes?","prediction":"Birefringence gradients scale with spatial temperature gradients after uniform expansion is removed.","test":"Calibrate with known gradient fields, crossed polarizers and contact thermometry on a stress-free reference.","contrary_outcome":"Optical response tracks ambient stress rather than thermal gradients.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0033","id":"S3-0033","volume":"900v3","title":"Heat leak localization by pause","prediction":"Post-pause temperature curvature differs for a bridge despite equal steady total loss.","test":"Compare insulated water loops with matched distributed and point losses using synchronized thermistors.","contrary":"Both losses produce indistinguishable normalized transients.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0033","title":"Heat leak localization by pause","question":"Does pausing circulation distinguish distributed insulation loss from a localized thermal bridge?","prediction":"Post-pause temperature curvature differs for a bridge despite equal steady total loss.","test":"Compare insulated water loops with matched distributed and point losses using synchronized thermistors.","contrary_outcome":"Both losses produce indistinguishable normalized transients.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0034","id":"S3-0034","volume":"900v3","title":"Thermocapillary contamination gate","prediction":"A barrier increases clean-region circulation without changing the imposed thermal gradient.","test":"Use a water interface with controlled trace surfactant, surface velocimetry and a barrier-free control.","contrary":"Velocity differences track gradient changes or remain absent after surface-pressure verification.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0034","title":"Thermocapillary contamination gate","question":"Can a removable surface barrier restore thermocapillary circulation by confining contaminants away from a hot spot?","prediction":"A barrier increases clean-region circulation without changing the imposed thermal gradient.","test":"Use a water interface with controlled trace surfactant, surface velocimetry and a barrier-free control.","contrary_outcome":"Velocity differences track gradient changes or remain absent after surface-pressure verification.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0035","id":"S3-0035","volume":"900v3","title":"Thermal runaway without chemistry","prediction":"A heated contact jumps between two stable temperatures as preload is slowly varied.","test":"Use a resistive heater with independent constant-power verification and displacement sensing.","contrary":"Temperature changes remain single-valued after full equilibration.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0035","title":"Thermal runaway without chemistry","question":"Can temperature-dependent mechanical contact alone create bistable hot spots under fixed electrical power?","prediction":"A heated contact jumps between two stable temperatures as preload is slowly varied.","test":"Use a resistive heater with independent constant-power verification and displacement sensing.","contrary_outcome":"Temperature changes remain single-valued after full equilibration.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0036","id":"S3-0036","volume":"900v3","title":"Heat-capacity phase ordering","prediction":"Equal-energy protocols end at different temperatures until phase fractions equilibrate.","test":"Apply matched electrical energy histories to a sealed phase-change standard and track calorimetry/diffraction.","contrary":"Temperature differences require unequal energy or vanish before instrumental resolution.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0036","title":"Heat-capacity phase ordering","question":"Can two equal-enthalpy thermal histories leave different temperatures solely because internal phase fractions relax at different rates?","prediction":"Equal-energy protocols end at different temperatures until phase fractions equilibrate.","test":"Apply matched electrical energy histories to a sealed phase-change standard and track calorimetry/diffraction.","contrary_outcome":"Temperature differences require unequal energy or vanish before instrumental resolution.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0037","id":"S3-0037","volume":"900v3","title":"Insulation settling acoustics","prediction":"Contact-network rearrangement changes conductance while height and porosity remain constant.","test":"Measure heat flow and x-ray contact topology before/after controlled taps in a sealed granular bed.","contrary":"Conductance change is fully explained by density or boundary contact changes.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0037","title":"Insulation settling acoustics","question":"Can weak mechanical tapping change heat leakage through granular insulation without measurable bulk settling?","prediction":"Contact-network rearrangement changes conductance while height and porosity remain constant.","test":"Measure heat flow and x-ray contact topology before/after controlled taps in a sealed granular bed.","contrary_outcome":"Conductance change is fully explained by density or boundary contact changes.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0038","id":"S3-0038","volume":"900v3","title":"Cold-edge condensation moat","prediction":"A border preserves clear aperture with lower total power at equal ambient dew point.","test":"Compare annular and uniform heaters, measuring condensation area and integrated electrical power.","contrary":"Clearance requires the same total energy or merely moves droplets into the optical path.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0038","title":"Cold-edge condensation moat","question":"Does a narrow warmer border prevent condensate spreading onto an optical window more efficiently than uniform heating?","prediction":"A border preserves clear aperture with lower total power at equal ambient dew point.","test":"Compare annular and uniform heaters, measuring condensation area and integrated electrical power.","contrary_outcome":"Clearance requires the same total energy or merely moves droplets into the optical path.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0039","id":"S3-0039","volume":"900v3","title":"Thermal expansion ratchet neutrality","prediction":"Net step changes sign when load phase shifts by half a cycle despite symmetric temperature excursions.","test":"Track an inert slider under synchronized heating and load waveforms; include constant-load controls.","contrary":"Displacement follows thermal drift or does not reverse with phase.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0039","title":"Thermal expansion ratchet neutrality","question":"Can a symmetric thermal cycle generate net displacement only when contact normal load is phase shifted?","prediction":"Net step changes sign when load phase shifts by half a cycle despite symmetric temperature excursions.","test":"Track an inert slider under synchronized heating and load waveforms; include constant-load controls.","contrary_outcome":"Displacement follows thermal drift or does not reverse with phase.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0040","id":"S3-0040","volume":"900v3","title":"Heat-wave waveform coding","prediction":"Parameter confidence ellipses shrink at equal injected energy and observation time.","test":"Fit blinded reference slabs using prespecified two-tone and single-tone protocols with correlated-noise analysis.","contrary":"Uncertainty reduction disappears under equal-energy and model-error comparisons.","layers":[1,2,3],"categories":["physical","energy"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0040","title":"Heat-wave waveform coding","question":"Can a two-frequency heating waveform improve separation of thermal diffusivity and surface loss over a single sinusoid?","prediction":"Parameter confidence ellipses shrink at equal injected energy and observation time.","test":"Fit blinded reference slabs using prespecified two-tone and single-tone protocols with correlated-noise analysis.","contrary_outcome":"Uncertainty reduction disappears under equal-energy and model-error comparisons.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0040","title":"Heat-wave waveform coding","question":"Can a two-frequency heating waveform improve separation of thermal diffusivity and surface loss over a single sinusoid?","prediction":"Parameter confidence ellipses shrink at equal injected energy and observation time.","test":"Fit blinded reference slabs using prespecified two-tone and single-tone protocols with correlated-noise analysis.","contrary_outcome":"Uncertainty reduction disappears under equal-energy and model-error comparisons.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a two-frequency heating waveform improve separation of thermal diffusivity and surface loss over a single sinusoid experimental physical mechanism"},"dossier":{"id":"S3-0040","title":"Heat-wave waveform coding","question":"Can a two-frequency heating waveform improve separation of thermal diffusivity and surface loss over a single sinusoid?","prediction":"Parameter confidence ellipses shrink at equal injected energy and observation time.","test":"Fit blinded reference slabs using prespecified two-tone and single-tone protocols with correlated-noise analysis.","contrary_outcome":"Uncertainty reduction disappears under equal-energy and model-error comparisons.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a two-frequency heating waveform improve separation of thermal diffusivity and surface loss over a single sinusoid experimental physical mechanism","bibliography":"L. Perez and L. Autrique(2009), Robust determination of thermal diffusivity values from periodic heating data, Inverse Problems25:045011; DOI10.1088/0266-5611/25/4/045011.","source_url":"https://perso-laris.univ-angers.fr/~autrique/publications/83.pdf","access_level":"Author-hosted primary-paper PDF accessed as text,21pages.","evidence_scope":"The paper develops periodic-heating identification and sensitivity analysis with numerical and material validation. It establishes relevant methodology, not a universal equal-energy advantage for exactly two frequencies.","primary_measure":"Area of joint confidence region for diffusivity α and surface-loss coefficient h; also blinded parameter error on known standards.","calibration":"Calibrate heater power spectrum, sensor amplitude/phase transfer and timing. Independently measure specimen geometry and heat capacity; verify small-signal linearity and periodic steady state.","comparison_design":"Compare single-tone and two-tone drives with equal total injected energy, observation time and maximum temperature excursion. Use reference slabs with known α and independently varied boundary losses. Randomize protocols.","analysis_plan":"Compute the measured-noise-weighted Jacobian and inspect singular values before inversion. Fit correlated noise and compare coverage on held-out standards. Report uncertainty inflation from model mismatch rather than only least-squares curvature.","conditional_analysis":"Conditional Fisher information is JᵀΣ−1J. A second frequency helps only when its sensitivity direction is sufficiently independent and its reduced per-tone energy does not erase that gain. This algebra is an analysis tool, not proof of a new physical discovery or guaranteed improvement.","independent_replication":"Replicate with different heater/sensor systems and independently calibrated standards. Gate on nominal uncertainty coverage, lower held-out error, and an advantage that survives equal-energy, equal-bandwidth and model-error comparisons.","proof_status":"Unproved. No new experimental observations, physical demonstration, universal theorem, or worldwide novelty verification is supplied.","decision_rule":"Before collecting confirmation data, use pilot-only noise and engineering resolution to choose a smallest meaningful effect. Fix the confirmatory sample size from independent-unit variance and a declared precision/power target. Support requires the preregistered directional contrast with uncertainty excluding that negligible interval and independent replication. A null or reversed effect with adequate precision is contrary evidence within the tested range; an imprecise null is inconclusive."},"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0041","id":"S3-0041","volume":"900v3","title":"Thermal meniscus lens","prediction":"Interferometric lens power appears in pure liquid and follows meniscus curvature at matched evaporation rate.","test":"Compare pure-water menisci of controlled curvature with dissolved-tracer concentration checks.","contrary":"Lens power requires concentration accumulation or follows optical window heating.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0041","title":"Thermal meniscus lens","question":"Can curvature-dependent evaporation produce a measurable radial thermal lens before concentration gradients develop?","prediction":"Interferometric lens power appears in pure liquid and follows meniscus curvature at matched evaporation rate.","test":"Compare pure-water menisci of controlled curvature with dissolved-tracer concentration checks.","contrary_outcome":"Lens power requires concentration accumulation or follows optical window heating.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0042","id":"S3-0042","volume":"900v3","title":"Frozen pore pressure echo","prediction":"A delayed temperature excursion coincides with independently measured pressure relaxation.","test":"Instrument millimeter water pores with pressure and temperature sensors plus vented controls.","contrary":"Secondary signals arise equally in vented pores or lack pressure correlation.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0042","title":"Frozen pore pressure echo","question":"Does pressure release from a sealed freezing pore generate a secondary thermal signal after the main freeze front passes?","prediction":"A delayed temperature excursion coincides with independently measured pressure relaxation.","test":"Instrument millimeter water pores with pressure and temperature sensors plus vented controls.","contrary_outcome":"Secondary signals arise equally in vented pores or lack pressure correlation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0043","id":"S3-0043","volume":"900v3","title":"Thermal boundary roughness spectrum","prediction":"Equal-RMS surfaces with longer corrugations yield different conductance when they organize gap channels.","test":"Measure surface spectra and low-temperature conductance under matched mean separation.","contrary":"RMS roughness and mean gap alone explain the results.","layers":[1,2,3],"categories":["physical","energy","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0043","title":"Thermal boundary roughness spectrum","question":"Does the wavelength distribution of roughness matter more than RMS roughness for a gas-gap heat leak?","prediction":"Equal-RMS surfaces with longer corrugations yield different conductance when they organize gap channels.","test":"Measure surface spectra and low-temperature conductance under matched mean separation.","contrary_outcome":"RMS roughness and mean gap alone explain the results.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0043","title":"Thermal boundary roughness spectrum","question":"Does the wavelength distribution of roughness matter more than RMS roughness for a gas-gap heat leak?","prediction":"Equal-RMS surfaces with longer corrugations yield different conductance when they organize gap channels.","test":"Measure surface spectra and low-temperature conductance under matched mean separation.","contrary_outcome":"RMS roughness and mean gap alone explain the results.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Does the wavelength distribution of roughness matter more than RMS roughness for a gas-gap heat leak experimental physical mechanism"},"dossier":{"id":"S3-0043","title":"Thermal boundary roughness spectrum","question":"Does the wavelength distribution of roughness matter more than RMS roughness for a gas-gap heat leak?","prediction":"Equal-RMS surfaces with longer corrugations yield different conductance when they organize gap channels.","test":"Measure surface spectra and low-temperature conductance under matched mean separation.","contrary_outcome":"RMS roughness and mean gap alone explain the results.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Does the wavelength distribution of roughness matter more than RMS roughness for a gas-gap heat leak experimental physical mechanism","bibliography":"Gap conductance in contact heat transfer(2000), International Journal of Heat and Mass Transfer; publisher PII S0017931000000715. Author metadata not verified in this session.","source_url":"https://www.sciencedirect.com/science/article/pii/S0017931000000715","access_level":"Search metadata only. Related Waterloo PDF fetched but had no readable text; screenshot attempt failed. No full-text technical claims are attributed.","evidence_scope":"The source is a related gap-conductance lead. It provides no accessed quantitative support for the proposed correlation-length effect. This dossier is primarily a test plan pending fuller evidence access.","primary_measure":"Gas-gap conductance W/(m²K) at matched mean gap and RMS roughness, contrasted across measured roughness spectra.","calibration":"Traceably calibrate mean separation, topographic power spectrum, gas pressure/composition, temperature difference and parasitic solid/radiative heat paths. Verify no unintended contacts.","comparison_design":"Compare independently fabricated long- and short-correlation roughness at equal RMS height, mean gap and surface chemistry. Include flat plates and rotated textures. Keep gas rarefaction regime fixed.","analysis_plan":"Use full measured gap maps in conduction simulations. Separate prediction based only on RMS from prediction using the spectrum, then test on withheld surfaces. Propagate gap uncertainty, which can dominate the proposed effect.","conditional_analysis":"For locally one-dimensional continuum gas conduction, flux scales roughly with k_g/g; spatial gap distribution matters. Correlation length enters only through lateral transport, contacts or connected flow, so equal one-point gap distributions may erase the effect. No theorem guarantees the prediction.","independent_replication":"Replicate with independently produced textures and a second calorimetric setup. Gate on complete topography and a resolved spectral effect beyond separation uncertainty. Failure to obtain the primary source is an evidence limitation, not a positive result.","proof_status":"Unproved. No new experimental observations, physical demonstration, universal theorem, or worldwide novelty verification is supplied.","decision_rule":"Before collecting confirmation data, use pilot-only noise and engineering resolution to choose a smallest meaningful effect. Fix the confirmatory sample size from independent-unit variance and a declared precision/power target. Support requires the preregistered directional contrast with uncertainty excluding that negligible interval and independent replication. A null or reversed effect with adequate precision is contrary evidence within the tested range; an imprecise null is inconclusive."},"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0044","id":"S3-0044","volume":"900v3","title":"Radiative thermal camouflage limit","prediction":"Matched apparent temperature separates in time because spectral emissivity changes energy balance.","test":"Calibrate true temperature and broadband emissivity; compare time-resolved narrowband radiance.","contrary":"Trajectories remain indistinguishable after true-temperature matching.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0044","title":"Radiative thermal camouflage limit","question":"Can two surfaces identical in one camera band be distinguished by their cooling trajectories after a light pulse?","prediction":"Matched apparent temperature separates in time because spectral emissivity changes energy balance.","test":"Calibrate true temperature and broadband emissivity; compare time-resolved narrowband radiance.","contrary_outcome":"Trajectories remain indistinguishable after true-temperature matching.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0045","id":"S3-0045","volume":"900v3","title":"Thermal reservoir interruption","prediction":"Disconnect transients identify internal storage with less parameter correlation at equal temperature excursion.","test":"Switch a calibrated thermal link in lumped reference assemblies and compare pulse estimation.","contrary":"Identification quality is no better once switch heat and noise are included.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0045","title":"Thermal reservoir interruption","question":"Does brief reservoir disconnection reveal hidden heat capacity better than adding a larger heat pulse?","prediction":"Disconnect transients identify internal storage with less parameter correlation at equal temperature excursion.","test":"Switch a calibrated thermal link in lumped reference assemblies and compare pulse estimation.","contrary_outcome":"Identification quality is no better once switch heat and noise are included.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0046","id":"S3-0046","volume":"900v3","title":"Vapor gap self-centering","prediction":"Measured restoring force grows with tilt and reverses with the thermal gradient.","test":"Use compliant parallel plates with low-temperature water vapor, force sensing and dry-gas controls.","contrary":"Forces follow static capillarity or electrostatics independent of condensation.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0046","title":"Vapor gap self-centering","question":"Can asymmetric condensation in a narrow vapor gap restore a tilted cold plate toward parallel alignment?","prediction":"Measured restoring force grows with tilt and reverses with the thermal gradient.","test":"Use compliant parallel plates with low-temperature water vapor, force sensing and dry-gas controls.","contrary_outcome":"Forces follow static capillarity or electrostatics independent of condensation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0047","id":"S3-0047","volume":"900v3","title":"Heat-pipe startup orientation memory","prediction":"Startup delay persists until capillary redistribution erases a measured saturation gradient.","test":"Use a transparent water heat-pipe analogue with safe temperatures and controlled orientation histories.","contrary":"Delay is predicted solely by instantaneous orientation and reservoir temperature.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0047","title":"Heat-pipe startup orientation memory","question":"Can a drained wick retain a startup penalty after the device returns to its original orientation?","prediction":"Startup delay persists until capillary redistribution erases a measured saturation gradient.","test":"Use a transparent water heat-pipe analogue with safe temperatures and controlled orientation histories.","contrary_outcome":"Delay is predicted solely by instantaneous orientation and reservoir temperature.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0048","id":"S3-0048","volume":"900v3","title":"Thermal bridging by frost fingers","prediction":"The conductance step at spanning exceeds that of equal frost mass added without spanning.","test":"Image bridge formation and measure heat transfer across a controlled cold gap.","contrary":"Conductance increases smoothly with frost mass irrespective of connectivity.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0048","title":"Thermal bridging by frost fingers","question":"Does the first spanning frost branch cause a disproportionate conductance jump compared with its mass?","prediction":"The conductance step at spanning exceeds that of equal frost mass added without spanning.","test":"Image bridge formation and measure heat transfer across a controlled cold gap.","contrary_outcome":"Conductance increases smoothly with frost mass irrespective of connectivity.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0049","id":"S3-0049","volume":"900v3","title":"Radiative cooling under moving shade","prediction":"Net cooling switches sign at a shade-temperature boundary despite constant sky view.","test":"Measure sky radiance, shade temperature and calorimetric cooling while controlling shade motion.","contrary":"Changes are explained by shortwave leakage or airflow alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0049","title":"Radiative cooling under moving shade","question":"Can a moving shade improve daytime radiative cooling only when its thermal emission is kept below a measured threshold?","prediction":"Net cooling switches sign at a shade-temperature boundary despite constant sky view.","test":"Measure sky radiance, shade temperature and calorimetric cooling while controlling shade motion.","contrary_outcome":"Changes are explained by shortwave leakage or airflow alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0050","id":"S3-0050","volume":"900v3","title":"Thermal diffusion across perforations","prediction":"A connected slot produces an arrival-time ridge absent from separated holes.","test":"Pulse laser-safe resistive heaters on machined sheets and compare infrared maps with known geometry.","contrary":"Arrival maps depend only on removed area after boundary conditions are matched.","layers":[1,2,3],"categories":["energy"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0050","title":"Thermal diffusion across perforations","question":"Can the first-arrival thermal map distinguish isolated holes from a connected slot at identical removed area?","prediction":"A connected slot produces an arrival-time ridge absent from separated holes.","test":"Pulse laser-safe resistive heaters on machined sheets and compare infrared maps with known geometry.","contrary_outcome":"Arrival maps depend only on removed area after boundary conditions are matched.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0050","title":"Thermal diffusion across perforations","question":"Can the first-arrival thermal map distinguish isolated holes from a connected slot at identical removed area?","prediction":"A connected slot produces an arrival-time ridge absent from separated holes.","test":"Pulse laser-safe resistive heaters on machined sheets and compare infrared maps with known geometry.","contrary_outcome":"Arrival maps depend only on removed area after boundary conditions are matched.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can the first-arrival thermal map distinguish isolated holes from a connected slot at identical removed area experimental physical mechanism"},"dossier":{"id":"S3-0050","title":"Thermal diffusion across perforations","question":"Can the first-arrival thermal map distinguish isolated holes from a connected slot at identical removed area?","prediction":"A connected slot produces an arrival-time ridge absent from separated holes.","test":"Pulse laser-safe resistive heaters on machined sheets and compare infrared maps with known geometry.","contrary_outcome":"Arrival maps depend only on removed area after boundary conditions are matched.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can the first-arrival thermal map distinguish isolated holes from a connected slot at identical removed area experimental physical mechanism","bibliography":"Characterizing Depth of Defects with Low Size/Depth Aspect Ratio and Low Thermal Reflection by Using Pulsed IR Thermography(2021), PMID33920169; author/DOI verification pending.","source_url":"https://pmc.ncbi.nlm.nih.gov/articles/PMC8069946/","access_level":"Primary-paper bibliographic lead and snippets only; full-text access blocked by browser challenge.","evidence_scope":"The lead concerns thermographic sensitivity to defect dimensions. No inaccessible quantitative finding is treated as evidence for distinguishing connected slots from isolated holes.","primary_measure":"Difference between first-arrival time fields, seconds, and a prespecified connectivity-classification score on held-out specimens.","calibration":"Calibrate time zero, heater spatial uniformity, camera response, spatial resolution, emissivity and baseline diffusivity. Verify hole/slot area and thickness independently. Define arrival against measured noise.","comparison_design":"Compare equal-removed-area connected slots and separated holes with matched position, plate mass and boundary exposure. Include rotated patterns, sealed versus open apertures and void-free controls to separate convection.","analysis_plan":"Fit a common diffusion model using measured geometry; compare arrival ridges rather than tuning a classifier to each image. Estimate error using whole-specimen resampling. Test classification on unseen patterns.","conditional_analysis":"Connectivity changes admissible heat paths, but equal removed area does not isolate topology from perimeter or shape. Use additional controls matching perimeter where possible. Heat smoothing may erase distinctions; no inverse uniqueness proof is provided.","independent_replication":"Replicate on independently machined plates with another heating pattern and camera. Gate on blinded classification and persistence after mass, perimeter, convection and emissivity controls.","proof_status":"Unproved. No new experimental observations, physical demonstration, universal theorem, or worldwide novelty verification is supplied.","decision_rule":"Before collecting confirmation data, use pilot-only noise and engineering resolution to choose a smallest meaningful effect. Fix the confirmatory sample size from independent-unit variance and a declared precision/power target. Support requires the preregistered directional contrast with uncertainty excluding that negligible interval and independent replication. A null or reversed effect with adequate precision is contrary evidence within the tested range; an imprecise null is inconclusive."},"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0051","id":"S3-0051","volume":"900v3","title":"Heat harvesting back-action","prediction":"A location ranked highest open-circuit yields lower delivered energy once thermal back-action is included.","test":"Compare loaded modules and passive thermal replicas with direct heat-flow balances.","contrary":"Loaded ranking matches open-circuit ranking within uncertainty.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0051","title":"Heat harvesting back-action","question":"Does adding a thermoelectric load alter the local gradient enough to change the ranking of thermal source locations?","prediction":"A location ranked highest open-circuit yields lower delivered energy once thermal back-action is included.","test":"Compare loaded modules and passive thermal replicas with direct heat-flow balances.","contrary_outcome":"Loaded ranking matches open-circuit ranking within uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0052","id":"S3-0052","volume":"900v3","title":"Evaporative skin detachment","prediction":"A cooling ring coincides with lifted-skin advance before visible cracking.","test":"Dry a nonhazardous polymer film with profilometry, infrared imaging and crack microscopy.","contrary":"Cooling rings appear only at cracks or reflect emissivity differences.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0052","title":"Evaporative skin detachment","question":"Can delamination of a thin drying skin create a transient cooling ring independent of crack formation?","prediction":"A cooling ring coincides with lifted-skin advance before visible cracking.","test":"Dry a nonhazardous polymer film with profilometry, infrared imaging and crack microscopy.","contrary_outcome":"Cooling rings appear only at cracks or reflect emissivity differences.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0053","id":"S3-0053","volume":"900v3","title":"Thermal fin crowding transition","prediction":"A decline in heat removal coincides with boundary-layer merger under fixed externally measured flow.","test":"Map air temperature and velocity between adjustable fins and compare total calorimetry.","contrary":"Cooling remains monotonic or decline is explained by fan operating-point changes.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0053","title":"Thermal fin crowding transition","question":"Can increasing fin count reduce total cooling when adjacent boundary layers merge before average airflow falls?","prediction":"A decline in heat removal coincides with boundary-layer merger under fixed externally measured flow.","test":"Map air temperature and velocity between adjustable fins and compare total calorimetry.","contrary_outcome":"Cooling remains monotonic or decline is explained by fan operating-point changes.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0054","id":"S3-0054","volume":"900v3","title":"Latent heat spatial phase lag","prediction":"Melt-fraction phase advances spatially in a way absent from sensible-heat controls.","test":"Use a transparent phase-change slab with phase imaging and multi-point thermometry under periodic heating.","contrary":"Observed phase propagation matches temperature diffusion alone.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0054","title":"Latent heat spatial phase lag","question":"Does an oscillating heat source produce a traveling melt-fraction wave even when mean heat transport is stationary?","prediction":"Melt-fraction phase advances spatially in a way absent from sensible-heat controls.","test":"Use a transparent phase-change slab with phase imaging and multi-point thermometry under periodic heating.","contrary_outcome":"Observed phase propagation matches temperature diffusion alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0055","id":"S3-0055","volume":"900v3","title":"Thermal cup radiance bias","prediction":"Surface radiance predicts a different stored enthalpy from calibrated depth profiles during transient cooling.","test":"Record radiance, depth thermistors and mass loss in shallow and deep cups.","contrary":"Surface measurements recover enthalpy within uncertainty using uniform-temperature calibration.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0055","title":"Thermal cup radiance bias","question":"Does evaporation cause infrared thermometry to systematically miss subsurface thermal stratification in a small water cup?","prediction":"Surface radiance predicts a different stored enthalpy from calibrated depth profiles during transient cooling.","test":"Record radiance, depth thermistors and mass loss in shallow and deep cups.","contrary_outcome":"Surface measurements recover enthalpy within uncertainty using uniform-temperature calibration.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0056","id":"S3-0056","volume":"900v3","title":"Heat-exchanger flow reversal","prediction":"Effective conductance rises immediately after reversal while measured deposit geometry stays fixed.","test":"Use an inert removable gel deposit in a water exchanger and image flow and deposit thickness.","contrary":"Improvement requires deposit removal or follows inlet-temperature transients.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0056","title":"Heat-exchanger flow reversal","question":"Can periodic reversal improve heat recovery by erasing a localized fouling thermal boundary layer without moving the foulant?","prediction":"Effective conductance rises immediately after reversal while measured deposit geometry stays fixed.","test":"Use an inert removable gel deposit in a water exchanger and image flow and deposit thickness.","contrary_outcome":"Improvement requires deposit removal or follows inlet-temperature transients.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0057","id":"S3-0057","volume":"900v3","title":"Thermal phase-boundary acoustics","prediction":"Attenuation changes track front area while transit time barely changes.","test":"Use a calibrated wax cell with simultaneous imaging and low-power ultrasound.","contrary":"Attenuation responds mainly to bubbles or coupling changes.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0057","title":"Thermal phase-boundary acoustics","question":"Can acoustic attenuation indicate a moving melt front more robustly than sound speed when phases have similar velocities?","prediction":"Attenuation changes track front area while transit time barely changes.","test":"Use a calibrated wax cell with simultaneous imaging and low-power ultrasound.","contrary_outcome":"Attenuation responds mainly to bubbles or coupling changes.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0058","id":"S3-0058","volume":"900v3","title":"Infrared parallax thermometry","prediction":"Reflected hot regions move with camera angle while real hot regions stay registered to the surface.","test":"Rotate calibrated views around a heated curved metal standard and compare contact sensors.","contrary":"Both features move similarly after geometric registration.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0058","title":"Infrared parallax thermometry","question":"Can changing viewing angle separate true hot spots from reflections on a low-emissivity curved surface?","prediction":"Reflected hot regions move with camera angle while real hot regions stay registered to the surface.","test":"Rotate calibrated views around a heated curved metal standard and compare contact sensors.","contrary_outcome":"Both features move similarly after geometric registration.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0059","id":"S3-0059","volume":"900v3","title":"Thermal stress crack shielding","prediction":"A slit delays crack onset in one orientation despite increasing mechanical stress concentration.","test":"Use brittle nonhazardous coupons with matched flaws; measure full-field temperature and strain during cooling.","contrary":"Slits always accelerate cracking once flaw size is controlled.","layers":[1,2,3],"categories":["energy","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0059","title":"Thermal stress crack shielding","question":"Can a pre-existing blunt slit suppress a thermally driven crack by diverting heat before stress concentration dominates?","prediction":"A slit delays crack onset in one orientation despite increasing mechanical stress concentration.","test":"Use brittle nonhazardous coupons with matched flaws; measure full-field temperature and strain during cooling.","contrary_outcome":"Slits always accelerate cracking once flaw size is controlled.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0059","title":"Thermal stress crack shielding","question":"Can a pre-existing blunt slit suppress a thermally driven crack by diverting heat before stress concentration dominates?","prediction":"A slit delays crack onset in one orientation despite increasing mechanical stress concentration.","test":"Use brittle nonhazardous coupons with matched flaws; measure full-field temperature and strain during cooling.","contrary_outcome":"Slits always accelerate cracking once flaw size is controlled.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a pre-existing blunt slit suppress a thermally driven crack by diverting heat before stress concentration dominates experimental physical mechanism"},"dossier":{"id":"S3-0059","title":"Thermal stress crack shielding","question":"Can a pre-existing blunt slit suppress a thermally driven crack by diverting heat before stress concentration dominates?","prediction":"A slit delays crack onset in one orientation despite increasing mechanical stress concentration.","test":"Use brittle nonhazardous coupons with matched flaws; measure full-field temperature and strain during cooling.","contrary_outcome":"Slits always accelerate cracking once flaw size is controlled.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a pre-existing blunt slit suppress a thermally driven crack by diverting heat before stress concentration dominates experimental physical mechanism","bibliography":"A. Sonoda, S. Kashiwagi, S. Hamada and H. Noguchi(2008), Quantitative Evaluation of Heat Crack Initiation Condition Under Thermal Shock, Journal of Solid Mechanics and Materials Engineering2(1):128ff; DOI10.1299/jmmp.2.128.","source_url":"https://www.jstage.jst.go.jp/article/jmmp/2/1/2_1_128/_pdf","access_level":"Primary-paper PDF accessed as text,9pages.","evidence_scope":"The paper compares thermal-stress gradients and notched tensile specimens. Its high-temperature steel experiments are related mechanics evidence; they do not prove slit-induced thermal shielding or prescribe a safe laboratory protocol.","primary_measure":"Critical imposed cooling contrast at first verified crack, K, plus measured local strain and temperature gradients.","calibration":"Calibrate geometry, initial flaw size, cooling field, camera timing and strain response. Measure modulus, expansion coefficient and fracture resistance independently on safe restrained coupons.","comparison_design":"Use a factorial design: slit orientation versus no slit, and thermal-gradient loading versus mechanically matched isothermal loading. This separates heat-path diversion from ordinary stress concentration. Enclose small coupons and choose mild conditions during pilots.","analysis_plan":"Compute thermoelastic stresses from measured temperature fields and independently calibrated boundaries. Compare crack onset against a fracture criterion with propagated material uncertainty; validate on withheld slit orientations.","conditional_analysis":"Thermal stress scales with constrained expansion and local temperature gradients, while a slit also concentrates mechanical stress. The net sign can change with geometry and boundary conditions. A finite-element fit is conditional model evidence, not proof of a newly proposed universal shielding law.","independent_replication":"Replicate with separately prepared flaw populations and an independent cooling method. Gate on consistent thermal delay, direct measured heat diversion and failure of the isothermal control to show the same protective effect.","proof_status":"Unproved. No new experimental observations, physical demonstration, universal theorem, or worldwide novelty verification is supplied.","decision_rule":"Before collecting confirmation data, use pilot-only noise and engineering resolution to choose a smallest meaningful effect. Fix the confirmatory sample size from independent-unit variance and a declared precision/power target. Support requires the preregistered directional contrast with uncertainty excluding that negligible interval and independent replication. A null or reversed effect with adequate precision is contrary evidence within the tested range; an imprecise null is inconclusive."},"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0060","id":"S3-0060","volume":"900v3","title":"Heat-capacity distribution fingerprint","prediction":"Pulse-order dependence separates assemblies with identical total heat capacity and conductance.","test":"Build reference assemblies with relocated masses; compare blinded shuffled-pulse temperature records.","contrary":"Responses collapse after fitting total capacity and boundary conductance.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0060","title":"Heat-capacity distribution fingerprint","question":"Can a specimen's response to shuffled equal-energy pulses reveal internal heat-capacity placement?","prediction":"Pulse-order dependence separates assemblies with identical total heat capacity and conductance.","test":"Build reference assemblies with relocated masses; compare blinded shuffled-pulse temperature records.","contrary_outcome":"Responses collapse after fitting total capacity and boundary conductance.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0061","id":"S3-0061","volume":"900v3","title":"Thermal capillary-valve reset","prediction":"Rewetting begins below the dryout temperature and depends on independently imaged vapor connectivity.","test":"Pulse a transparent water wick, cool slowly and measure saturation and pressure.","contrary":"Hysteresis disappears with thermal-lag correction or occurs without vapor blockage.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0061","title":"Thermal capillary-valve reset","question":"Does capillary rewetting after a heat pulse require a distinct cooling threshold because trapped vapor blocks liquid access?","prediction":"Rewetting begins below the dryout temperature and depends on independently imaged vapor connectivity.","test":"Pulse a transparent water wick, cool slowly and measure saturation and pressure.","contrary_outcome":"Hysteresis disappears with thermal-lag correction or occurs without vapor blockage.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0062","id":"S3-0062","volume":"900v3","title":"Convection roll birth position","prediction":"Roll phase retains seed location for many turnover times at unchanged boundary heating.","test":"Use a small transparent convection cell; randomize seed location and compare unseeded restarts.","contrary":"Roll location decorrelates within the measured hydrodynamic relaxation time.","layers":[1,2],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0062","title":"Convection roll birth position","question":"Can a brief local thermal seed select a persistent convection-roll position after the seed is removed?","prediction":"Roll phase retains seed location for many turnover times at unchanged boundary heating.","test":"Use a small transparent convection cell; randomize seed location and compare unseeded restarts.","contrary_outcome":"Roll location decorrelates within the measured hydrodynamic relaxation time.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0062","title":"Convection roll birth position","question":"Can a brief local thermal seed select a persistent convection-roll position after the seed is removed?","prediction":"Roll phase retains seed location for many turnover times at unchanged boundary heating.","test":"Use a small transparent convection cell; randomize seed location and compare unseeded restarts.","contrary_outcome":"Roll location decorrelates within the measured hydrodynamic relaxation time.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a brief local thermal seed select a persistent convection-roll position after the seed is removed experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0063","id":"S3-0063","volume":"900v3","title":"Thermal mirror cooling imbalance","prediction":"Angle-dependent cooling differs from scalar view-factor predictions in dry clear conditions.","test":"Measure polarized sky spectra and paired calorimetric plates with matched convection.","contrary":"Scalar radiance fully accounts for the measured heat imbalance.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0063","title":"Thermal mirror cooling imbalance","question":"Can matched radiative surfaces at different angles cool unequally because of polarization-dependent sky radiance?","prediction":"Angle-dependent cooling differs from scalar view-factor predictions in dry clear conditions.","test":"Measure polarized sky spectra and paired calorimetric plates with matched convection.","contrary_outcome":"Scalar radiance fully accounts for the measured heat imbalance.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0064","id":"S3-0064","volume":"900v3","title":"Thermal bond aging marker","prediction":"Creep shifts the fast interface mode while independently measured bulk aging shifts the slow mode.","test":"Age bonded standards under controlled load; compare thermal spectra, microscopy and bulk controls.","contrary":"Mode ratios cannot separate the independently imposed changes.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0064","title":"Thermal bond aging marker","question":"Can the ratio of fast and slow thermal modes distinguish adhesive creep from bulk aging?","prediction":"Creep shifts the fast interface mode while independently measured bulk aging shifts the slow mode.","test":"Age bonded standards under controlled load; compare thermal spectra, microscopy and bulk controls.","contrary_outcome":"Mode ratios cannot separate the independently imposed changes.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0065","id":"S3-0065","volume":"900v3","title":"Heat-sink wetting front","prediction":"Downstream temperature overshoots before the front arrives due to displaced warm air.","test":"Image wetting and air motion while controlling water temperature and electrical input.","contrary":"Overshoot occurs without wetting or is explained by supply-water temperature.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0065","title":"Heat-sink wetting front","question":"Does a moving wetting front create a temporary hot spot downstream despite lowering mean heat-sink temperature?","prediction":"Downstream temperature overshoots before the front arrives due to displaced warm air.","test":"Image wetting and air motion while controlling water temperature and electrical input.","contrary_outcome":"Overshoot occurs without wetting or is explained by supply-water temperature.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0065","title":"Heat-sink wetting front","question":"Does a moving wetting front create a temporary hot spot downstream despite lowering mean heat-sink temperature?","prediction":"Downstream temperature overshoots before the front arrives due to displaced warm air.","test":"Image wetting and air motion while controlling water temperature and electrical input.","contrary_outcome":"Overshoot occurs without wetting or is explained by supply-water temperature.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Does a moving wetting front create a temporary hot spot downstream despite lowering mean heat-sink temperature experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0066","id":"S3-0066","volume":"900v3","title":"Thermal calibration self-shadow","prediction":"Sticker temperatures diverge from bare-surface true temperature as radiative loss grows.","test":"Compare tiny stickers of measured emissivity with buried calibrated sensors over ambient temperatures.","contrary":"Differences remain within conduction corrections and sensor uncertainty.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0066","title":"Thermal calibration self-shadow","question":"Can a calibration sticker bias the very hot spot it is intended to measure through altered radiation loss?","prediction":"Sticker temperatures diverge from bare-surface true temperature as radiative loss grows.","test":"Compare tiny stickers of measured emissivity with buried calibrated sensors over ambient temperatures.","contrary_outcome":"Differences remain within conduction corrections and sensor uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0067","id":"S3-0067","volume":"900v3","title":"Phase-change foam buoyancy","prediction":"Localized melting generates tilt growth while total buoyancy remains positive.","test":"Image melt fraction and foam attitude in a temperature-controlled bath with mechanically restrained controls.","contrary":"Instability begins only at the mean-density crossing or follows bath currents.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0067","title":"Phase-change foam buoyancy","question":"Can buoyant melt redistribution destabilize a floating phase-change foam before its average density crosses the liquid density?","prediction":"Localized melting generates tilt growth while total buoyancy remains positive.","test":"Image melt fraction and foam attitude in a temperature-controlled bath with mechanically restrained controls.","contrary_outcome":"Instability begins only at the mean-density crossing or follows bath currents.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0068","id":"S3-0068","volume":"900v3","title":"Thermal pressure-phase measurement","prediction":"Pressure-temperature phase under two cavity sizes breaks the single-size fitting degeneracy.","test":"Use inert gas at modest pressure with traceable volume and temperature calibration.","contrary":"Parameters remain nonidentifiable or leaks dominate phase.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0068","title":"Thermal pressure-phase measurement","question":"Can gas pressure oscillations in a sealed cavity separate wall heat capacity from gas thermal accommodation?","prediction":"Pressure-temperature phase under two cavity sizes breaks the single-size fitting degeneracy.","test":"Use inert gas at modest pressure with traceable volume and temperature calibration.","contrary_outcome":"Parameters remain nonidentifiable or leaks dominate phase.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0069","id":"S3-0069","volume":"900v3","title":"Thin-film thermal recovery asymmetry","prediction":"Thermal arrival anisotropy follows three-dimensional path length rather than molecular orientation.","test":"Compare pre/post-flattening thermography and independent in-plane conductivity measurements.","contrary":"Anisotropy persists after geometry correction and tracks molecular orientation.","layers":[1,2],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0069","title":"Thin-film thermal recovery asymmetry","question":"Does a mechanically wrinkled film recover temperature faster across wrinkle crests than along them even when material conductivity is isotropic?","prediction":"Thermal arrival anisotropy follows three-dimensional path length rather than molecular orientation.","test":"Compare pre/post-flattening thermography and independent in-plane conductivity measurements.","contrary_outcome":"Anisotropy persists after geometry correction and tracks molecular orientation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0069","title":"Thin-film thermal recovery asymmetry","question":"Does a mechanically wrinkled film recover temperature faster across wrinkle crests than along them even when material conductivity is isotropic?","prediction":"Thermal arrival anisotropy follows three-dimensional path length rather than molecular orientation.","test":"Compare pre/post-flattening thermography and independent in-plane conductivity measurements.","contrary_outcome":"Anisotropy persists after geometry correction and tracks molecular orientation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Does a mechanically wrinkled film recover temperature faster across wrinkle crests than along them even when material conductivity is isotropic experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0070","id":"S3-0070","volume":"900v3","title":"Heat flux at contact-line depinning","prediction":"The impulse area scales with newly exposed wetted perimeter rather than total droplet volume.","test":"Synchronize contact-line imaging and microcalorimetry; compare pinned smooth controls.","contrary":"No impulse exceeds instrument response or it scales only with volume loss.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0070","title":"Heat flux at contact-line depinning","question":"Does a receding droplet's depinning event generate a heat-flux impulse with conserved area under matched evaporation?","prediction":"The impulse area scales with newly exposed wetted perimeter rather than total droplet volume.","test":"Synchronize contact-line imaging and microcalorimetry; compare pinned smooth controls.","contrary_outcome":"No impulse exceeds instrument response or it scales only with volume loss.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0071","id":"S3-0071","volume":"900v3","title":"Thermal storage return-map","prediction":"Return-map residuals become history-dependent before calorimetry detects capacity loss.","test":"Cycle sealed benign phase-change mixtures and compare microscopy with blinded residual analysis.","contrary":"Residuals are explained by ambient drift and reveal no earlier structural change.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0071","title":"Thermal storage return-map","question":"Can a cycle-to-cycle temperature return map expose slow phase segregation before average capacity changes?","prediction":"Return-map residuals become history-dependent before calorimetry detects capacity loss.","test":"Cycle sealed benign phase-change mixtures and compare microscopy with blinded residual analysis.","contrary_outcome":"Residuals are explained by ambient drift and reveal no earlier structural change.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0072","id":"S3-0072","volume":"900v3","title":"Cooling plume wall attachment","prediction":"Approaching the wall first enhances then suppresses cooling at fixed surface temperature.","test":"Measure plume velocimetry and calorimetric flux as wall spacing changes.","contrary":"Cooling changes monotonically or follows wall conduction rather than plume attachment.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0072","title":"Cooling plume wall attachment","question":"Can a nearby insulated wall bend a cold plume enough to reverse local natural-convection heat transfer trends?","prediction":"Approaching the wall first enhances then suppresses cooling at fixed surface temperature.","test":"Measure plume velocimetry and calorimetric flux as wall spacing changes.","contrary_outcome":"Cooling changes monotonically or follows wall conduction rather than plume attachment.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0073","id":"S3-0073","volume":"900v3","title":"Thermal switch chatter","prediction":"High-frequency contact cycling generates an intermediate state with excess mechanical dissipation.","test":"Measure electrical heater input, heat flow and contact motion under slow ambient ramps.","contrary":"Total heat remains bounded by the stable-state interpolation after controller effects are removed.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0073","title":"Thermal switch chatter","question":"Can a passive contact switch dissipate more heat while chattering than in either stable contact state?","prediction":"High-frequency contact cycling generates an intermediate state with excess mechanical dissipation.","test":"Measure electrical heater input, heat flow and contact motion under slow ambient ramps.","contrary_outcome":"Total heat remains bounded by the stable-state interpolation after controller effects are removed.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0074","id":"S3-0074","volume":"900v3","title":"Heat-conductance uncertainty floor","prediction":"Reducing readout noise stops improving buried-interface estimates once sensor heat capacity dominates.","test":"Use calibrated sensor masses on identical slabs and fit pulse data with/without sensor dynamics.","contrary":"Uncertainty keeps improving as readout noise falls or has no mass dependence.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0074","title":"Heat-conductance uncertainty floor","question":"Does finite sensor mass impose a depth-dependent uncertainty floor on inverse diffusivity estimates?","prediction":"Reducing readout noise stops improving buried-interface estimates once sensor heat capacity dominates.","test":"Use calibrated sensor masses on identical slabs and fit pulse data with/without sensor dynamics.","contrary_outcome":"Uncertainty keeps improving as readout noise falls or has no mass dependence.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0075","id":"S3-0075","volume":"900v3","title":"Thermal boundary slip analogy","prediction":"An apparent jump scales with optical spatial averaging rather than true interface physics.","test":"Measure a known fluid-solid standard with several spatial resolutions and a conduction reference.","contrary":"The jump remains invariant to resolution with traceable calibration.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0075","title":"Thermal boundary slip analogy","question":"Can near-wall temperature gradients in a microgap mimic a temperature jump without interfacial resistance?","prediction":"An apparent jump scales with optical spatial averaging rather than true interface physics.","test":"Measure a known fluid-solid standard with several spatial resolutions and a conduction reference.","contrary_outcome":"The jump remains invariant to resolution with traceable calibration.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0076","id":"S3-0076","volume":"900v3","title":"Radiative cavity exchange delay","prediction":"Fitted capacity depends on lining thermal mass when cavity temperature is treated as fixed.","test":"Compare light and heavy linings with monitored wall temperatures and electrical object heating.","contrary":"Recovered capacity is lining-independent even under the fixed-wall approximation.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0076","title":"Radiative cavity exchange delay","question":"Can a slowly warming cavity lining create an apparent heat capacity larger than the enclosed object during radiative calorimetry?","prediction":"Fitted capacity depends on lining thermal mass when cavity temperature is treated as fixed.","test":"Compare light and heavy linings with monitored wall temperatures and electrical object heating.","contrary_outcome":"Recovered capacity is lining-independent even under the fixed-wall approximation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0076","title":"Radiative cavity exchange delay","question":"Can a slowly warming cavity lining create an apparent heat capacity larger than the enclosed object during radiative calorimetry?","prediction":"Fitted capacity depends on lining thermal mass when cavity temperature is treated as fixed.","test":"Compare light and heavy linings with monitored wall temperatures and electrical object heating.","contrary_outcome":"Recovered capacity is lining-independent even under the fixed-wall approximation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a slowly warming cavity lining create an apparent heat capacity larger than the enclosed object during radiative calorimetry experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0077","id":"S3-0077","volume":"900v3","title":"Thermal pulse sign ambiguity","prediction":"A positive local temperature derivative appears without any chemical or phase-change heat source.","test":"Cool an inert layered assembly rapidly and verify total energy balance and internal gradients.","contrary":"Positive derivatives require an unmodeled energy source or fail energy closure.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0077","title":"Thermal pulse sign ambiguity","question":"Can a buried exothermic-looking signal be produced entirely by delayed sensible-heat return after surface cooling?","prediction":"A positive local temperature derivative appears without any chemical or phase-change heat source.","test":"Cool an inert layered assembly rapidly and verify total energy balance and internal gradients.","contrary_outcome":"Positive derivatives require an unmodeled energy source or fail energy closure.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0078","id":"S3-0078","volume":"900v3","title":"Evaporation edge insulation","prediction":"Central evaporation flux decreases although central liquid temperature and exposed area are held constant.","test":"Use spatial humidity mapping over water pans with thermally controlled perimeter rings.","contrary":"Central flux is unchanged or fully explained by central temperature shifts.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0078","title":"Evaporation edge insulation","question":"Does insulating only the perimeter reduce evaporative cooling nonlocally by changing the vapor boundary layer?","prediction":"Central evaporation flux decreases although central liquid temperature and exposed area are held constant.","test":"Use spatial humidity mapping over water pans with thermally controlled perimeter rings.","contrary_outcome":"Central flux is unchanged or fully explained by central temperature shifts.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0079","id":"S3-0079","volume":"900v3","title":"Thermal freckle growth","prediction":"Defect temperatures develop correlated oscillations under constant uniform illumination.","test":"Use patterned absorbers, constant-power illumination and spatial thermal time-series controls.","contrary":"Correlations vanish after shared illumination noise is removed.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0079","title":"Thermal freckle growth","question":"Can isolated small emissivity defects synchronize into a larger temperature pattern through lateral conduction feedback?","prediction":"Defect temperatures develop correlated oscillations under constant uniform illumination.","test":"Use patterned absorbers, constant-power illumination and spatial thermal time-series controls.","contrary_outcome":"Correlations vanish after shared illumination noise is removed.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0080","id":"S3-0080","volume":"900v3","title":"Heat-spreading direction switch","prediction":"Peak temperature briefly moves upstream when a source crosses a conductivity boundary.","test":"Move a resistive microheater across a characterized anisotropic laminate and map temperature.","contrary":"The peak always follows the source after correcting camera lag.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0080","title":"Heat-spreading direction switch","question":"Can anisotropic conduction cause the hottest location to move opposite the direction of a moving source?","prediction":"Peak temperature briefly moves upstream when a source crosses a conductivity boundary.","test":"Move a resistive microheater across a characterized anisotropic laminate and map temperature.","contrary_outcome":"The peak always follows the source after correcting camera lag.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0081","id":"S3-0081","volume":"900v3","title":"Condensate bridge rupture cooling","prediction":"An undershoot occurs from evaporation of the remnant after conductive connection is severed.","test":"Rupture controlled water bridges while measuring remnant volume and transient heat flux.","contrary":"The transient is only recovery from removed conduction with no evaporative undershoot.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0081","title":"Condensate bridge rupture cooling","question":"Does rupture of a warm condensate bridge cause a measurable cooling undershoot in a colder contact?","prediction":"An undershoot occurs from evaporation of the remnant after conductive connection is severed.","test":"Rupture controlled water bridges while measuring remnant volume and transient heat flux.","contrary_outcome":"The transient is only recovery from removed conduction with no evaporative undershoot.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0082","id":"S3-0082","volume":"900v3","title":"Thermal surface roughening feedback","prediction":"Post-loss roughness increases angular emissivity and changes calorimetric cooling at matched mass.","test":"Measure ice topography, angle-resolved radiance and heat balance before and after controlled dry-air exposure.","contrary":"Cooling changes are explained entirely by mass and latent heat loss.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0082","title":"Thermal surface roughening feedback","question":"Can sublimation-like mass loss from benign ice roughen a surface enough to measurably alter subsequent radiative cooling?","prediction":"Post-loss roughness increases angular emissivity and changes calorimetric cooling at matched mass.","test":"Measure ice topography, angle-resolved radiance and heat balance before and after controlled dry-air exposure.","contrary_outcome":"Cooling changes are explained entirely by mass and latent heat loss.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0083","id":"S3-0083","volume":"900v3","title":"Thermal diffusion bottleneck migration","prediction":"Sensitivity to a local perturbation shifts from one layer to another over a temperature ramp.","test":"Use low-temperature composite standards with known temperature-dependent conductivities and local probes.","contrary":"The same layer dominates throughout the calibrated range.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0083","title":"Thermal diffusion bottleneck migration","question":"Can the dominant thermal resistance move within a composite as its components warm, without any phase change?","prediction":"Sensitivity to a local perturbation shifts from one layer to another over a temperature ramp.","test":"Use low-temperature composite standards with known temperature-dependent conductivities and local probes.","contrary_outcome":"The same layer dominates throughout the calibrated range.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0084","id":"S3-0084","volume":"900v3","title":"Heat-load queueing in PCM","prediction":"Final spatial melt fraction differs while net stored enthalpy remains matched within uncertainty.","test":"Apply paired and merged pulses to a transparent phase-change cavity; measure heat loss and phase fraction.","contrary":"Spatial differences vanish after energy and boundary histories are matched.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0084","title":"Heat-load queueing in PCM","question":"Can separated heat pulses leave less unmelted storage than a merged pulse of equal energy because freezing intervenes unevenly?","prediction":"Final spatial melt fraction differs while net stored enthalpy remains matched within uncertainty.","test":"Apply paired and merged pulses to a transparent phase-change cavity; measure heat loss and phase fraction.","contrary_outcome":"Spatial differences vanish after energy and boundary histories are matched.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0084","title":"Heat-load queueing in PCM","question":"Can separated heat pulses leave less unmelted storage than a merged pulse of equal energy because freezing intervenes unevenly?","prediction":"Final spatial melt fraction differs while net stored enthalpy remains matched within uncertainty.","test":"Apply paired and merged pulses to a transparent phase-change cavity; measure heat loss and phase fraction.","contrary_outcome":"Spatial differences vanish after energy and boundary histories are matched.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can separated heat pulses leave less unmelted storage than a merged pulse of equal energy because freezing intervenes unevenly experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0085","id":"S3-0085","volume":"900v3","title":"Thermal microbalance cross-talk","prediction":"Apparent mass changes persist for a sealed non-evaporating reference under the same thermal history.","test":"Run paired sealed/open cups with support-temperature monitoring and external gravimetric verification.","contrary":"The sealed control shows no signal and open-cup loss matches independent collection.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0085","title":"Thermal microbalance cross-talk","question":"Can thermal expansion of a sample support imitate mass loss during evaporation measurements?","prediction":"Apparent mass changes persist for a sealed non-evaporating reference under the same thermal history.","test":"Run paired sealed/open cups with support-temperature monitoring and external gravimetric verification.","contrary_outcome":"The sealed control shows no signal and open-cup loss matches independent collection.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0086","id":"S3-0086","volume":"900v3","title":"Thermal entropy accounting gap","prediction":"Time-resolved reservoir data yields a larger integrated entropy-production estimate than endpoint temperatures.","test":"Use calibrated reservoirs, heat-flux sensors and explicit uncertainty propagation in passive heat exchange.","contrary":"Endpoint and transient estimates agree within uncertainty across pulse schedules.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0086","title":"Thermal entropy accounting gap","question":"Does neglecting transient reservoir temperatures systematically understate entropy production in pulsed heat transport?","prediction":"Time-resolved reservoir data yields a larger integrated entropy-production estimate than endpoint temperatures.","test":"Use calibrated reservoirs, heat-flux sensors and explicit uncertainty propagation in passive heat exchange.","contrary_outcome":"Endpoint and transient estimates agree within uncertainty across pulse schedules.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0087","id":"S3-0087","volume":"900v3","title":"Heat-pulse modal orthogonality","prediction":"A heater near a measured nodal region reveals a slow mode obscured under central heating.","test":"Map modes in a reference plate, then compare equal-energy pulses at prespecified positions.","contrary":"Mode visibility follows only signal amplitude rather than modal overlap.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0087","title":"Heat-pulse modal orthogonality","question":"Can heater placement suppress one thermal mode enough to improve estimation of an otherwise hidden mode?","prediction":"A heater near a measured nodal region reveals a slow mode obscured under central heating.","test":"Map modes in a reference plate, then compare equal-energy pulses at prespecified positions.","contrary_outcome":"Mode visibility follows only signal amplitude rather than modal overlap.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0088","id":"S3-0088","volume":"900v3","title":"Thermal tether competition","prediction":"Unequal tether time constants create transient common-mode leakage not predicted by static conductance.","test":"Compare single- and double-tether standards with independently measured conductance and ambient steps.","contrary":"Responses match once total conductance is held equal.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0088","title":"Thermal tether competition","question":"Can two conductive tethers make a suspended sensor more sensitive to ambient drift than one tether with equal total conductance?","prediction":"Unequal tether time constants create transient common-mode leakage not predicted by static conductance.","test":"Compare single- and double-tether standards with independently measured conductance and ambient steps.","contrary_outcome":"Responses match once total conductance is held equal.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0089","id":"S3-0089","volume":"900v3","title":"Capillary condenser pressure reset","prediction":"Pressure steps propagate before detectable temperature changes and predict subsequent flow redistribution.","test":"Use a transparent low-pressure water network with pressure taps, imaging and isothermal drainage controls.","contrary":"Pressure follows temperature changes or does not predict redistribution.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0089","title":"Capillary condenser pressure reset","question":"Can draining one condensate slug reset pressure throughout a network before local temperatures respond?","prediction":"Pressure steps propagate before detectable temperature changes and predict subsequent flow redistribution.","test":"Use a transparent low-pressure water network with pressure taps, imaging and isothermal drainage controls.","contrary_outcome":"Pressure follows temperature changes or does not predict redistribution.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0090","id":"S3-0090","volume":"900v3","title":"Thermal averaging noncommutation","prediction":"The radiance-derived average ranks targets differently from the area mean of calibrated true temperatures.","test":"Use patterned blackbody-reference targets with controlled temperature distributions and full spectral calibration.","contrary":"Rankings agree across the tested heterogeneity range.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0090","title":"Thermal averaging noncommutation","question":"Can averaging a radiance image before temperature conversion reverse the ranking of two heterogeneous targets?","prediction":"The radiance-derived average ranks targets differently from the area mean of calibrated true temperatures.","test":"Use patterned blackbody-reference targets with controlled temperature distributions and full spectral calibration.","contrary_outcome":"Rankings agree across the tested heterogeneity range.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0090","title":"Thermal averaging noncommutation","question":"Can averaging a radiance image before temperature conversion reverse the ranking of two heterogeneous targets?","prediction":"The radiance-derived average ranks targets differently from the area mean of calibrated true temperatures.","test":"Use patterned blackbody-reference targets with controlled temperature distributions and full spectral calibration.","contrary_outcome":"Rankings agree across the tested heterogeneity range.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can averaging a radiance image before temperature conversion reverse the ranking of two heterogeneous targets experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0091","id":"S3-0091","volume":"900v3","title":"Thermal front obstacle clock","prediction":"Dwell time varies reproducibly with calibrated contact conductance after obstacle heat capacity is matched.","test":"Image fronts crossing identical obstacles with independently set thermal links.","contrary":"Dwell time tracks only obstacle volume or local illumination.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0091","title":"Thermal front obstacle clock","question":"Can the waiting time of a melt front at a thermally isolated obstacle encode the obstacle's hidden contact conductance?","prediction":"Dwell time varies reproducibly with calibrated contact conductance after obstacle heat capacity is matched.","test":"Image fronts crossing identical obstacles with independently set thermal links.","contrary_outcome":"Dwell time tracks only obstacle volume or local illumination.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0092","id":"S3-0092","volume":"900v3","title":"Acoustic aperture delay","prediction":"Group-delay changes follow boundary acceleration at fixed air temperature.","test":"Compare microphone transfer functions with static-position controls and laser displacement.","contrary":"The delay is explained by the instantaneous aperture geometry alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0092","title":"Acoustic aperture delay","question":"Can an aperture's moving boundary imitate dispersive sound propagation?","prediction":"Group-delay changes follow boundary acceleration at fixed air temperature.","test":"Compare microphone transfer functions with static-position controls and laser displacement.","contrary_outcome":"The delay is explained by the instantaneous aperture geometry alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0093","id":"S3-0093","volume":"900v3","title":"Echo branch pruning","prediction":"A weak echo becomes identifiable when a stronger path is damped despite lower total received energy.","test":"Measure impulse responses with a removable absorber and blinded target locations.","contrary":"Target localization worsens or improvement disappears under equal-noise comparison.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0093","title":"Echo branch pruning","question":"Does selectively damping one reflected acoustic path improve recovery of a weaker hidden echo?","prediction":"A weak echo becomes identifiable when a stronger path is damped despite lower total received energy.","test":"Measure impulse responses with a removable absorber and blinded target locations.","contrary_outcome":"Target localization worsens or improvement disappears under equal-noise comparison.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0094","id":"S3-0094","volume":"900v3","title":"Acoustic contact polarity","prediction":"Harmonic phase reverses with static loading direction while fundamental transmission changes little.","test":"Use inert cracked coupons with measured crack displacement and bonded controls.","contrary":"Phase follows instrumentation or remains insensitive to loading direction.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0094","title":"Acoustic contact polarity","question":"Can reversible contact opening make second-harmonic phase identify which face of a buried crack is loaded?","prediction":"Harmonic phase reverses with static loading direction while fundamental transmission changes little.","test":"Use inert cracked coupons with measured crack displacement and bonded controls.","contrary_outcome":"Phase follows instrumentation or remains insensitive to loading direction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0094","title":"Acoustic contact polarity","question":"Can reversible contact opening make second-harmonic phase identify which face of a buried crack is loaded?","prediction":"Harmonic phase reverses with static loading direction while fundamental transmission changes little.","test":"Use inert cracked coupons with measured crack displacement and bonded controls.","contrary_outcome":"Phase follows instrumentation or remains insensitive to loading direction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can reversible contact opening make second-harmonic phase identify which face of a buried crack is loaded experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0095","id":"S3-0095","volume":"900v3","title":"Water-wave defect breathing","prediction":"Residence time rises when gap motion is synchronized with packet arrival.","test":"Track low-amplitude water waves and barrier displacement for randomized phase controls.","contrary":"Residence time equals the static-width average after actuator waves are removed.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0095","title":"Water-wave defect breathing","question":"Can an oscillating gap in a barrier trap a surface-wave packet longer than a static gap with equal average width?","prediction":"Residence time rises when gap motion is synchronized with packet arrival.","test":"Track low-amplitude water waves and barrier displacement for randomized phase controls.","contrary_outcome":"Residence time equals the static-width average after actuator waves are removed.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0096","id":"S3-0096","volume":"900v3","title":"Optical caustic calibration","prediction":"Two separated observation planes resolve curvature sign that one plane cannot.","test":"Image a transparent calibrated meniscus at two planes with low-power light.","contrary":"Both planes retain the same sign ambiguity within noise.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0096","title":"Optical caustic calibration","question":"Can a weak caustic amplify interface curvature measurements without losing sign information?","prediction":"Two separated observation planes resolve curvature sign that one plane cannot.","test":"Image a transparent calibrated meniscus at two planes with low-power light.","contrary_outcome":"Both planes retain the same sign ambiguity within noise.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0097","id":"S3-0097","volume":"900v3","title":"Acoustic porous bypass","prediction":"Phase shifts detect the bypass at smaller opening area than transmission magnitude.","test":"Measure complex sound transmission through a controlled wet plug and machined bypasses.","contrary":"Amplitude detects openings equally early after uncertainty normalization.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0097","title":"Acoustic porous bypass","question":"Does a single air bypass through a wet porous plug dominate phase before it dominates amplitude?","prediction":"Phase shifts detect the bypass at smaller opening area than transmission magnitude.","test":"Measure complex sound transmission through a controlled wet plug and machined bypasses.","contrary_outcome":"Amplitude detects openings equally early after uncertainty normalization.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0098","id":"S3-0098","volume":"900v3","title":"Waveguide thermal drift sorting","prediction":"Opposite-path phase combinations separate expansion and temperature contributions.","test":"Calibrate folded and straight guides under controlled wall strain and air temperature.","contrary":"The inferred effects remain nonidentifiable.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0098","title":"Waveguide thermal drift sorting","question":"Can correlated phase drift distinguish wall expansion from sound-speed drift in a folded acoustic guide?","prediction":"Opposite-path phase combinations separate expansion and temperature contributions.","test":"Calibrate folded and straight guides under controlled wall strain and air temperature.","contrary_outcome":"The inferred effects remain nonidentifiable.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0099","id":"S3-0099","volume":"900v3","title":"Optical speckle drainage clock","prediction":"Speckle motion precedes calibrated outflow pulses while rigid-body motion remains negligible.","test":"Drain a transparent granular pack under low-power illumination with mass and displacement sensing.","contrary":"Precursor disappears after vibration and illumination drift correction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0099","title":"Optical speckle drainage clock","question":"Can decorrelation of transmitted speckle predict pore-drainage bursts before outflow is measurable?","prediction":"Speckle motion precedes calibrated outflow pulses while rigid-body motion remains negligible.","test":"Drain a transparent granular pack under low-power illumination with mass and displacement sensing.","contrary_outcome":"Precursor disappears after vibration and illumination drift correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0100","id":"S3-0100","volume":"900v3","title":"Elastic pulse edge circulation","prediction":"Mode conversion at a gradual bend lowers reflected energy despite extra path length.","test":"Measure full-field vibrations in bent and mechanically matched joined plates.","contrary":"Transmission changes are explained solely by different damping.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0100","title":"Elastic pulse edge circulation","question":"Can a bent thin plate route a pulse around an edge with less reflection than an equal-length straight attachment?","prediction":"Mode conversion at a gradual bend lowers reflected energy despite extra path length.","test":"Measure full-field vibrations in bent and mechanically matched joined plates.","contrary_outcome":"Transmission changes are explained solely by different damping.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0100","title":"Elastic pulse edge circulation","question":"Can a bent thin plate route a pulse around an edge with less reflection than an equal-length straight attachment?","prediction":"Mode conversion at a gradual bend lowers reflected energy despite extra path length.","test":"Measure full-field vibrations in bent and mechanically matched joined plates.","contrary_outcome":"Transmission changes are explained solely by different damping.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a bent thin plate route a pulse around an edge with less reflection than an equal-length straight attachment experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0101","id":"S3-0101","volume":"900v3","title":"Acoustic damping localization","prediction":"Their spatial decay patterns remain different despite matched frequencies and quality factors.","test":"Map vibration fields of deliberately matched damped plates with scanning vibrometry.","contrary":"Spatial decay maps are indistinguishable after mode normalization.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0101","title":"Acoustic damping localization","question":"Can two resonances with identical frequencies discriminate a localized damped patch from uniform loss?","prediction":"Their spatial decay patterns remain different despite matched frequencies and quality factors.","test":"Map vibration fields of deliberately matched damped plates with scanning vibrometry.","contrary_outcome":"Spatial decay maps are indistinguishable after mode normalization.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0102","id":"S3-0102","volume":"900v3","title":"Optical wetting fringe inversion","prediction":"Pinned segments show a phase discontinuity in fringe velocity independent of absolute order.","test":"Compare interferometry with side-view contact-line imaging on calibrated steps.","contrary":"Discontinuities track illumination or phase-unwrapping failure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0102","title":"Optical wetting fringe inversion","question":"Can fringe order changes locate contact-line pinning without knowing absolute film thickness?","prediction":"Pinned segments show a phase discontinuity in fringe velocity independent of absolute order.","test":"Compare interferometry with side-view contact-line imaging on calibrated steps.","contrary_outcome":"Discontinuities track illumination or phase-unwrapping failure.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0103","id":"S3-0103","volume":"900v3","title":"Sound-source orientation ambiguity","prediction":"Adding a characterized scatterer breaks twofold orientation degeneracy in transfer functions.","test":"Use known low-power acoustic dipoles and blinded orientation fits before/after obstacle insertion.","contrary":"Orientation remains ambiguous or obstacle uncertainty exceeds the gain.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0103","title":"Sound-source orientation ambiguity","question":"Can a second small obstacle resolve dipole-source orientation hidden in a symmetric cavity?","prediction":"Adding a characterized scatterer breaks twofold orientation degeneracy in transfer functions.","test":"Use known low-power acoustic dipoles and blinded orientation fits before/after obstacle insertion.","contrary_outcome":"Orientation remains ambiguous or obstacle uncertainty exceeds the gain.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0104","id":"S3-0104","volume":"900v3","title":"Wave-packet energy ledger","prediction":"Amplitude increases while integrated kinetic-plus-potential flux stays constant within loss bounds.","test":"Measure surface elevation and particle velocity across a gentle narrowing.","contrary":"Flux grows beyond calibrated forcing and uncertainty bounds.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0104","title":"Wave-packet energy ledger","question":"Can apparent surface-wave amplification near a narrowing channel be explained without net energy gain?","prediction":"Amplitude increases while integrated kinetic-plus-potential flux stays constant within loss bounds.","test":"Measure surface elevation and particle velocity across a gentle narrowing.","contrary_outcome":"Flux grows beyond calibrated forcing and uncertainty bounds.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0104","title":"Wave-packet energy ledger","question":"Can apparent surface-wave amplification near a narrowing channel be explained without net energy gain?","prediction":"Amplitude increases while integrated kinetic-plus-potential flux stays constant within loss bounds.","test":"Measure surface elevation and particle velocity across a gentle narrowing.","contrary_outcome":"Flux grows beyond calibrated forcing and uncertainty bounds.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can apparent surface-wave amplification near a narrowing channel be explained without net energy gain experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0105","id":"S3-0105","volume":"900v3","title":"Optical strain-slip sentinel","prediction":"Slip generates asymmetric sidebands at equal mean grating spacing.","test":"Apply controlled strain to bonded and directly etched gratings; independently image adhesive displacement.","contrary":"Sidebands track substrate strain alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0105","title":"Optical strain-slip sentinel","question":"Can a bonded diffraction grating distinguish substrate strain from adhesive slip through sideband asymmetry?","prediction":"Slip generates asymmetric sidebands at equal mean grating spacing.","test":"Apply controlled strain to bonded and directly etched gratings; independently image adhesive displacement.","contrary_outcome":"Sidebands track substrate strain alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0106","id":"S3-0106","volume":"900v3","title":"Acoustic vent hysteresis","prediction":"Meniscus connectivity yields different low-frequency reactance on the two histories.","test":"Measure impedance, mass and meniscus images of a benign water-wetted vent.","contrary":"Impedance is uniquely determined by retained mass.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0106","title":"Acoustic vent hysteresis","question":"Can moisture at a vent produce different acoustic impedance after wetting and drying at equal retained water mass?","prediction":"Meniscus connectivity yields different low-frequency reactance on the two histories.","test":"Measure impedance, mass and meniscus images of a benign water-wetted vent.","contrary_outcome":"Impedance is uniquely determined by retained mass.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0107","id":"S3-0107","volume":"900v3","title":"Optical path cancellation","prediction":"Opposed passes cancel a uniform refractive-index change but add calibrated surface-motion phase.","test":"Use reference cells with independently actuated surface and controlled bulk temperature.","contrary":"Both perturbations cancel together or bulk residuals dominate.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0107","title":"Optical path cancellation","question":"Can symmetric double-pass imaging suppress bulk refractive drift while retaining surface displacement sensitivity?","prediction":"Opposed passes cancel a uniform refractive-index change but add calibrated surface-motion phase.","test":"Use reference cells with independently actuated surface and controlled bulk temperature.","contrary_outcome":"Both perturbations cancel together or bulk residuals dominate.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0108","id":"S3-0108","volume":"900v3","title":"Acoustic granular precursor","prediction":"Phase-coupling statistics change before any frequency shift exceeds uncertainty.","test":"Load a sealed granular resonator slowly with simultaneous force imaging and acoustic probes.","contrary":"Coupling changes require detectable frequency shifts or follow drive nonlinearity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0108","title":"Acoustic granular precursor","question":"Can cross-mode phase coupling detect a weak force-chain rearrangement before resonance frequency shifts?","prediction":"Phase-coupling statistics change before any frequency shift exceeds uncertainty.","test":"Load a sealed granular resonator slowly with simultaneous force imaging and acoustic probes.","contrary_outcome":"Coupling changes require detectable frequency shifts or follow drive nonlinearity.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0109","id":"S3-0109","volume":"900v3","title":"Water-wave angular memory","prediction":"Arrival-time fringes distinguish incident angles that share the same dominant frequency.","test":"Use a measured shallow-water topography and blinded incident directions.","contrary":"Patterns are explained only by total energy and carrier frequency.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0109","title":"Water-wave angular memory","question":"Can a shoal retain wave-direction information in the time pattern of downstream interference after a short pulse?","prediction":"Arrival-time fringes distinguish incident angles that share the same dominant frequency.","test":"Use a measured shallow-water topography and blinded incident directions.","contrary_outcome":"Patterns are explained only by total energy and carrier frequency.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0110","id":"S3-0110","volume":"900v3","title":"Elastic defect reciprocity check","prediction":"Simultaneous swaps eliminate an asymmetry present in sequential measurements.","test":"Measure a passive plate with synchronized reciprocal probes during controlled thermal drift.","contrary":"Asymmetry persists beyond simultaneous instrumental uncertainty.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0110","title":"Elastic defect reciprocity check","question":"Can temperature drift create apparent elastic nonreciprocity in sequential source-receiver swaps?","prediction":"Simultaneous swaps eliminate an asymmetry present in sequential measurements.","test":"Measure a passive plate with synchronized reciprocal probes during controlled thermal drift.","contrary_outcome":"Asymmetry persists beyond simultaneous instrumental uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0111","id":"S3-0111","volume":"900v3","title":"Optical microbubble depth marker","prediction":"Wall proximity changes polarization ratios before projected shape visibly deforms.","test":"Translate a trapped air bubble near a transparent wall and measure polarized scattering.","contrary":"Ratios depend only on bubble size and incident-angle error.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0111","title":"Optical microbubble depth marker","question":"Can polarization-resolved scattering distinguish a near-wall bubble from a free bubble of the same projected size?","prediction":"Wall proximity changes polarization ratios before projected shape visibly deforms.","test":"Translate a trapped air bubble near a transparent wall and measure polarized scattering.","contrary_outcome":"Ratios depend only on bubble size and incident-angle error.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0112","id":"S3-0112","volume":"900v3","title":"Sound insulation seam resonance","prediction":"A coupled cavity resonance yields a nonmonotonic leak with seam width.","test":"Sweep calibrated acoustic transmission while measuring actual seam dimensions.","contrary":"Transmission grows monotonically after cavity resonances are accounted for.","layers":[1,2],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0112","title":"Sound insulation seam resonance","question":"Can a nearly closed seam transmit more sound than a wider seam at a narrow frequency band?","prediction":"A coupled cavity resonance yields a nonmonotonic leak with seam width.","test":"Sweep calibrated acoustic transmission while measuring actual seam dimensions.","contrary_outcome":"Transmission grows monotonically after cavity resonances are accounted for.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0112","title":"Sound insulation seam resonance","question":"Can a nearly closed seam transmit more sound than a wider seam at a narrow frequency band?","prediction":"A coupled cavity resonance yields a nonmonotonic leak with seam width.","test":"Sweep calibrated acoustic transmission while measuring actual seam dimensions.","contrary_outcome":"Transmission grows monotonically after cavity resonances are accounted for.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a nearly closed seam transmit more sound than a wider seam at a narrow frequency band experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0113","id":"S3-0113","volume":"900v3","title":"Optical rotating roughness","prediction":"Detector-fixed angular structure remains stationary while surface structure rotates.","test":"Measure calibrated roughness standards under randomized rotations and detector orientations.","contrary":"All observed anisotropy co-rotates with the sample.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0113","title":"Optical rotating roughness","question":"Can rotation of an isotropically rough sample separate detector-fixed speckle bias from true surface anisotropy?","prediction":"Detector-fixed angular structure remains stationary while surface structure rotates.","test":"Measure calibrated roughness standards under randomized rotations and detector orientations.","contrary_outcome":"All observed anisotropy co-rotates with the sample.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0114","id":"S3-0114","volume":"900v3","title":"Acoustic pulse compression limit","prediction":"Reduced peak width accompanies enough delayed energy to preserve the measured bandwidth constraint.","test":"Record long impulse responses with calibrated dynamic range and deconvolved transducers.","contrary":"Sharpening persists without the predicted tail within the validated time window.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0114","title":"Acoustic pulse compression limit","question":"Can a passive resonator sharpen an output pulse only by creating a delayed low-amplitude tail?","prediction":"Reduced peak width accompanies enough delayed energy to preserve the measured bandwidth constraint.","test":"Record long impulse responses with calibrated dynamic range and deconvolved transducers.","contrary_outcome":"Sharpening persists without the predicted tail within the validated time window.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0115","id":"S3-0115","volume":"900v3","title":"Surface-wave saddle trapping","prediction":"Dwell time peaks near a geometric separatrix and depends strongly on launch position.","test":"Map water-wave packets across a machined saddle and a monotonic-slope control.","contrary":"Delays reflect only local depth and path length.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0115","title":"Surface-wave saddle trapping","question":"Can a shallow bathymetric saddle delay a wave packet without forming a closed resonant basin?","prediction":"Dwell time peaks near a geometric separatrix and depends strongly on launch position.","test":"Map water-wave packets across a machined saddle and a monotonic-slope control.","contrary_outcome":"Delays reflect only local depth and path length.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0116","id":"S3-0116","volume":"900v3","title":"Optical focus breathing","prediction":"Focus phase versus drive frequency separates the two independently calibrated relaxation times.","test":"Compare free and clamped lenses under small safe thermal modulation.","contrary":"Both mechanisms remain degenerate in the measured transfer function.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0116","title":"Optical focus breathing","question":"Can a weak periodic deformation of a lens distinguish bulk index relaxation from mounting creep?","prediction":"Focus phase versus drive frequency separates the two independently calibrated relaxation times.","test":"Compare free and clamped lenses under small safe thermal modulation.","contrary_outcome":"Both mechanisms remain degenerate in the measured transfer function.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0117","id":"S3-0117","volume":"900v3","title":"Elastic nodal contact sensing","prediction":"A finite contact shifts frequency where point-mass loading predicts negligible shift.","test":"Place calibrated clamps near measured nodes and map mode shapes.","contrary":"Frequency shifts vanish at the node or match mass loading alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0117","title":"Elastic nodal contact sensing","question":"Can contact placed at a mode's displacement node still shift its frequency through rotational constraint?","prediction":"A finite contact shifts frequency where point-mass loading predicts negligible shift.","test":"Place calibrated clamps near measured nodes and map mode shapes.","contrary_outcome":"Frequency shifts vanish at the node or match mass loading alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0118","id":"S3-0118","volume":"900v3","title":"Acoustic bubble shielding","prediction":"The small bubble's response amplitude drops through phase-coherent coupling.","test":"Drive low-pressure air bubbles in water and compare isolated and paired transfer functions.","contrary":"Changes follow only altered local drive amplitude or bubble-size drift.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0118","title":"Acoustic bubble shielding","question":"Can a large bubble suppress the response of a smaller neighbor even when their isolated resonances are separated?","prediction":"The small bubble's response amplitude drops through phase-coherent coupling.","test":"Drive low-pressure air bubbles in water and compare isolated and paired transfer functions.","contrary_outcome":"Changes follow only altered local drive amplitude or bubble-size drift.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0119","id":"S3-0119","volume":"900v3","title":"Optical turbidity path ordering","prediction":"Early-photon arrival distributions distinguish layer order despite matched integrated intensity.","test":"Measure low-power pulsed transmission of calibrated inert scatterers in reversed order.","contrary":"Arrival distributions are reciprocal and order-independent within instrument response.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0119","title":"Optical turbidity path ordering","question":"Can reversing two scattering layers change time-gated transmission while leaving total transmission unchanged?","prediction":"Early-photon arrival distributions distinguish layer order despite matched integrated intensity.","test":"Measure low-power pulsed transmission of calibrated inert scatterers in reversed order.","contrary_outcome":"Arrival distributions are reciprocal and order-independent within instrument response.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0120","id":"S3-0120","volume":"900v3","title":"Water-wave porous boundary","prediction":"Absorption rises with pore flow even as near-bed velocity peaks increase.","test":"Measure reflection and particle velocimetry around a transparent porous shoreline analogue.","contrary":"Reduced reflection always accompanies reduced bed shear.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0120","title":"Water-wave porous boundary","question":"Can a porous boundary reduce reflected surface-wave energy while increasing local bed shear?","prediction":"Absorption rises with pore flow even as near-bed velocity peaks increase.","test":"Measure reflection and particle velocimetry around a transparent porous shoreline analogue.","contrary_outcome":"Reduced reflection always accompanies reduced bed shear.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0120","title":"Water-wave porous boundary","question":"Can a porous boundary reduce reflected surface-wave energy while increasing local bed shear?","prediction":"Absorption rises with pore flow even as near-bed velocity peaks increase.","test":"Measure reflection and particle velocimetry around a transparent porous shoreline analogue.","contrary_outcome":"Reduced reflection always accompanies reduced bed shear.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a porous boundary reduce reflected surface-wave energy while increasing local bed shear experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0121","id":"S3-0121","volume":"900v3","title":"Acoustic leak location degeneracy","prediction":"Transient phase perturbations differ with leak position after equal static shifts are matched.","test":"Use a cavity with interchangeable calibrated leaks and a non-destructive mechanical tap.","contrary":"Leak positions remain indistinguishable.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0121","title":"Acoustic leak location degeneracy","question":"Can a controlled boundary tap distinguish leaks that produce identical steady resonance shifts?","prediction":"Transient phase perturbations differ with leak position after equal static shifts are matched.","test":"Use a cavity with interchangeable calibrated leaks and a non-destructive mechanical tap.","contrary_outcome":"Leak positions remain indistinguishable.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0122","id":"S3-0122","volume":"900v3","title":"Optical edge phase singularity","prediction":"A phase zero disappears across a curvature threshold while integrated power stays constant.","test":"Measure interferometric far fields of lithographically characterized masks.","contrary":"The singularity persists or changes only with total power.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0122","title":"Optical edge phase singularity","question":"Can smoothing one corner annihilate a diffraction phase singularity without appreciably changing total scattered power?","prediction":"A phase zero disappears across a curvature threshold while integrated power stays constant.","test":"Measure interferometric far fields of lithographically characterized masks.","contrary_outcome":"The singularity persists or changes only with total power.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0123","id":"S3-0123","volume":"900v3","title":"Elastic wave thermal preconditioning","prediction":"Transmission changes correlate with gap closure and exceed bonded-control temperature dependence.","test":"Probe a low-load interface with acoustic pulses and displacement metrology during mild heating.","contrary":"Bonded controls reproduce the entire response.","layers":[1],"categories":["physical","energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0123","title":"Elastic wave thermal preconditioning","question":"Can a short heat pulse alter elastic transmission mainly by closing a contact rather than changing bulk modulus?","prediction":"Transmission changes correlate with gap closure and exceed bonded-control temperature dependence.","test":"Probe a low-load interface with acoustic pulses and displacement metrology during mild heating.","contrary_outcome":"Bonded controls reproduce the entire response.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0124","id":"S3-0124","volume":"900v3","title":"Acoustic standing-wave bookkeeping","prediction":"Calibrated pressure peaks overpredict transmitted power where velocity nearly vanishes.","test":"Measure pressure-velocity phase and local heating in a lossy resonator.","contrary":"Pressure alone predicts both power and dissipation within uncertainty.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0124","title":"Acoustic standing-wave bookkeeping","question":"Can a pressure antinode coincide with low acoustic energy flux yet high local dissipation?","prediction":"Calibrated pressure peaks overpredict transmitted power where velocity nearly vanishes.","test":"Measure pressure-velocity phase and local heating in a lossy resonator.","contrary_outcome":"Pressure alone predicts both power and dissipation within uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0125","id":"S3-0125","volume":"900v3","title":"Optical capillary relaxation spectrum","prediction":"Full-field mode projections separate rates that a point trace fits as one.","test":"Deform a benign water interface briefly and compare full-field and point inversions.","contrary":"Mode rates remain unidentifiable after full-field calibration.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0125","title":"Optical capillary relaxation spectrum","question":"Can the decay of a distorted interface recover two capillary modes hidden in its height at a single point?","prediction":"Full-field mode projections separate rates that a point trace fits as one.","test":"Deform a benign water interface briefly and compare full-field and point inversions.","contrary_outcome":"Mode rates remain unidentifiable after full-field calibration.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0125","title":"Optical capillary relaxation spectrum","question":"Can the decay of a distorted interface recover two capillary modes hidden in its height at a single point?","prediction":"Full-field mode projections separate rates that a point trace fits as one.","test":"Deform a benign water interface briefly and compare full-field and point inversions.","contrary_outcome":"Mode rates remain unidentifiable after full-field calibration.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can the decay of a distorted interface recover two capillary modes hidden in its height at a single point experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0126","id":"S3-0126","volume":"900v3","title":"Granular acoustic aging reset","prediction":"Resonance drift resets while tomography and volume remain unchanged.","test":"Age a sealed bead packing, perturb weakly and compare repeat resonance/time histories.","contrary":"Reset requires measurable densification or heating.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0126","title":"Granular acoustic aging reset","question":"Can a brief low-amplitude vibration erase acoustic aging without changing bulk packing fraction?","prediction":"Resonance drift resets while tomography and volume remain unchanged.","test":"Age a sealed bead packing, perturb weakly and compare repeat resonance/time histories.","contrary_outcome":"Reset requires measurable densification or heating.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0127","id":"S3-0127","volume":"900v3","title":"Optical path-crossing label","prediction":"Temporal phase continuity resolves identity better than centroid tracking alone.","test":"Move calibrated transparent beads on crossing trajectories with independently known identities.","contrary":"Phase histories do not improve identity assignment under blinded scoring.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0127","title":"Optical path-crossing label","question":"Can two indistinguishable transparent inclusions be tracked through an apparent crossing using their phase-delay history?","prediction":"Temporal phase continuity resolves identity better than centroid tracking alone.","test":"Move calibrated transparent beads on crossing trajectories with independently known identities.","contrary_outcome":"Phase histories do not improve identity assignment under blinded scoring.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0128","id":"S3-0128","volume":"900v3","title":"Wave basin drain coupling","prediction":"A new low-frequency split follows reservoir-neck compliance rather than bulk depth.","test":"Measure surface modes, reservoir level and neck flow with a sealed-reservoir control.","contrary":"All shifts are explained by mean-depth change.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0128","title":"Wave basin drain coupling","question":"Can a slowly draining side reservoir split a standing water-wave mode before mean bath depth changes detectably?","prediction":"A new low-frequency split follows reservoir-neck compliance rather than bulk depth.","test":"Measure surface modes, reservoir level and neck flow with a sealed-reservoir control.","contrary_outcome":"All shifts are explained by mean-depth change.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0129","id":"S3-0129","volume":"900v3","title":"Acoustic soft-wall radiation","prediction":"Impedance matching transfers more power into a radiating mode despite smaller local motion.","test":"Measure total acoustic power, full wall motion and actuator force on interchangeable walls.","contrary":"Radiation tracks only drive-point displacement.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0129","title":"Acoustic soft-wall radiation","question":"Can adding a compliant wall increase sound radiation while reducing wall displacement at the drive point?","prediction":"Impedance matching transfers more power into a radiating mode despite smaller local motion.","test":"Measure total acoustic power, full wall motion and actuator force on interchangeable walls.","contrary_outcome":"Radiation tracks only drive-point displacement.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0130","id":"S3-0130","volume":"900v3","title":"Optical occlusion depth cue","prediction":"Defocus dependence of edge diffraction identifies axial position.","test":"Translate known transparent phase objects and compare blinded location recovery with and without occluder.","contrary":"Occlusion provides no axial information beyond aperture-induced resolution change.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0130","title":"Optical occlusion depth cue","question":"Can partial occlusion of a coherent beam locate a phase object when ordinary intensity imaging cannot?","prediction":"Defocus dependence of edge diffraction identifies axial position.","test":"Translate known transparent phase objects and compare blinded location recovery with and without occluder.","contrary_outcome":"Occlusion provides no axial information beyond aperture-induced resolution change.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0130","title":"Optical occlusion depth cue","question":"Can partial occlusion of a coherent beam locate a phase object when ordinary intensity imaging cannot?","prediction":"Defocus dependence of edge diffraction identifies axial position.","test":"Translate known transparent phase objects and compare blinded location recovery with and without occluder.","contrary_outcome":"Occlusion provides no axial information beyond aperture-induced resolution change.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can partial occlusion of a coherent beam locate a phase object when ordinary intensity imaging cannot experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0131","id":"S3-0131","volume":"900v3","title":"Elastic wave branch conversion","prediction":"Converted phase follows ramp orientation at fixed input energy.","test":"Measure vector displacement across reversed ramps using low-amplitude excitation.","contrary":"Apparent conversion is explained by transducer cross-talk.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0131","title":"Elastic wave branch conversion","question":"Can a local thickness ramp convert bending into longitudinal energy with a preferred output phase?","prediction":"Converted phase follows ramp orientation at fixed input energy.","test":"Measure vector displacement across reversed ramps using low-amplitude excitation.","contrary_outcome":"Apparent conversion is explained by transducer cross-talk.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0132","id":"S3-0132","volume":"900v3","title":"Acoustic evaporating drop pulse","prediction":"Resonance jumps align with contact-line depinning rather than smooth volume loss.","test":"Track droplet volume, contact angle and weak acoustic response simultaneously.","contrary":"Resonance evolves smoothly with volume and has no depinning signature.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0132","title":"Acoustic evaporating drop pulse","question":"Can slow evaporation sweep a droplet through an acoustic resonance sharply enough to identify contact-angle hysteresis?","prediction":"Resonance jumps align with contact-line depinning rather than smooth volume loss.","test":"Track droplet volume, contact angle and weak acoustic response simultaneously.","contrary_outcome":"Resonance evolves smoothly with volume and has no depinning signature.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0133","id":"S3-0133","volume":"900v3","title":"Optical cavity contamination localization","prediction":"Mode-dependent ringdown departures correlate with absorber position.","test":"Use low-power cavities with movable benign absorbers and calibrated scatterers.","contrary":"Equal-loss conditions produce identical mode-normalized decays.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0133","title":"Optical cavity contamination localization","question":"Can the decay shape of a cavity distinguish localized absorption from uniform scattering at equal total loss?","prediction":"Mode-dependent ringdown departures correlate with absorber position.","test":"Use low-power cavities with movable benign absorbers and calibrated scatterers.","contrary_outcome":"Equal-loss conditions produce identical mode-normalized decays.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0134","id":"S3-0134","volume":"900v3","title":"Water-wave edge leakage","prediction":"Radiated angular peaks shift systematically with corner rounding.","test":"Map low-amplitude surface fields near interchangeable shoreline corners.","contrary":"Radiation is isotropic or controlled only by incident direction.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0134","title":"Water-wave edge leakage","question":"Can a sharp boundary corner leak trapped edge-wave energy preferentially into one angle?","prediction":"Radiated angular peaks shift systematically with corner rounding.","test":"Map low-amplitude surface fields near interchangeable shoreline corners.","contrary_outcome":"Radiation is isotropic or controlled only by incident direction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0135","id":"S3-0135","volume":"900v3","title":"Acoustic feedback phase trap","prediction":"Closed-loop damping changes sign near a measured phase inversion while the passive system remains stable.","test":"Use a low-power speaker duct with bounded feedback gain and independent phase calibration.","contrary":"Instability threshold follows only gain magnitude.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0135","title":"Acoustic feedback phase trap","question":"Can a passive side branch create a frequency where a feedback controller's apparent damping reverses sign?","prediction":"Closed-loop damping changes sign near a measured phase inversion while the passive system remains stable.","test":"Use a low-power speaker duct with bounded feedback gain and independent phase calibration.","contrary_outcome":"Instability threshold follows only gain magnitude.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0136","id":"S3-0136","volume":"900v3","title":"Optical hydration boundary","prediction":"The outline contrast vanishes before front contrast does because local saturation remains heterogeneous.","test":"Use safe index-matched fluid and transparent porous standards with independent saturation imaging.","contrary":"Both contrasts vanish together or front contrast is only scattering from trapped air.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0136","title":"Optical hydration boundary","question":"Can refractive-index matching hide a porous sample's outline while retaining a detectable internal drainage front?","prediction":"The outline contrast vanishes before front contrast does because local saturation remains heterogeneous.","test":"Use safe index-matched fluid and transparent porous standards with independent saturation imaging.","contrary_outcome":"Both contrasts vanish together or front contrast is only scattering from trapped air.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0137","id":"S3-0137","volume":"900v3","title":"Elastic scattering correlation","prediction":"Delayed energy depends on defect spacing through multiple scattering.","test":"Compare single and paired machined notches with full-field pulse measurements.","contrary":"The pair response equals the linear sum of isolated responses at all delays.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0137","title":"Elastic scattering correlation","question":"Can two weak defects produce a long-lived scattered pulse absent from either defect alone?","prediction":"Delayed energy depends on defect spacing through multiple scattering.","test":"Compare single and paired machined notches with full-field pulse measurements.","contrary_outcome":"The pair response equals the linear sum of isolated responses at all delays.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0138","id":"S3-0138","volume":"900v3","title":"Acoustic labyrinth humidity","prediction":"Sequential opposite-direction delays differ only while the humidity field evolves.","test":"Measure simultaneous bidirectional pulses and spatial humidity profiles in a folded duct.","contrary":"Simultaneous delays remain unequal beyond flow and calibration corrections.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0138","title":"Acoustic labyrinth humidity","question":"Can humidity gradients generate a direction-dependent transient sound delay without violating steady reciprocity?","prediction":"Sequential opposite-direction delays differ only while the humidity field evolves.","test":"Measure simultaneous bidirectional pulses and spatial humidity profiles in a folded duct.","contrary_outcome":"Simultaneous delays remain unequal beyond flow and calibration corrections.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0138","title":"Acoustic labyrinth humidity","question":"Can humidity gradients generate a direction-dependent transient sound delay without violating steady reciprocity?","prediction":"Sequential opposite-direction delays differ only while the humidity field evolves.","test":"Measure simultaneous bidirectional pulses and spatial humidity profiles in a folded duct.","contrary_outcome":"Simultaneous delays remain unequal beyond flow and calibration corrections.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can humidity gradients generate a direction-dependent transient sound delay without violating steady reciprocity experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0139","id":"S3-0139","volume":"900v3","title":"Optical filament twist sign","prediction":"A polarization cross-term reverses when a geometrically mirrored filament is used.","test":"Compare matched twisted polymer filaments under reversed illumination and detector calibration.","contrary":"Cross-terms fail to reverse or originate in the instrument.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0139","title":"Optical filament twist sign","question":"Can polarized scattering recover twist handedness from an otherwise mirror-symmetric transparent filament?","prediction":"A polarization cross-term reverses when a geometrically mirrored filament is used.","test":"Compare matched twisted polymer filaments under reversed illumination and detector calibration.","contrary_outcome":"Cross-terms fail to reverse or originate in the instrument.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0140","id":"S3-0140","volume":"900v3","title":"Water-wave roughness spectral filter","prediction":"Transmission minima shift with measured roughness correlation length at equal depth.","test":"Use separately characterized rough beds and broadband low-amplitude packets.","contrary":"RMS height alone predicts transmission spectra.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0140","title":"Water-wave roughness spectral filter","question":"Can equal-height bottom roughness select different packet frequencies because correlation length controls scattering?","prediction":"Transmission minima shift with measured roughness correlation length at equal depth.","test":"Use separately characterized rough beds and broadband low-amplitude packets.","contrary_outcome":"RMS height alone predicts transmission spectra.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0141","id":"S3-0141","volume":"900v3","title":"Acoustic membrane slack localization","prediction":"Nearly degenerate membrane modes split in a position-dependent pattern.","test":"Introduce measured reversible slack and compare scanning vibrometry with uniform-tension controls.","contrary":"Splitting follows only total membrane tension.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0141","title":"Acoustic membrane slack localization","question":"Can a localized slack region be located from mode splitting before global tension changes detectably?","prediction":"Nearly degenerate membrane modes split in a position-dependent pattern.","test":"Introduce measured reversible slack and compare scanning vibrometry with uniform-tension controls.","contrary_outcome":"Splitting follows only total membrane tension.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0142","id":"S3-0142","volume":"900v3","title":"Optical noise correlation thermometer","prediction":"The spatial cross-spectrum changes with spot separation in the thermal diffusion band.","test":"Measure a stable transparent slab with independent intensity monitors and controlled spot spacing.","contrary":"Correlation is entirely explained by shared optical noise.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0142","title":"Optical noise correlation thermometer","question":"Can two probe spots separate genuine thermorefractive fluctuations from common laser-intensity noise?","prediction":"The spatial cross-spectrum changes with spot separation in the thermal diffusion band.","test":"Measure a stable transparent slab with independent intensity monitors and controlled spot spacing.","contrary_outcome":"Correlation is entirely explained by shared optical noise.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0143","id":"S3-0143","volume":"900v3","title":"Elastic contact pulse duration","prediction":"Shorter pulses trigger rearrangement at lower total energy through peak-force loading.","test":"Compare calibrated pulse shapes and image contact changes in a sealed bead bridge.","contrary":"Rearrangement depends only on integrated pulse energy.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0143","title":"Elastic contact pulse duration","question":"Can equal-energy elastic pulses with different durations trigger different contact rearrangements in a granular bridge?","prediction":"Shorter pulses trigger rearrangement at lower total energy through peak-force loading.","test":"Compare calibrated pulse shapes and image contact changes in a sealed bead bridge.","contrary_outcome":"Rearrangement depends only on integrated pulse energy.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0144","id":"S3-0144","volume":"900v3","title":"Acoustic roomless impulse tail","prediction":"A dense family of coupled modes yields an approximately exponential tail but spatial correlations remain structured.","test":"Measure impulse responses and spatial cross-correlations in a designed passive cavity.","contrary":"Exponential decay is accompanied by fully diffuse correlations or fails altogether.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0144","title":"Acoustic roomless impulse tail","question":"Can a compact resonator mimic a diffuse reverberant tail without actual ray mixing?","prediction":"A dense family of coupled modes yields an approximately exponential tail but spatial correlations remain structured.","test":"Measure impulse responses and spatial cross-correlations in a designed passive cavity.","contrary_outcome":"Exponential decay is accompanied by fully diffuse correlations or fails altogether.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0144","title":"Acoustic roomless impulse tail","question":"Can a compact resonator mimic a diffuse reverberant tail without actual ray mixing?","prediction":"A dense family of coupled modes yields an approximately exponential tail but spatial correlations remain structured.","test":"Measure impulse responses and spatial cross-correlations in a designed passive cavity.","contrary_outcome":"Exponential decay is accompanied by fully diffuse correlations or fails altogether.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a compact resonator mimic a diffuse reverberant tail without actual ray mixing experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0145","id":"S3-0145","volume":"900v3","title":"Optical lens edge thermal ghost","prediction":"Ghost displacement follows ring-temperature asymmetry while mechanical lens position remains fixed.","test":"Use low-power imaging, thermometry and independent displacement metrology under controlled ring heating.","contrary":"Image motion is explained entirely by mechanical mount deformation.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0145","title":"Optical lens edge thermal ghost","question":"Can a warmer mounting ring create a false displaced image through refractive gradients at the lens edge?","prediction":"Ghost displacement follows ring-temperature asymmetry while mechanical lens position remains fixed.","test":"Use low-power imaging, thermometry and independent displacement metrology under controlled ring heating.","contrary_outcome":"Image motion is explained entirely by mechanical mount deformation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0146","id":"S3-0146","volume":"900v3","title":"Surface-wave capillary crossover","prediction":"Frequency-selective reflection persists at matched water depth and negligible surface current.","test":"Measure broadband reflection across a controlled benign surfactant patch with surface-pressure monitoring.","contrary":"Reflection follows flow or bathymetry rather than interfacial elasticity.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0146","title":"Surface-wave capillary crossover","question":"Can a localized change in surface contamination reflect short waves while transmitting longer gravity waves?","prediction":"Frequency-selective reflection persists at matched water depth and negligible surface current.","test":"Measure broadband reflection across a controlled benign surfactant patch with surface-pressure monitoring.","contrary_outcome":"Reflection follows flow or bathymetry rather than interfacial elasticity.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0147","id":"S3-0147","volume":"900v3","title":"Acoustic bell cavity venting","prediction":"Dissipative leakage dominates reactive loading over a calibrated vent-size interval.","test":"Measure complex eigenfrequencies of a cavity with known vents and thermal controls.","contrary":"Frequency and damping always change in the same normalized proportion.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0147","title":"Acoustic bell cavity venting","question":"Can opening a tiny vent shorten decay while leaving the dominant resonance frequency nearly unchanged?","prediction":"Dissipative leakage dominates reactive loading over a calibrated vent-size interval.","test":"Measure complex eigenfrequencies of a cavity with known vents and thermal controls.","contrary_outcome":"Frequency and damping always change in the same normalized proportion.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0148","id":"S3-0148","volume":"900v3","title":"Optical rolling-shutter illusion","prediction":"Apparent wave velocity changes with readout direction while stroboscopic measurements show standing motion.","test":"Compare rolling/global shutter recordings with synchronized vibration references.","contrary":"The apparent propagation persists unchanged with global-shutter imaging.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0148","title":"Optical rolling-shutter illusion","question":"Can a vibrating transparent object appear to have a traveling refractive wave solely from camera readout timing?","prediction":"Apparent wave velocity changes with readout direction while stroboscopic measurements show standing motion.","test":"Compare rolling/global shutter recordings with synchronized vibration references.","contrary_outcome":"The apparent propagation persists unchanged with global-shutter imaging.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0149","id":"S3-0149","volume":"900v3","title":"Elastic wave near-field debt","prediction":"Group delay rises while integrated scattered energy remains near its calibrated baseline.","test":"Measure near-field displacement and far-field energy around a reversible resonant inclusion.","contrary":"Delay scales only with far-field scattering or instrument filtering.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0149","title":"Elastic wave near-field debt","question":"Can a subwavelength defect store enough near-field elastic energy to delay a pulse without increased far-field scattering?","prediction":"Group delay rises while integrated scattered energy remains near its calibrated baseline.","test":"Measure near-field displacement and far-field energy around a reversible resonant inclusion.","contrary_outcome":"Delay scales only with far-field scattering or instrument filtering.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0150","id":"S3-0150","volume":"900v3","title":"Acoustic foam drainage modes","prediction":"Spatial impedance gradients cause splitting while total liquid mass stays constant.","test":"Use benign soap foam with height-resolved liquid fraction and low-power acoustic probes.","contrary":"Resonance depends only on mean fraction or bubble coarsening.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0150","title":"Acoustic foam drainage modes","question":"Can vertical drainage in foam split an acoustic resonance before mean liquid fraction changes appreciably?","prediction":"Spatial impedance gradients cause splitting while total liquid mass stays constant.","test":"Use benign soap foam with height-resolved liquid fraction and low-power acoustic probes.","contrary_outcome":"Resonance depends only on mean fraction or bubble coarsening.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0150","title":"Acoustic foam drainage modes","question":"Can vertical drainage in foam split an acoustic resonance before mean liquid fraction changes appreciably?","prediction":"Spatial impedance gradients cause splitting while total liquid mass stays constant.","test":"Use benign soap foam with height-resolved liquid fraction and low-power acoustic probes.","contrary_outcome":"Resonance depends only on mean fraction or bubble coarsening.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can vertical drainage in foam split an acoustic resonance before mean liquid fraction changes appreciably experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0151","id":"S3-0151","volume":"900v3","title":"Optical phase plate reciprocity","prediction":"Matched reciprocal spatial modes restore equal transmission despite unequal broad-beam images.","test":"Measure mode-resolved low-power optical transfer in both directions with calibrated launch fields.","contrary":"Asymmetry survives truly reciprocal mode matching.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0151","title":"Optical phase plate reciprocity","question":"Can an intensity asymmetry across a reciprocal phase plate be traced to unequal input mode preparation?","prediction":"Matched reciprocal spatial modes restore equal transmission despite unequal broad-beam images.","test":"Measure mode-resolved low-power optical transfer in both directions with calibrated launch fields.","contrary_outcome":"Asymmetry survives truly reciprocal mode matching.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0152","id":"S3-0152","volume":"900v3","title":"Water-wave obstacle wake reset","prediction":"Residual vorticity changes packet phase longer than surface elevation reveals.","test":"Remove an obstacle gently, measure particle velocities and probe weak waves after varied delays.","contrary":"Scattering returns immediately once the free surface is flat.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0152","title":"Water-wave obstacle wake reset","question":"Can removing a submerged obstacle leave a transient wave-scattering signature after bulk flow has stopped?","prediction":"Residual vorticity changes packet phase longer than surface elevation reveals.","test":"Remove an obstacle gently, measure particle velocities and probe weak waves after varied delays.","contrary_outcome":"Scattering returns immediately once the free surface is flat.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0153","id":"S3-0153","volume":"900v3","title":"Acoustic tube bend loss partition","prediction":"Calorimetric dissipation increases while measured modal content remains fundamental.","test":"Compare straight and bent equal-length ducts using pressure-velocity probes and thermal balance.","contrary":"All extra loss is accounted for by converted modes or different surface finish.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0153","title":"Acoustic tube bend loss partition","question":"Can a bend increase viscous loss without appreciable mode conversion in a narrow duct?","prediction":"Calorimetric dissipation increases while measured modal content remains fundamental.","test":"Compare straight and bent equal-length ducts using pressure-velocity probes and thermal balance.","contrary_outcome":"All extra loss is accounted for by converted modes or different surface finish.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0154","id":"S3-0154","volume":"900v3","title":"Optical crystal face counting","prediction":"Rotating the sample produces discrete caustic transitions tied to face normals.","test":"Use safe grown salt crystals, 3D morphology and low-power angular imaging.","contrary":"Patterns depend only on the projected outline.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0154","title":"Optical crystal face counting","question":"Can angular scattering distinguish a faceted crystal from a smooth object with the same projected outline?","prediction":"Rotating the sample produces discrete caustic transitions tied to face normals.","test":"Use safe grown salt crystals, 3D morphology and low-power angular imaging.","contrary_outcome":"Patterns depend only on the projected outline.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0155","id":"S3-0155","volume":"900v3","title":"Elastic slab thermal edge bands","prediction":"Edge-localized resonances shift earlier than bulk modes by a diffusion-limited delay.","test":"Track mode families during mild edge heating with spatial thermometry.","contrary":"All resonances shift together after accounting for readout timing.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0155","title":"Elastic slab thermal edge bands","question":"Can edge heating produce a localized elastic mode shift before the bulk temperature changes detectably?","prediction":"Edge-localized resonances shift earlier than bulk modes by a diffusion-limited delay.","test":"Track mode families during mild edge heating with spatial thermometry.","contrary_outcome":"All resonances shift together after accounting for readout timing.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0156","id":"S3-0156","volume":"900v3","title":"Acoustic hydrostatic bubble clock","prediction":"Phase-based pressure estimates beat image-based estimates under equal observation time.","test":"Calibrate an air bubble with modest water-column pressure steps and traceable imaging.","contrary":"Phase sensitivity is lost after radius drift and damping uncertainty are included.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0156","title":"Acoustic hydrostatic bubble clock","question":"Can the phase of a bubble's weak response detect slow hydrostatic pressure drift more sensitively than its apparent radius?","prediction":"Phase-based pressure estimates beat image-based estimates under equal observation time.","test":"Calibrate an air bubble with modest water-column pressure steps and traceable imaging.","contrary_outcome":"Phase sensitivity is lost after radius drift and damping uncertainty are included.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0157","id":"S3-0157","volume":"900v3","title":"Optical diffuse layer order","prediction":"Polarization memory depends on the order despite matched total reflected intensity.","test":"Measure calibrated polymer layers in reversed arrangements with low-power polarized light.","contrary":"Polarization states are identical after interface reflections are corrected.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0157","title":"Optical diffuse layer order","question":"Can backscattering polarization distinguish a thin clear cap over a scatterer from the reversed order?","prediction":"Polarization memory depends on the order despite matched total reflected intensity.","test":"Measure calibrated polymer layers in reversed arrangements with low-power polarized light.","contrary_outcome":"Polarization states are identical after interface reflections are corrected.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0158","id":"S3-0158","volume":"900v3","title":"Elastic pulse stress history","prediction":"Two polarization delays respond differently to calibrated stress but similarly to thickness.","test":"Test a benign plate under reversible prestress with independent thickness metrology.","contrary":"The two causes remain inseparable within propagated uncertainty.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0158","title":"Elastic pulse stress history","question":"Can residual compressive stress be separated from a geometric thickness change using oppositely polarized elastic waves?","prediction":"Two polarization delays respond differently to calibrated stress but similarly to thickness.","test":"Test a benign plate under reversible prestress with independent thickness metrology.","contrary_outcome":"The two causes remain inseparable within propagated uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0159","id":"S3-0159","volume":"900v3","title":"Acoustic mode injection selectivity","prediction":"A dipole source couples strongly where a monopole source has a calibrated null.","test":"Map cavity modes with matched acoustic source power and independently measured source directivity.","contrary":"Both source types share the same coupling null.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0159","title":"Acoustic mode injection selectivity","question":"Can a source at a pressure node excite a mode through velocity coupling that a pressure source misses?","prediction":"A dipole source couples strongly where a monopole source has a calibrated null.","test":"Map cavity modes with matched acoustic source power and independently measured source directivity.","contrary_outcome":"Both source types share the same coupling null.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0159","title":"Acoustic mode injection selectivity","question":"Can a source at a pressure node excite a mode through velocity coupling that a pressure source misses?","prediction":"A dipole source couples strongly where a monopole source has a calibrated null.","test":"Map cavity modes with matched acoustic source power and independently measured source directivity.","contrary_outcome":"Both source types share the same coupling null.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a source at a pressure node excite a mode through velocity coupling that a pressure source misses experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0160","id":"S3-0160","volume":"900v3","title":"Optical droplet coalescence phase","prediction":"Integrated phase change obeys a volume-conservation estimate while peak shape evolves.","test":"Record fast low-power interferometry of benign droplet coalescence with calibrated side-view volume.","contrary":"Phase integrals fail volume conservation beyond optical-unwrapping uncertainty.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0160","title":"Optical droplet coalescence phase","question":"Can an interferometric phase jump measure the liquid volume relocated by coalescence before shape relaxation finishes?","prediction":"Integrated phase change obeys a volume-conservation estimate while peak shape evolves.","test":"Record fast low-power interferometry of benign droplet coalescence with calibrated side-view volume.","contrary_outcome":"Phase integrals fail volume conservation beyond optical-unwrapping uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0161","id":"S3-0161","volume":"900v3","title":"Water-wave distributed dissipation","prediction":"Localized and distributed damping yield different packet envelopes at equal final energy.","test":"Compare a localized absorber with a weak distributed damping bed and map full space-time elevation.","contrary":"Envelopes collapse under equal integrated loss.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0161","title":"Water-wave distributed dissipation","question":"Can two baths with equal total wave-energy loss be distinguished by the spatial rate of packet broadening?","prediction":"Localized and distributed damping yield different packet envelopes at equal final energy.","test":"Compare a localized absorber with a weak distributed damping bed and map full space-time elevation.","contrary_outcome":"Envelopes collapse under equal integrated loss.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0162","id":"S3-0162","volume":"900v3","title":"Acoustic slit shape impedance","prediction":"Oscillatory boundary-layer inertia separates the equal-DC-resistance channels.","test":"Calibrate water-free air channels using low-amplitude impedance and independent steady flow.","contrary":"Acoustic reactance is predicted by DC resistance alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0162","title":"Acoustic slit shape impedance","question":"Can a rounded slit and sharp slit share steady flow resistance but have distinct acoustic reactance?","prediction":"Oscillatory boundary-layer inertia separates the equal-DC-resistance channels.","test":"Calibrate water-free air channels using low-amplitude impedance and independent steady flow.","contrary_outcome":"Acoustic reactance is predicted by DC resistance alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0163","id":"S3-0163","volume":"900v3","title":"Optical dust position ambiguity","prediction":"Contrast polarity and blur evolve differently under a controlled focus sweep.","test":"Place known inert particles at calibrated planes and perform blinded location recovery.","contrary":"Focus diversity does not improve plane assignment beyond size cues.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0163","title":"Optical dust position ambiguity","question":"Can defocus diversity distinguish dust on a sensor cover from dust in the object plane?","prediction":"Contrast polarity and blur evolve differently under a controlled focus sweep.","test":"Place known inert particles at calibrated planes and perform blinded location recovery.","contrary_outcome":"Focus diversity does not improve plane assignment beyond size cues.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0164","id":"S3-0164","volume":"900v3","title":"Elastic branching energy split","prediction":"Partition sensitivity peaks near branch-mode cutoff at fixed total input.","test":"Measure calibrated pulses through matched Y-beam junctions with reversible end loading.","contrary":"Partition varies smoothly and weakly across the predicted cutoff.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0164","title":"Elastic branching energy split","question":"Can slight asymmetry at a beam junction produce large pulse-energy partition changes near a cutoff frequency?","prediction":"Partition sensitivity peaks near branch-mode cutoff at fixed total input.","test":"Measure calibrated pulses through matched Y-beam junctions with reversible end loading.","contrary_outcome":"Partition varies smoothly and weakly across the predicted cutoff.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0165","id":"S3-0165","volume":"900v3","title":"Acoustic radiating patch cancellation","prediction":"Antiphase motion lowers radiated power without lowering total membrane kinetic energy.","test":"Map membrane velocities and angular sound power under equal injected mechanical energy.","contrary":"Reduced radiation always accompanies lower total vibration energy.","layers":[1,2],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0165","title":"Acoustic radiating patch cancellation","question":"Can two adjacent passive membrane patches cancel far-field sound while their local vibration energy increases?","prediction":"Antiphase motion lowers radiated power without lowering total membrane kinetic energy.","test":"Map membrane velocities and angular sound power under equal injected mechanical energy.","contrary_outcome":"Reduced radiation always accompanies lower total vibration energy.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0165","title":"Acoustic radiating patch cancellation","question":"Can two adjacent passive membrane patches cancel far-field sound while their local vibration energy increases?","prediction":"Antiphase motion lowers radiated power without lowering total membrane kinetic energy.","test":"Map membrane velocities and angular sound power under equal injected mechanical energy.","contrary_outcome":"Reduced radiation always accompanies lower total vibration energy.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can two adjacent passive membrane patches cancel far-field sound while their local vibration energy increases experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0166","id":"S3-0166","volume":"900v3","title":"Optical wet granular stress","prediction":"Capillary loading concentrates near receding menisci while external loading follows solid load paths.","test":"Use a calibrated photoelastic porous analogue with independent pressure and force control.","contrary":"The two stress maps remain indistinguishable after boundary-load matching.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0166","title":"Optical wet granular stress","question":"Can birefringence in a transparent porous skeleton separate capillary stress from externally applied stress through spatial signatures?","prediction":"Capillary loading concentrates near receding menisci while external loading follows solid load paths.","test":"Use a calibrated photoelastic porous analogue with independent pressure and force control.","contrary_outcome":"The two stress maps remain indistinguishable after boundary-load matching.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0167","id":"S3-0167","volume":"900v3","title":"Surface-wave boundary time gate","prediction":"Released energy peaks at the imposed gate time rather than the natural leakage time.","test":"Use a mechanically switched benign bath boundary and measure complete wave-energy histories.","contrary":"Release time is unaffected by switching or actuator-generated waves dominate.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0167","title":"Surface-wave boundary time gate","question":"Can briefly changing a sidewall condition release a trapped water-wave packet at a selectable delay?","prediction":"Released energy peaks at the imposed gate time rather than the natural leakage time.","test":"Use a mechanically switched benign bath boundary and measure complete wave-energy histories.","contrary_outcome":"Release time is unaffected by switching or actuator-generated waves dominate.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0168","id":"S3-0168","volume":"900v3","title":"Acoustic vent acoustic streaming","prediction":"Impedance drifts with established streaming at constant mean temperature and sound amplitude.","test":"Combine flow visualization, thermal monitoring and small probe-tone impedance in a safe low-power duct.","contrary":"Impedance remains stationary or drifts only with temperature.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0168","title":"Acoustic vent acoustic streaming","question":"Can a vent's oscillatory flow produce a mean recirculation that changes its own small-signal impedance?","prediction":"Impedance drifts with established streaming at constant mean temperature and sound amplitude.","test":"Combine flow visualization, thermal monitoring and small probe-tone impedance in a safe low-power duct.","contrary_outcome":"Impedance remains stationary or drifts only with temperature.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0169","id":"S3-0169","volume":"900v3","title":"Optical spectral speckle rigidity","prediction":"Distributed and end-localized scatterers with equal turbidity yield different decorrelation bandwidths.","test":"Measure low-power tunable-light speckle and compare characterized layer arrangements.","contrary":"Bandwidth depends only on total turbidity and optical thickness.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0169","title":"Optical spectral speckle rigidity","question":"Can wavelength-dependent speckle decorrelation locate where scattering is distributed along a sample?","prediction":"Distributed and end-localized scatterers with equal turbidity yield different decorrelation bandwidths.","test":"Measure low-power tunable-light speckle and compare characterized layer arrangements.","contrary_outcome":"Bandwidth depends only on total turbidity and optical thickness.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0170","id":"S3-0170","volume":"900v3","title":"Elastic shell seam closure","prediction":"Mode splitting changes abruptly at independently imaged seam contact while gross shape remains stable.","test":"Load safe thin shells quasistatically with full-field vibration and shape measurements.","contrary":"Mode changes appear only at buckling or are fully explained by smooth prestress.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0170","title":"Elastic shell seam closure","question":"Can a shell's weak seam close under compression and split a vibration mode before buckling occurs?","prediction":"Mode splitting changes abruptly at independently imaged seam contact while gross shape remains stable.","test":"Load safe thin shells quasistatically with full-field vibration and shape measurements.","contrary_outcome":"Mode changes appear only at buckling or are fully explained by smooth prestress.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0170","title":"Elastic shell seam closure","question":"Can a shell's weak seam close under compression and split a vibration mode before buckling occurs?","prediction":"Mode splitting changes abruptly at independently imaged seam contact while gross shape remains stable.","test":"Load safe thin shells quasistatically with full-field vibration and shape measurements.","contrary_outcome":"Mode changes appear only at buckling or are fully explained by smooth prestress.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a shell's weak seam close under compression and split a vibration mode before buckling occurs experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0171","id":"S3-0171","volume":"900v3","title":"Acoustic gas composition gradient","prediction":"Arrival direction changes with a measured nonreactive gas-temperature gradient at fixed geometry.","test":"Use air temperature stratification, microphone arrays and simultaneous temperature mapping.","contrary":"Delay changes are explained solely by the path-average sound speed.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0171","title":"Acoustic gas composition gradient","question":"Can a stable vertical sound-speed gradient bend an impulse path enough to mimic a longer cavity?","prediction":"Arrival direction changes with a measured nonreactive gas-temperature gradient at fixed geometry.","test":"Use air temperature stratification, microphone arrays and simultaneous temperature mapping.","contrary_outcome":"Delay changes are explained solely by the path-average sound speed.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0172","id":"S3-0172","volume":"900v3","title":"Optical evanescent gap ambiguity","prediction":"Joint wavelength ratios identify calibrated gaps that single-wavelength intensity cannot.","test":"Measure traceable gap spacers with low-power light and independently varied coupling losses.","contrary":"The two unknowns remain degenerate within calibration uncertainty.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0172","title":"Optical evanescent gap ambiguity","question":"Can two wavelengths separate an unknown nanoscale gap from unknown coupling efficiency in a frustrated-reflection measurement?","prediction":"Joint wavelength ratios identify calibrated gaps that single-wavelength intensity cannot.","test":"Measure traceable gap spacers with low-power light and independently varied coupling losses.","contrary_outcome":"The two unknowns remain degenerate within calibration uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0173","id":"S3-0173","volume":"900v3","title":"Water-wave narrow-band invisibility","prediction":"A reflection minimum coexists with a measurable positive group delay.","test":"Measure complex transmission across a known step and compare equal-depth reference paths.","contrary":"The delay minimum coincides with reflection cancellation or is a fitting artifact.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0173","title":"Water-wave narrow-band invisibility","question":"Can a shallow step be nearly reflectionless at one packet frequency while strongly delaying the packet?","prediction":"A reflection minimum coexists with a measurable positive group delay.","test":"Measure complex transmission across a known step and compare equal-depth reference paths.","contrary_outcome":"The delay minimum coincides with reflection cancellation or is a fitting artifact.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0174","id":"S3-0174","volume":"900v3","title":"Acoustic microphone port loading","prediction":"Quality factor varies with port volume even after microphone sensitivity is calibrated.","test":"Compare sealed optical pressure readout with interchangeable microphone port geometries.","contrary":"Damping is port-independent over the validated geometry range.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0174","title":"Acoustic microphone port loading","question":"Can a measurement port measurably change the damping it is intended to observe?","prediction":"Quality factor varies with port volume even after microphone sensitivity is calibrated.","test":"Compare sealed optical pressure readout with interchangeable microphone port geometries.","contrary_outcome":"Damping is port-independent over the validated geometry range.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0175","id":"S3-0175","volume":"900v3","title":"Optical scattering blind cone","prediction":"The signed interference term reverses while direct scattered power remains positive.","test":"Translate a known particle through a calibrated reference field with phase-stable detection.","contrary":"No sign reversal remains after reference phase is controlled.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0175","title":"Optical scattering blind cone","question":"Can moving a weak scatterer through a diffraction minimum make its detected signal change sign in heterodyne readout?","prediction":"The signed interference term reverses while direct scattered power remains positive.","test":"Translate a known particle through a calibrated reference field with phase-stable detection.","contrary_outcome":"No sign reversal remains after reference phase is controlled.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0176","id":"S3-0176","volume":"900v3","title":"Elastic pulse multiple-path timing","prediction":"Different mode paths respond oppositely to contact stiffening.","test":"Measure full-field pulses through a joint with independently calibrated stiffness.","contrary":"All arrivals change consistently with a single effective wave speed.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0176","title":"Elastic pulse multiple-path timing","question":"Can the earliest elastic arrival become weaker while a later arrival becomes faster after a contact stiffens?","prediction":"Different mode paths respond oppositely to contact stiffening.","test":"Measure full-field pulses through a joint with independently calibrated stiffness.","contrary_outcome":"All arrivals change consistently with a single effective wave speed.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0177","id":"S3-0177","volume":"900v3","title":"Acoustic thermal boundary transition","prediction":"A crossover tracks the thermal penetration depth measured independently.","test":"Sweep safe air-cavity dimensions and temperature with calibrated viscous-loss corrections.","contrary":"The crossover follows only viscous penetration or instrument bandwidth.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0177","title":"Acoustic thermal boundary transition","question":"Can a cavity's damping-versus-frequency curve reveal when thermal diffusion spans its narrow dimension?","prediction":"A crossover tracks the thermal penetration depth measured independently.","test":"Sweep safe air-cavity dimensions and temperature with calibrated viscous-loss corrections.","contrary_outcome":"The crossover follows only viscous penetration or instrument bandwidth.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0178","id":"S3-0178","volume":"900v3","title":"Optical index gradient erasure","prediction":"Beam deflection decays while mean optical phase remains constant.","test":"Create a benign water-sugar gradient, mix gently and measure phase plus beam centroid.","contrary":"Deflection and mean phase change on the same normalized trajectory.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0178","title":"Optical index gradient erasure","question":"Can mixing a refractive gradient erase a lensing signal faster than the average refractive index changes?","prediction":"Beam deflection decays while mean optical phase remains constant.","test":"Create a benign water-sugar gradient, mix gently and measure phase plus beam centroid.","contrary_outcome":"Deflection and mean phase change on the same normalized trajectory.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0179","id":"S3-0179","volume":"900v3","title":"Water-wave movable bed lag","prediction":"Dynamic compliance adds a frequency-dependent phase lag at zero mean deformation.","test":"Compare rigid and calibrated elastic beds under low-amplitude surface waves with bed velocimetry.","contrary":"Dispersion is explained entirely by static water depth.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0179","title":"Water-wave movable bed lag","question":"Can a compliant bed shift wave dispersion without measurable mean bed displacement?","prediction":"Dynamic compliance adds a frequency-dependent phase lag at zero mean deformation.","test":"Compare rigid and calibrated elastic beds under low-amplitude surface waves with bed velocimetry.","contrary_outcome":"Dispersion is explained entirely by static water depth.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0180","id":"S3-0180","volume":"900v3","title":"Acoustic baffle edge uncertainty","prediction":"Angular pressure uncertainty peaks at a predicted interference null.","test":"Move a calibrated baffle edge while mapping source-normalized acoustic pressure.","contrary":"Uncertainty is uniform with angle or due only to source drift.","layers":[1,2],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0180","title":"Acoustic baffle edge uncertainty","question":"Can millimeter-scale baffle-edge positioning dominate low-frequency radiation uncertainty near a cancellation angle?","prediction":"Angular pressure uncertainty peaks at a predicted interference null.","test":"Move a calibrated baffle edge while mapping source-normalized acoustic pressure.","contrary_outcome":"Uncertainty is uniform with angle or due only to source drift.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0180","title":"Acoustic baffle edge uncertainty","question":"Can millimeter-scale baffle-edge positioning dominate low-frequency radiation uncertainty near a cancellation angle?","prediction":"Angular pressure uncertainty peaks at a predicted interference null.","test":"Move a calibrated baffle edge while mapping source-normalized acoustic pressure.","contrary_outcome":"Uncertainty is uniform with angle or due only to source drift.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can millimeter-scale baffle-edge positioning dominate low-frequency radiation uncertainty near a cancellation angle experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0181","id":"S3-0181","volume":"900v3","title":"Optical cavity thermal bistability control","prediction":"Hysteresis follows deposited-power history while an independent position sensor shows no loop.","test":"Use low-power safe optics with calibrated heating and reverse/randomized scan sequences.","contrary":"Hysteresis tracks stage position errors and not thermal relaxation.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0181","title":"Optical cavity thermal bistability control","question":"Can a slow beam-position scan distinguish thermal lensing hysteresis from mechanical backlash?","prediction":"Hysteresis follows deposited-power history while an independent position sensor shows no loop.","test":"Use low-power safe optics with calibrated heating and reverse/randomized scan sequences.","contrary_outcome":"Hysteresis tracks stage position errors and not thermal relaxation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0182","id":"S3-0182","volume":"900v3","title":"Elastic interface normal-tangential coupling","prediction":"Tangential phase changes correlate with contact orientation rather than area.","test":"Use optically visible elastic contacts, calibrated normal loading and polarized vibration probes.","contrary":"Transmission is uniquely predicted by contact area.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0182","title":"Elastic interface normal-tangential coupling","question":"Can normal loading modulate tangential wave transmission through contact rotation at unchanged contact area?","prediction":"Tangential phase changes correlate with contact orientation rather than area.","test":"Use optically visible elastic contacts, calibrated normal loading and polarized vibration probes.","contrary_outcome":"Transmission is uniquely predicted by contact area.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0183","id":"S3-0183","volume":"900v3","title":"Acoustic sealed-pore relaxation","prediction":"A damping peak persists when pore mass exchange is blocked but thermal coupling remains.","test":"Compare flexible sealed and open side pores with calibrated wall heat transfer.","contrary":"Damping vanishes whenever gas exchange is blocked.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0183","title":"Acoustic sealed-pore relaxation","question":"Can a sealed side pore dissipate sound through heat exchange without net gas exchange?","prediction":"A damping peak persists when pore mass exchange is blocked but thermal coupling remains.","test":"Compare flexible sealed and open side pores with calibrated wall heat transfer.","contrary_outcome":"Damping vanishes whenever gas exchange is blocked.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0184","id":"S3-0184","volume":"900v3","title":"Optical halo conservation","prediction":"Integrated angular scattering compensates for reduced specular intensity.","test":"Measure calibrated hemispherical scatter of textured and smooth transparent standards.","contrary":"Total scatter falls with specular glare without compensating absorption change.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0184","title":"Optical halo conservation","question":"Can an anti-reflection texture lower central glare while increasing a wide-angle halo enough to preserve total scatter?","prediction":"Integrated angular scattering compensates for reduced specular intensity.","test":"Measure calibrated hemispherical scatter of textured and smooth transparent standards.","contrary_outcome":"Total scatter falls with specular glare without compensating absorption change.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0185","id":"S3-0185","volume":"900v3","title":"Surface-wave rotating island","prediction":"Frequency splitting reverses with measured circulation direction.","test":"Use a low-speed rotating bath insert with particle-velocity mapping and stationary controls.","contrary":"Splitting remains unchanged with reversed circulation or follows mechanical vibration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0185","title":"Surface-wave rotating island","question":"Can slow rotation of a symmetric submerged island split counter-propagating edge-wave frequencies?","prediction":"Frequency splitting reverses with measured circulation direction.","test":"Use a low-speed rotating bath insert with particle-velocity mapping and stationary controls.","contrary_outcome":"Splitting remains unchanged with reversed circulation or follows mechanical vibration.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0186","id":"S3-0186","volume":"900v3","title":"Acoustic membrane humidity memory","prediction":"Resonance continues drifting at constant ambient humidity with independently measured mass relaxation.","test":"Cycle a benign polymer membrane and track mass, shape and modal spectra.","contrary":"Resonance immediately returns with ambient humidity or follows temperature alone.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0186","title":"Acoustic membrane humidity memory","question":"Can a membrane retain tension memory after humidity returns to its initial value because internal moisture redistributes slowly?","prediction":"Resonance continues drifting at constant ambient humidity with independently measured mass relaxation.","test":"Cycle a benign polymer membrane and track mass, shape and modal spectra.","contrary_outcome":"Resonance immediately returns with ambient humidity or follows temperature alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0187","id":"S3-0187","volume":"900v3","title":"Optical pupil segmentation","prediction":"Sector-resolved phase changes respond differently to known surface tilt and bulk gradient.","test":"Use calibrated transparent cells with independently imposed tilt and refractive gradients.","contrary":"Both perturbations remain observationally identical.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0187","title":"Optical pupil segmentation","question":"Can two separated pupil sectors distinguish specimen tilt from a uniform phase gradient caused by flow?","prediction":"Sector-resolved phase changes respond differently to known surface tilt and bulk gradient.","test":"Use calibrated transparent cells with independently imposed tilt and refractive gradients.","contrary_outcome":"Both perturbations remain observationally identical.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0188","id":"S3-0188","volume":"900v3","title":"Elastic chiral path timing","prediction":"Opposite polarizations have different delays but matched reciprocal channels agree.","test":"Measure vector transfer functions in mirrored passive beam networks.","contrary":"Delay difference disappears or reciprocity fails beyond calibration error.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0188","title":"Elastic chiral path timing","question":"Can a geometrically chiral beam network show polarization-dependent delay while preserving reciprocal source-receiver transfer?","prediction":"Opposite polarizations have different delays but matched reciprocal channels agree.","test":"Measure vector transfer functions in mirrored passive beam networks.","contrary_outcome":"Delay difference disappears or reciprocity fails beyond calibration error.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0189","id":"S3-0189","volume":"900v3","title":"Acoustic pressure node heating","prediction":"Local wall heating follows velocity squared rather than pressure squared.","test":"Measure safe low-power resonator wall temperature and pressure-velocity fields with background controls.","contrary":"Heating follows pressure maxima or is dominated by transducer conduction.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0189","title":"Acoustic pressure node heating","question":"Can viscous velocity maxima heat a narrow boundary near a pressure node more than near an antinode?","prediction":"Local wall heating follows velocity squared rather than pressure squared.","test":"Measure safe low-power resonator wall temperature and pressure-velocity fields with background controls.","contrary_outcome":"Heating follows pressure maxima or is dominated by transducer conduction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0190","id":"S3-0190","volume":"900v3","title":"Optical front/back roughness","prediction":"Defocus-resolved phase statistics retain the rough face's location.","test":"Measure double-sided transparent standards with one rough face, then reverse them.","contrary":"All calibrated phase statistics are reversal-invariant.","layers":[1,2],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0190","title":"Optical front/back roughness","question":"Can transmission phase distinguish entrance-face roughness from exit-face roughness with equal intensity haze?","prediction":"Defocus-resolved phase statistics retain the rough face's location.","test":"Measure double-sided transparent standards with one rough face, then reverse them.","contrary_outcome":"All calibrated phase statistics are reversal-invariant.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0190","title":"Optical front/back roughness","question":"Can transmission phase distinguish entrance-face roughness from exit-face roughness with equal intensity haze?","prediction":"Defocus-resolved phase statistics retain the rough face's location.","test":"Measure double-sided transparent standards with one rough face, then reverse them.","contrary_outcome":"All calibrated phase statistics are reversal-invariant.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can transmission phase distinguish entrance-face roughness from exit-face roughness with equal intensity haze experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0191","id":"S3-0191","volume":"900v3","title":"Surface-wave crack analogue","prediction":"Local sheet curvature peaks along the cut while fluid elevation remains broadly distributed.","test":"Use a safe thin floating sheet with reversible cuts and stereo surface imaging.","contrary":"Localization follows only fluid bathymetry or sheet edge displacement.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0191","title":"Surface-wave crack analogue","question":"Can a floating elastic sheet's narrow cut localize water-wave bending energy without trapping fluid mass?","prediction":"Local sheet curvature peaks along the cut while fluid elevation remains broadly distributed.","test":"Use a safe thin floating sheet with reversible cuts and stereo surface imaging.","contrary_outcome":"Localization follows only fluid bathymetry or sheet edge displacement.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0192","id":"S3-0192","volume":"900v3","title":"Acoustic mode temperature inversion","prediction":"Joint frequency shifts identify the two zone temperatures with calibrated geometry.","test":"Heat separate zones mildly and compare modal inference with traceable thermistors.","contrary":"The inverse problem remains ill-conditioned at measured noise levels.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0192","title":"Acoustic mode temperature inversion","question":"Can three spatially distinct cavity modes recover a two-zone temperature field that one mode averages away?","prediction":"Joint frequency shifts identify the two zone temperatures with calibrated geometry.","test":"Heat separate zones mildly and compare modal inference with traceable thermistors.","contrary_outcome":"The inverse problem remains ill-conditioned at measured noise levels.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0193","id":"S3-0193","volume":"900v3","title":"Optical interference energy trap","prediction":"Absorber heating rises as the monitored port darkens under controlled phase.","test":"Use a low-power two-path interferometer with independent total-power and microcalorimetric checks.","contrary":"Darkening is explained solely by power sent to another port.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0193","title":"Optical interference energy trap","question":"Can destructive interference darken a detector while increasing absorption in a nearby weak absorber?","prediction":"Absorber heating rises as the monitored port darkens under controlled phase.","test":"Use a low-power two-path interferometer with independent total-power and microcalorimetric checks.","contrary_outcome":"Darkening is explained solely by power sent to another port.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0194","id":"S3-0194","volume":"900v3","title":"Elastic edge clamp memory","prediction":"Microslip history changes shape correlations at matched force and position.","test":"Randomize clamp-loading sequences and compare force, contact images and full-field modes.","contrary":"Mode shapes collapse when final force and contact geometry are matched.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0194","title":"Elastic edge clamp memory","question":"Can repeated clamping leave a reproducible mode-shape memory after nominal clamp force is restored?","prediction":"Microslip history changes shape correlations at matched force and position.","test":"Randomize clamp-loading sequences and compare force, contact images and full-field modes.","contrary_outcome":"Mode shapes collapse when final force and contact geometry are matched.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0195","id":"S3-0195","volume":"900v3","title":"Acoustic weak-flow reciprocity","prediction":"Flow changes the antisymmetric phase while temperature mainly changes the symmetric phase.","test":"Measure bidirectional transfer in a calibrated low-speed air duct with independent velocimetry.","contrary":"Temperature leakage into the antisymmetric channel exceeds the flow signal.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0195","title":"Acoustic weak-flow reciprocity","question":"Can simultaneous opposite-direction phase differences distinguish mean flow from slow temperature drift?","prediction":"Flow changes the antisymmetric phase while temperature mainly changes the symmetric phase.","test":"Measure bidirectional transfer in a calibrated low-speed air duct with independent velocimetry.","contrary_outcome":"Temperature leakage into the antisymmetric channel exceeds the flow signal.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0196","id":"S3-0196","volume":"900v3","title":"Optical meniscus rim resonance","prediction":"Sideband phase changes at the independently observed pinning threshold.","test":"Drive small benign droplet oscillations with low-power optical probing and high-speed side imaging.","contrary":"Sidebands reflect only drive displacement and not contact-line state.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0196","title":"Optical meniscus rim resonance","question":"Can a liquid rim's weak shape oscillation produce an optical sideband that reveals contact-line mobility?","prediction":"Sideband phase changes at the independently observed pinning threshold.","test":"Drive small benign droplet oscillations with low-power optical probing and high-speed side imaging.","contrary_outcome":"Sidebands reflect only drive displacement and not contact-line state.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0197","id":"S3-0197","volume":"900v3","title":"Water-wave phase recovery","prediction":"Two-probe complex amplitudes recover flux consistent with particle velocimetry.","test":"Measure partially reflected low-amplitude waves with synchronized probes and velocity imaging.","contrary":"Two-probe estimates remain biased beyond calibration uncertainty.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0197","title":"Water-wave phase recovery","question":"Can a second downstream height probe resolve energy flux when standing-wave interference makes one probe misleading?","prediction":"Two-probe complex amplitudes recover flux consistent with particle velocimetry.","test":"Measure partially reflected low-amplitude waves with synchronized probes and velocity imaging.","contrary_outcome":"Two-probe estimates remain biased beyond calibration uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0198","id":"S3-0198","volume":"900v3","title":"Acoustic resonator exchange order","prediction":"Transmission phase and pulse shape retain cavity order in an asymmetric lossy arrangement.","test":"Measure complex transfer and reciprocal ports before/after cavity exchange.","contrary":"Both magnitude and phase are exchange-invariant under matched boundaries.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0198","title":"Acoustic resonator exchange order","question":"Can swapping two unequal side cavities change a transient waveform although steady through-transmission magnitude is unchanged?","prediction":"Transmission phase and pulse shape retain cavity order in an asymmetric lossy arrangement.","test":"Measure complex transfer and reciprocal ports before/after cavity exchange.","contrary_outcome":"Both magnitude and phase are exchange-invariant under matched boundaries.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0199","id":"S3-0199","volume":"900v3","title":"Optical thin-layer phase lag","prediction":"Spot motion contains a layer-specific relaxation absent from a rigid matched-thickness control.","test":"Use low-power beam deflection, calibrated acoustic drive and independent layer rheology.","contrary":"The phase lag is fully reproduced by the substrate or mounting.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0199","title":"Optical thin-layer phase lag","question":"Can a buried compliant layer be detected through the phase lag of a reflected laser spot under weak acoustic excitation?","prediction":"Spot motion contains a layer-specific relaxation absent from a rigid matched-thickness control.","test":"Use low-power beam deflection, calibrated acoustic drive and independent layer rheology.","contrary_outcome":"The phase lag is fully reproduced by the substrate or mounting.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0200","id":"S3-0200","volume":"900v3","title":"Crystal ledge starvation","prediction":"Neighboring ledge velocity drops after the first ledge approaches within a diffusion length.","test":"Image safe salt growth fronts and local concentration with fixed bulk supersaturation.","contrary":"Velocity remains independent of neighboring ledge position.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0200","title":"Crystal ledge starvation","question":"Can one growing crystal ledge starve its neighbor without measurable bulk supersaturation change?","prediction":"Neighboring ledge velocity drops after the first ledge approaches within a diffusion length.","test":"Image safe salt growth fronts and local concentration with fixed bulk supersaturation.","contrary_outcome":"Velocity remains independent of neighboring ledge position.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0200","title":"Crystal ledge starvation","question":"Can one growing crystal ledge starve its neighbor without measurable bulk supersaturation change?","prediction":"Neighboring ledge velocity drops after the first ledge approaches within a diffusion length.","test":"Image safe salt growth fronts and local concentration with fixed bulk supersaturation.","contrary_outcome":"Velocity remains independent of neighboring ledge position.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can one growing crystal ledge starve its neighbor without measurable bulk supersaturation change experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0201","id":"S3-0201","volume":"900v3","title":"Evaporative crystal roof","prediction":"Under-roof solvent loss decreases while sidewall growth gains the redirected solute flux.","test":"Measure liquid depth and crystal-front motion in transparent salt channels with nonspanning controls.","contrary":"Growth changes follow only bulk concentration.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0201","title":"Evaporative crystal roof","question":"Can a crystal spanning a shallow liquid channel slow evaporation beneath itself while accelerating sidewall growth?","prediction":"Under-roof solvent loss decreases while sidewall growth gains the redirected solute flux.","test":"Measure liquid depth and crystal-front motion in transparent salt channels with nonspanning controls.","contrary_outcome":"Growth changes follow only bulk concentration.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0202","id":"S3-0202","volume":"900v3","title":"Seed rotation capture","prediction":"Face-growth asymmetry averages down when rotation is faster than boundary-layer relaxation.","test":"Compare rotating and fixed benign salt seeds with measured convection and orientation.","contrary":"Defect asymmetry persists after transport is averaged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0202","title":"Seed rotation capture","question":"Can slow seed rotation prevent an early growth defect from permanently selecting one face?","prediction":"Face-growth asymmetry averages down when rotation is faster than boundary-layer relaxation.","test":"Compare rotating and fixed benign salt seeds with measured convection and orientation.","contrary_outcome":"Defect asymmetry persists after transport is averaged.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0203","id":"S3-0203","volume":"900v3","title":"Crystal twin thermal signature","prediction":"A localized delay aligns with independently mapped twin boundaries.","test":"Map pulsed thermography and diffraction on a safe transparent crystal standard.","contrary":"Delays follow surface roughness rather than twin position.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0203","title":"Crystal twin thermal signature","question":"Can a twin boundary alter a crystal's local thermal relaxation without changing composition or average orientation?","prediction":"A localized delay aligns with independently mapped twin boundaries.","test":"Map pulsed thermography and diffraction on a safe transparent crystal standard.","contrary_outcome":"Delays follow surface roughness rather than twin position.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0204","id":"S3-0204","volume":"900v3","title":"Drying salt force reversal","prediction":"Force changes sign when capillary suction yields to crystallization pressure.","test":"Measure microforce, meniscus geometry and crystal appearance in a benign brine gap.","contrary":"Force remains one-signed or sign change lacks a phase transition.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0204","title":"Drying salt force reversal","question":"Can a confined salt bridge pull inward before pushing outward during the same drying event?","prediction":"Force changes sign when capillary suction yields to crystallization pressure.","test":"Measure microforce, meniscus geometry and crystal appearance in a benign brine gap.","contrary_outcome":"Force remains one-signed or sign change lacks a phase transition.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0205","id":"S3-0205","volume":"900v3","title":"Hydrate shell sealing","prediction":"Mass uptake stalls with shell closure despite persistent internal liquid.","test":"Use a safe salt hydrate, gravimetry and non-destructive core imaging with punctured-shell controls.","contrary":"Stalling requires exhausted humidity supply or a dry core.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0205","title":"Hydrate shell sealing","question":"Can a forming hydrate shell arrest further uptake while leaving a wet core?","prediction":"Mass uptake stalls with shell closure despite persistent internal liquid.","test":"Use a safe salt hydrate, gravimetry and non-destructive core imaging with punctured-shell controls.","contrary_outcome":"Stalling requires exhausted humidity supply or a dry core.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0205","title":"Hydrate shell sealing","question":"Can a forming hydrate shell arrest further uptake while leaving a wet core?","prediction":"Mass uptake stalls with shell closure despite persistent internal liquid.","test":"Use a safe salt hydrate, gravimetry and non-destructive core imaging with punctured-shell controls.","contrary_outcome":"Stalling requires exhausted humidity supply or a dry core.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a forming hydrate shell arrest further uptake while leaving a wet core experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0206","id":"S3-0206","volume":"900v3","title":"Crystal defect wake","prediction":"Defect density stays elevated downstream of the former obstacle trajectory.","test":"Grow benign crystals around a removable inert fiber; map optical strain afterward.","contrary":"Defects vanish after local supersaturation equilibrates.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0206","title":"Crystal defect wake","question":"Can a moving growth obstacle leave a defect-density wake that persists after the obstacle is removed?","prediction":"Defect density stays elevated downstream of the former obstacle trajectory.","test":"Grow benign crystals around a removable inert fiber; map optical strain afterward.","contrary_outcome":"Defects vanish after local supersaturation equilibrates.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0207","id":"S3-0207","volume":"900v3","title":"Nucleation site competition","prediction":"Distant nucleation hazard drops following first activation through a measurable solute-depletion field.","test":"Track many isolated patterned sites in sealed salt microcells with concentration imaging.","contrary":"Distant events remain independent after conditioning on supersaturation.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0207","title":"Nucleation site competition","question":"Can activating one nucleation site suppress distant sites before a visible crystal occupies them?","prediction":"Distant nucleation hazard drops following first activation through a measurable solute-depletion field.","test":"Track many isolated patterned sites in sealed salt microcells with concentration imaging.","contrary_outcome":"Distant events remain independent after conditioning on supersaturation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0208","id":"S3-0208","volume":"900v3","title":"Crystal thermal face ranking","prediction":"The fastest face changes when thermal contact orientation is reversed.","test":"Grow benign crystals with asymmetric thermal links; measure local temperature and concentration.","contrary":"Face ranking is determined solely by concentration or seed orientation.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0208","title":"Crystal thermal face ranking","question":"Can face-specific heat removal reverse crystal-growth anisotropy at fixed average solution temperature?","prediction":"The fastest face changes when thermal contact orientation is reversed.","test":"Grow benign crystals with asymmetric thermal links; measure local temperature and concentration.","contrary_outcome":"Face ranking is determined solely by concentration or seed orientation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0209","id":"S3-0209","volume":"900v3","title":"Salt band restart memory","prediction":"Restart nucleation aligns with residual bands after temperature gradients are relocated.","test":"Pause and resume drying in transparent porous strips; compare washed and unwashed bands.","contrary":"Restart positions follow only the new evaporation field.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0209","title":"Salt band restart memory","question":"Can an interrupted drying front resume at old precipitation bands rather than its new thermal maximum?","prediction":"Restart nucleation aligns with residual bands after temperature gradients are relocated.","test":"Pause and resume drying in transparent porous strips; compare washed and unwashed bands.","contrary_outcome":"Restart positions follow only the new evaporation field.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0210","id":"S3-0210","volume":"900v3","title":"Crystal inclusion release","prediction":"Inclusion centroid advances toward the dissolving face without bulk translation.","test":"Image safe transparent crystals during symmetric supersaturation cycles with fixed-mean controls.","contrary":"Inclusions remain fixed or move only through macroscopic cracking.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0210","title":"Crystal inclusion release","question":"Can a trapped liquid inclusion migrate to a free face through repeated tiny growth-dissolution cycles?","prediction":"Inclusion centroid advances toward the dissolving face without bulk translation.","test":"Image safe transparent crystals during symmetric supersaturation cycles with fixed-mean controls.","contrary_outcome":"Inclusions remain fixed or move only through macroscopic cracking.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0210","title":"Crystal inclusion release","question":"Can a trapped liquid inclusion migrate to a free face through repeated tiny growth-dissolution cycles?","prediction":"Inclusion centroid advances toward the dissolving face without bulk translation.","test":"Image safe transparent crystals during symmetric supersaturation cycles with fixed-mean controls.","contrary_outcome":"Inclusions remain fixed or move only through macroscopic cracking.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a trapped liquid inclusion migrate to a free face through repeated tiny growth-dissolution cycles experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0211","id":"S3-0211","volume":"900v3","title":"Growth-front curvature hysteresis","prediction":"Curvature persists until a new step source nucleates.","test":"Cycle supersaturation slowly with interferometric topography and mapped step sources.","contrary":"Curvature follows supersaturation uniquely after diffusion lag is removed.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0211","title":"Growth-front curvature hysteresis","question":"Can a crystal face retain curvature after supersaturation returns because step sources were extinguished?","prediction":"Curvature persists until a new step source nucleates.","test":"Cycle supersaturation slowly with interferometric topography and mapped step sources.","contrary_outcome":"Curvature follows supersaturation uniquely after diffusion lag is removed.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0212","id":"S3-0212","volume":"900v3","title":"Porous salt electrical clock","prediction":"A new low-frequency conduction path appears only after optical connectivity.","test":"Measure safe aqueous salt crystallization with current-limited impedance and imaging.","contrary":"Impedance depends only on total precipitated mass.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0212","title":"Porous salt electrical clock","question":"Can low-voltage impedance distinguish a spanning salt bridge from equal-mass disconnected crystals?","prediction":"A new low-frequency conduction path appears only after optical connectivity.","test":"Measure safe aqueous salt crystallization with current-limited impedance and imaging.","contrary_outcome":"Impedance depends only on total precipitated mass.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0213","id":"S3-0213","volume":"900v3","title":"Crystallization acoustic silence","prediction":"Acoustic bursts align with wall slip rather than growth rate.","test":"Use passive acoustic monitoring, force sensing and microscopy of benign confined crystals.","contrary":"Bursts scale directly with growth regardless of slip.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0213","title":"Crystallization acoustic silence","question":"Can a mechanically constrained crystal grow measurably without detectable acoustic events until boundary slip occurs?","prediction":"Acoustic bursts align with wall slip rather than growth rate.","test":"Use passive acoustic monitoring, force sensing and microscopy of benign confined crystals.","contrary_outcome":"Bursts scale directly with growth regardless of slip.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0214","id":"S3-0214","volume":"900v3","title":"Crystal ledge shadowing","prediction":"A downstream growth shadow reverses when imposed flow reverses.","test":"Grow safe salts around inert obstacles with velocity and concentration mapping.","contrary":"Shadow remains fixed to illumination or seed defects.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0214","title":"Crystal ledge shadowing","question":"Can a transparent obstacle slow a face through transport shadowing even when light and chemistry are unchanged?","prediction":"A downstream growth shadow reverses when imposed flow reverses.","test":"Grow safe salts around inert obstacles with velocity and concentration mapping.","contrary_outcome":"Shadow remains fixed to illumination or seed defects.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0215","id":"S3-0215","volume":"900v3","title":"Dissolution corner inversion","prediction":"Corner retreat becomes slower under one calibrated flow topology.","test":"Measure 3D dissolution of benign shaped crystals and local flow around them.","contrary":"Corners always retreat fastest after concentration correction.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0215","title":"Dissolution corner inversion","question":"Can initially sharp crystal corners become temporarily less soluble than faces because local flow bypasses them?","prediction":"Corner retreat becomes slower under one calibrated flow topology.","test":"Measure 3D dissolution of benign shaped crystals and local flow around them.","contrary_outcome":"Corners always retreat fastest after concentration correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0215","title":"Dissolution corner inversion","question":"Can initially sharp crystal corners become temporarily less soluble than faces because local flow bypasses them?","prediction":"Corner retreat becomes slower under one calibrated flow topology.","test":"Measure 3D dissolution of benign shaped crystals and local flow around them.","contrary_outcome":"Corners always retreat fastest after concentration correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can initially sharp crystal corners become temporarily less soluble than faces because local flow bypasses them experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0216","id":"S3-0216","volume":"900v3","title":"Crystalline pore gate","prediction":"Diffusion-layer overlap suppresses flow before geometric closure.","test":"Measure pressure-flow curves and crystal-wall gaps in transparent benign brine channels.","contrary":"Flow reduction follows only hydrodynamic gap narrowing.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0216","title":"Crystalline pore gate","question":"Can one growing crystal act as a reversible fluidic gate without contacting the opposite wall?","prediction":"Diffusion-layer overlap suppresses flow before geometric closure.","test":"Measure pressure-flow curves and crystal-wall gaps in transparent benign brine channels.","contrary_outcome":"Flow reduction follows only hydrodynamic gap narrowing.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0217","id":"S3-0217","volume":"900v3","title":"Crystal orientation sorting bias","prediction":"Orientation-dependent final sizes vanish when settling is mechanically suppressed.","test":"Compare rotating suspension and stationary benign salt-growth cells with tracked seeds.","contrary":"Orientation bias persists in the absence of settling.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0217","title":"Crystal orientation sorting bias","question":"Can settling during nucleation create apparent face-selective growth when growth kinetics are isotropic?","prediction":"Orientation-dependent final sizes vanish when settling is mechanically suppressed.","test":"Compare rotating suspension and stationary benign salt-growth cells with tracked seeds.","contrary_outcome":"Orientation bias persists in the absence of settling.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0218","id":"S3-0218","volume":"900v3","title":"Salt efflorescence thermal debt","prediction":"A localized temperature rise coincides with crystal formation while the global sample cools.","test":"Use calibrated infrared imaging, calorimetry and mass balance in nonhazardous brine films.","contrary":"Warm regions are emissivity artifacts or follow external heat leaks.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0218","title":"Salt efflorescence thermal debt","question":"Can a surface crust temporarily warm during drying because crystallization heat exceeds evaporative cooling locally?","prediction":"A localized temperature rise coincides with crystal formation while the global sample cools.","test":"Use calibrated infrared imaging, calorimetry and mass balance in nonhazardous brine films.","contrary_outcome":"Warm regions are emissivity artifacts or follow external heat leaks.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0219","id":"S3-0219","volume":"900v3","title":"Crystal growth-front echo","prediction":"A delayed second maximum appears without a second bulk concentration pulse.","test":"Track face motion and local concentration following a calibrated single solute pulse.","contrary":"Growth follows one monotonic relaxation.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0219","title":"Crystal growth-front echo","question":"Can a short supersaturation pulse produce two growth-rate maxima because a depleted boundary layer later refills?","prediction":"A delayed second maximum appears without a second bulk concentration pulse.","test":"Track face motion and local concentration following a calibrated single solute pulse.","contrary_outcome":"Growth follows one monotonic relaxation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0220","id":"S3-0220","volume":"900v3","title":"Clay swelling channel memory","prediction":"Rewetted conductance exceeds virgin conductance along the prior channel.","test":"Cycle a benign clay analogue with tomography and pressure-flow measurements.","contrary":"Rewetting restores the virgin network after porosity matching.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0220","title":"Clay swelling channel memory","question":"Can swelling close a preferred flow channel yet leave a more conductive reopened path after drying?","prediction":"Rewetted conductance exceeds virgin conductance along the prior channel.","test":"Cycle a benign clay analogue with tomography and pressure-flow measurements.","contrary_outcome":"Rewetting restores the virgin network after porosity matching.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0221","id":"S3-0221","volume":"900v3","title":"Sediment sorting without flow","prediction":"Shape classes separate while equal-volume spheres remain mixed.","test":"Use inert grains in a sealed water column with velocimetry and density-matched controls.","contrary":"Separation follows density or measurable mean circulation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0221","title":"Sediment sorting without flow","question":"Can alternating weak vertical vibration segregate grains by shape at negligible mean fluid velocity?","prediction":"Shape classes separate while equal-volume spheres remain mixed.","test":"Use inert grains in a sealed water column with velocimetry and density-matched controls.","contrary_outcome":"Separation follows density or measurable mean circulation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0222","id":"S3-0222","volume":"900v3","title":"Drying polygon stress transfer","prediction":"Neighboring crack onset is delayed near the released edge at equal moisture.","test":"Image benign drying starch films with strain mapping and sham cuts.","contrary":"Crack timing follows moisture only.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0222","title":"Drying polygon stress transfer","question":"Can cutting one edge of a drying polygon delay neighboring cracks through stress redistribution?","prediction":"Neighboring crack onset is delayed near the released edge at equal moisture.","test":"Image benign drying starch films with strain mapping and sham cuts.","contrary_outcome":"Crack timing follows moisture only.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0222","title":"Drying polygon stress transfer","question":"Can cutting one edge of a drying polygon delay neighboring cracks through stress redistribution?","prediction":"Neighboring crack onset is delayed near the released edge at equal moisture.","test":"Image benign drying starch films with strain mapping and sham cuts.","contrary_outcome":"Crack timing follows moisture only.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can cutting one edge of a drying polygon delay neighboring cracks through stress redistribution experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0223","id":"S3-0223","volume":"900v3","title":"Granular slope thermal ratchet","prediction":"Net displacement accumulates only when expansion and gravity align through asymmetric contacts.","test":"Cycle inert granular slopes thermally with vibration-isolated isothermal controls.","contrary":"Motion is explained by ambient vibration or condensation.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0223","title":"Granular slope thermal ratchet","question":"Can daily-scale mild thermal expansion move grains downslope below the static failure angle?","prediction":"Net displacement accumulates only when expansion and gravity align through asymmetric contacts.","test":"Cycle inert granular slopes thermally with vibration-isolated isothermal controls.","contrary_outcome":"Motion is explained by ambient vibration or condensation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0224","id":"S3-0224","volume":"900v3","title":"Pore throat pressure overshoot","prediction":"Fast interface acceleration produces a repeatable overshoot that scales with drainage rate.","test":"Use transparent water-wet pore models with pressure and high-speed meniscus imaging.","contrary":"Pressure never exceeds the static threshold after sensor dynamics correction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0224","title":"Pore throat pressure overshoot","question":"Can draining a large pore behind a narrow throat create a transient pressure overshoot beyond its static entry pressure?","prediction":"Fast interface acceleration produces a repeatable overshoot that scales with drainage rate.","test":"Use transparent water-wet pore models with pressure and high-speed meniscus imaging.","contrary_outcome":"Pressure never exceeds the static threshold after sensor dynamics correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0225","id":"S3-0225","volume":"900v3","title":"Sediment acoustic fluidization test","prediction":"Friction reduction tracks pressure-motion phase rather than acoustic intensity alone.","test":"Measure shear, pore pressure and grain motion in a benign saturated bed.","contrary":"Friction reduction depends only on heating or vibration amplitude.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0225","title":"Sediment acoustic fluidization test","question":"Can weak sound reduce friction only when pore pressure becomes phase-coherent with grain motion?","prediction":"Friction reduction tracks pressure-motion phase rather than acoustic intensity alone.","test":"Measure shear, pore pressure and grain motion in a benign saturated bed.","contrary_outcome":"Friction reduction depends only on heating or vibration amplitude.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0226","id":"S3-0226","volume":"900v3","title":"Impact crater moisture ring","prediction":"Ring radius shifts with gradient depth while mean density is held constant.","test":"Drop inert beads into safe granular beds with calibrated water profiles and image ejecta.","contrary":"Rings follow density variation or impact variability alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0226","title":"Impact crater moisture ring","question":"Can a shallow moisture gradient produce an annular ejecta deposit without changing total impact energy?","prediction":"Ring radius shifts with gradient depth while mean density is held constant.","test":"Drop inert beads into safe granular beds with calibrated water profiles and image ejecta.","contrary_outcome":"Rings follow density variation or impact variability alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0227","id":"S3-0227","volume":"900v3","title":"Salt weathering release sequence","prediction":"Alternating hydration fronts concentrate strain at a moving boundary.","test":"Cycle benign salt-loaded porous coupons with strain and phase mapping.","contrary":"Damage depends only on final salt mass and maximum humidity.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0227","title":"Salt weathering release sequence","question":"Can sequential humidity exposure produce more fracture than simultaneous equilibration at equal final salt content?","prediction":"Alternating hydration fronts concentrate strain at a moving boundary.","test":"Cycle benign salt-loaded porous coupons with strain and phase mapping.","contrary_outcome":"Damage depends only on final salt mass and maximum humidity.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0228","id":"S3-0228","volume":"900v3","title":"Pore network gas trapping order","prediction":"Opposed-front filling yields a different gas-percolation threshold than one-sided filling.","test":"Image transparent pore networks with equal final saturation and pressure.","contrary":"Gas connectivity depends only on saturation.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0228","title":"Pore network gas trapping order","question":"Can the sequence of wetting fronts determine trapped-air connectivity at equal liquid saturation?","prediction":"Opposed-front filling yields a different gas-percolation threshold than one-sided filling.","test":"Image transparent pore networks with equal final saturation and pressure.","contrary_outcome":"Gas connectivity depends only on saturation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0228","title":"Pore network gas trapping order","question":"Can the sequence of wetting fronts determine trapped-air connectivity at equal liquid saturation?","prediction":"Opposed-front filling yields a different gas-percolation threshold than one-sided filling.","test":"Image transparent pore networks with equal final saturation and pressure.","contrary_outcome":"Gas connectivity depends only on saturation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can the sequence of wetting fronts determine trapped-air connectivity at equal liquid saturation experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0229","id":"S3-0229","volume":"900v3","title":"Granular arch thermal signature","prediction":"Conductance anisotropy aligns with independently measured force chains.","test":"Use photoelastic inert grains with mild heating and calibrated contact thermometry.","contrary":"Thermal maps follow packing density alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0229","title":"Granular arch thermal signature","question":"Can a load-bearing arch be located through thermal conductance even when surface deformation is unresolved?","prediction":"Conductance anisotropy aligns with independently measured force chains.","test":"Use photoelastic inert grains with mild heating and calibrated contact thermometry.","contrary_outcome":"Thermal maps follow packing density alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0230","id":"S3-0230","volume":"900v3","title":"Ice lens flow diversion","prediction":"Neighboring flux rises before complete geometric closure.","test":"Image freezing in transparent water networks with local temperature and flow measurement.","contrary":"Diversion starts only after closure or follows bulk pressure changes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0230","title":"Ice lens flow diversion","question":"Can a growing ice lens redirect water into a warmer neighboring pore before it blocks the original pore?","prediction":"Neighboring flux rises before complete geometric closure.","test":"Image freezing in transparent water networks with local temperature and flow measurement.","contrary_outcome":"Diversion starts only after closure or follows bulk pressure changes.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0231","id":"S3-0231","volume":"900v3","title":"Desiccation strain precursor","prediction":"A reproducible sign reversal precedes delamination at the eventual boundary.","test":"Use digital image correlation and interferometric gap sensing on benign clay films.","contrary":"Sign reversals occur equally at attached locations.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0231","title":"Desiccation strain precursor","question":"Can local strain-rate sign changes predict where a drying film first detaches?","prediction":"A reproducible sign reversal precedes delamination at the eventual boundary.","test":"Use digital image correlation and interferometric gap sensing on benign clay films.","contrary_outcome":"Sign reversals occur equally at attached locations.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0232","id":"S3-0232","volume":"900v3","title":"Granular impact history erasure","prediction":"Impact force distributions return toward virgin behavior after shear while porosity is unchanged.","test":"Compare sealed granular beds under controlled preparation, tomography and instrumented low-energy impacts.","contrary":"Force memory follows density alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0232","title":"Granular impact history erasure","question":"Can a weak pre-shear erase impact-force memory without altering bulk density?","prediction":"Impact force distributions return toward virgin behavior after shear while porosity is unchanged.","test":"Compare sealed granular beds under controlled preparation, tomography and instrumented low-energy impacts.","contrary_outcome":"Force memory follows density alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0233","id":"S3-0233","volume":"900v3","title":"Pore-scale barometric pumping","prediction":"Net vapor flux reverses when network orientation reverses at zero mean pressure.","test":"Use nonreactive humidity tracers and transparent asymmetric channels with no thermal gradient.","contrary":"Transport vanishes after mean pressure and humidity offsets are corrected.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0233","title":"Pore-scale barometric pumping","question":"Can symmetric pressure oscillations create net vapor transport in an asymmetric dry pore network?","prediction":"Net vapor flux reverses when network orientation reverses at zero mean pressure.","test":"Use nonreactive humidity tracers and transparent asymmetric channels with no thermal gradient.","contrary_outcome":"Transport vanishes after mean pressure and humidity offsets are corrected.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0234","id":"S3-0234","volume":"900v3","title":"Bedform shadow convection","prediction":"Pore circulation cells lock to ripple wavelength under a vertical thermal gradient.","test":"Measure flow in a safe transparent sediment analogue with flat-bed controls.","contrary":"Circulation is unrelated to bed geometry.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0234","title":"Bedform shadow convection","question":"Can a stationary ripple shape organize heat-driven pore flow without external water flow?","prediction":"Pore circulation cells lock to ripple wavelength under a vertical thermal gradient.","test":"Measure flow in a safe transparent sediment analogue with flat-bed controls.","contrary_outcome":"Circulation is unrelated to bed geometry.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0235","id":"S3-0235","volume":"900v3","title":"Frost heave contact loss","prediction":"Contact-network opening reduces conductance before bulk displacement exceeds resolution.","test":"Use benign saturated bead packs with heat-flow sensing, force and x-ray imaging.","contrary":"Conductance changes follow only ice fraction or post-heave geometry.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0235","title":"Frost heave contact loss","question":"Can a freezing soil analogue lose thermal conductance before measurable upward heave begins?","prediction":"Contact-network opening reduces conductance before bulk displacement exceeds resolution.","test":"Use benign saturated bead packs with heat-flow sensing, force and x-ray imaging.","contrary_outcome":"Conductance changes follow only ice fraction or post-heave geometry.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0235","title":"Frost heave contact loss","question":"Can a freezing soil analogue lose thermal conductance before measurable upward heave begins?","prediction":"Contact-network opening reduces conductance before bulk displacement exceeds resolution.","test":"Use benign saturated bead packs with heat-flow sensing, force and x-ray imaging.","contrary_outcome":"Conductance changes follow only ice fraction or post-heave geometry.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a freezing soil analogue lose thermal conductance before measurable upward heave begins experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0236","id":"S3-0236","volume":"900v3","title":"Compaction wave attenuation","prediction":"Pulse attenuation increases with rest time at fixed packing geometry.","test":"Use low-energy pulses in inert granular columns with matched density and humidity.","contrary":"Attenuation is independent of rest time after temperature correction.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0236","title":"Compaction wave attenuation","question":"Can a weak compaction front attenuate more strongly after a rest period because contacts age?","prediction":"Pulse attenuation increases with rest time at fixed packing geometry.","test":"Use low-energy pulses in inert granular columns with matched density and humidity.","contrary_outcome":"Attenuation is independent of rest time after temperature correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0237","id":"S3-0237","volume":"900v3","title":"Evaporative mineral skin buoyancy","prediction":"Capillary-support failure precedes the mean-density crossing.","test":"Track a benign salt crust's mass, geometry and contact angle during sinking.","contrary":"Sinking is explained entirely by buoyancy loss.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0237","title":"Evaporative mineral skin buoyancy","question":"Can a floating precipitate skin sink abruptly while its average material density remains below the liquid density?","prediction":"Capillary-support failure precedes the mean-density crossing.","test":"Track a benign salt crust's mass, geometry and contact angle during sinking.","contrary_outcome":"Sinking is explained entirely by buoyancy loss.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0238","id":"S3-0238","volume":"900v3","title":"Fracture aperture dew cycling","prediction":"Flow hysteresis appears at constant measured aperture and returns after complete drying.","test":"Use inert transparent fracture models with controlled humidity and surface-force proxies.","contrary":"Changes require material loss or measurable aperture changes.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0238","title":"Fracture aperture dew cycling","question":"Can repeated condensation cycles alter fracture transmissivity through reversible surface-force changes without erosion?","prediction":"Flow hysteresis appears at constant measured aperture and returns after complete drying.","test":"Use inert transparent fracture models with controlled humidity and surface-force proxies.","contrary_outcome":"Changes require material loss or measurable aperture changes.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0239","id":"S3-0239","volume":"900v3","title":"Regolith thermal eclipse analogue","prediction":"Early shadow recovery separates shallow contact resistance from bulk thermal inertia.","test":"Measure inert granular layered beds under replayed safe lamp cycles and abrupt occlusion.","contrary":"Shadow data adds no independent parameter information.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0239","title":"Regolith thermal eclipse analogue","question":"Can a brief shadow reveal layered regolith structure that a full day-night curve cannot distinguish?","prediction":"Early shadow recovery separates shallow contact resistance from bulk thermal inertia.","test":"Measure inert granular layered beds under replayed safe lamp cycles and abrupt occlusion.","contrary_outcome":"Shadow data adds no independent parameter information.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0240","id":"S3-0240","volume":"900v3","title":"Electrolyte concentration acoustics","prediction":"Joint attenuation and speed identify calibrated concentration-temperature pairs.","test":"Use safe dilute salts, low-power ultrasound and traceable solution standards.","contrary":"The joint inverse remains degenerate.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0240","title":"Electrolyte concentration acoustics","question":"Can ultrasonic attenuation separate dissolved salt concentration from temperature where sound speed alone is degenerate?","prediction":"Joint attenuation and speed identify calibrated concentration-temperature pairs.","test":"Use safe dilute salts, low-power ultrasound and traceable solution standards.","contrary_outcome":"The joint inverse remains degenerate.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0241","id":"S3-0241","volume":"900v3","title":"Carbon electrode wetting latency","prediction":"An initial noncharging interval ends with optically observed pore entry.","test":"Use current-limited carbon electrodes in safe aqueous electrolyte and transparent pore analogues.","contrary":"Charging begins immediately and follows diffusion alone.","layers":[1,2],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0241","title":"Carbon electrode wetting latency","question":"Can the delay before double-layer charging distinguish pore wetting from slow ion diffusion?","prediction":"An initial noncharging interval ends with optically observed pore entry.","test":"Use current-limited carbon electrodes in safe aqueous electrolyte and transparent pore analogues.","contrary_outcome":"Charging begins immediately and follows diffusion alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0241","title":"Carbon electrode wetting latency","question":"Can the delay before double-layer charging distinguish pore wetting from slow ion diffusion?","prediction":"An initial noncharging interval ends with optically observed pore entry.","test":"Use current-limited carbon electrodes in safe aqueous electrolyte and transparent pore analogues.","contrary_outcome":"Charging begins immediately and follows diffusion alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can the delay before double-layer charging distinguish pore wetting from slow ion diffusion experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0242","id":"S3-0242","volume":"900v3","title":"Aqueous cell bubble impedance","prediction":"A localized bubble produces a strong impedance arc at nearly constant equilibrium voltage.","test":"Insert removable air pockets into a current-limited benign aqueous test cell and image coverage.","contrary":"Impedance follows only bulk electrolyte resistance.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0242","title":"Aqueous cell bubble impedance","question":"Can one trapped gas pocket dominate impedance while leaving open-circuit voltage unchanged?","prediction":"A localized bubble produces a strong impedance arc at nearly constant equilibrium voltage.","test":"Insert removable air pockets into a current-limited benign aqueous test cell and image coverage.","contrary_outcome":"Impedance follows only bulk electrolyte resistance.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0243","id":"S3-0243","volume":"900v3","title":"Salt concentration polarization reset","prediction":"Diffusive relaxation produces a transient gradient-sign change in a confined asymmetric cell.","test":"Use low-voltage nonreactive salt transport with optical concentration mapping and no faradaic drive.","contrary":"The gradient relaxes monotonically without a sign change.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0243","title":"Salt concentration polarization reset","question":"Can a brief zero-current interval reverse a local concentration gradient without reversing applied current?","prediction":"Diffusive relaxation produces a transient gradient-sign change in a confined asymmetric cell.","test":"Use low-voltage nonreactive salt transport with optical concentration mapping and no faradaic drive.","contrary_outcome":"The gradient relaxes monotonically without a sign change.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0244","id":"S3-0244","volume":"900v3","title":"Electrode edge masking paradox","prediction":"Masked electrodes access more of their interior capacitance at equal active area-normalized drive.","test":"Compare patterned carbon electrodes using current-limited cycling and spatial potential measurements.","contrary":"Utilization changes are explained by active-area reduction alone.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0244","title":"Electrode edge masking paradox","question":"Can insulating an electrode's edge increase total reversible charge utilization by suppressing concentration depletion?","prediction":"Masked electrodes access more of their interior capacitance at equal active area-normalized drive.","test":"Compare patterned carbon electrodes using current-limited cycling and spatial potential measurements.","contrary_outcome":"Utilization changes are explained by active-area reduction alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0245","id":"S3-0245","volume":"900v3","title":"Porous separator compression memory","prediction":"Resistance remains elevated after mechanical thickness returns to baseline.","test":"Compress safe soaked polymer separators with thickness, permeability and impedance tracking.","contrary":"Resistance recovers simultaneously with thickness.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0245","title":"Porous separator compression memory","question":"Can a separator retain ionic resistance memory after thickness recovers because pore connectivity relaxes slowly?","prediction":"Resistance remains elevated after mechanical thickness returns to baseline.","test":"Compress safe soaked polymer separators with thickness, permeability and impedance tracking.","contrary_outcome":"Resistance recovers simultaneously with thickness.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0246","id":"S3-0246","volume":"900v3","title":"Electrolyte thermal cross-talk","prediction":"A low-frequency arc shifts with thermal boundary conditions and disappears isothermally.","test":"Measure current-limited blocking-electrode cells with traceable thermal control.","contrary":"The arc remains unchanged after temperature gradients are eliminated.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0246","title":"Electrolyte thermal cross-talk","question":"Can a small temperature gradient generate an apparent diffusion impedance feature in a nonfaradaic cell?","prediction":"A low-frequency arc shifts with thermal boundary conditions and disappears isothermally.","test":"Measure current-limited blocking-electrode cells with traceable thermal control.","contrary_outcome":"The arc remains unchanged after temperature gradients are eliminated.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0247","id":"S3-0247","volume":"900v3","title":"Carbon pore charge ordering","prediction":"Relaxation voltage differs by pulse order while coulombic balance remains closed.","test":"Use safe aqueous carbon capacitors with reference electrodes and leakage controls.","contrary":"Relaxation depends only on net charge and temperature.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0247","title":"Carbon pore charge ordering","question":"Can the order of two equal-charge pulses alter accessible capacitance through ion redistribution without net chemistry?","prediction":"Relaxation voltage differs by pulse order while coulombic balance remains closed.","test":"Use safe aqueous carbon capacitors with reference electrodes and leakage controls.","contrary_outcome":"Relaxation depends only on net charge and temperature.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0248","id":"S3-0248","volume":"900v3","title":"Electrolyte free-surface drift","prediction":"Impedance improvement vanishes in sealed cells and matches independent concentration calibration.","test":"Compare sealed and open benign aqueous cells with mass tracking and safe voltage limits.","contrary":"Improvement persists after concentration matching.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0248","title":"Electrolyte free-surface drift","question":"Can evaporation create an apparent improvement in electrode kinetics entirely through changing electrolyte concentration?","prediction":"Impedance improvement vanishes in sealed cells and matches independent concentration calibration.","test":"Compare sealed and open benign aqueous cells with mass tracking and safe voltage limits.","contrary_outcome":"Improvement persists after concentration matching.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0249","id":"S3-0249","volume":"900v3","title":"Current collector contact gating","prediction":"Capacity-like loss reverses immediately when collector preload is restored.","test":"Use current-limited carbon test cells with independent four-terminal contact resistance.","contrary":"Electrochemical loss persists after contact restoration.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0249","title":"Current collector contact gating","question":"Can a reversible mechanical contact dominate apparent electrode aging without altering the electrode?","prediction":"Capacity-like loss reverses immediately when collector preload is restored.","test":"Use current-limited carbon test cells with independent four-terminal contact resistance.","contrary_outcome":"Electrochemical loss persists after contact restoration.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0250","id":"S3-0250","volume":"900v3","title":"Aqueous potential mapping limit","prediction":"Measured gradient depends on probe diameter at equal electrochemical calibration.","test":"Compare miniature nonreactive salt-cell probes with optical field proxies and extrapolated zero-size limits.","contrary":"Gradients are probe-size independent within uncertainty.","layers":[1,2],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0250","title":"Aqueous potential mapping limit","question":"Can a reference electrode's insertion shift the very local potential gradient it measures?","prediction":"Measured gradient depends on probe diameter at equal electrochemical calibration.","test":"Compare miniature nonreactive salt-cell probes with optical field proxies and extrapolated zero-size limits.","contrary_outcome":"Gradients are probe-size independent within uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0250","title":"Aqueous potential mapping limit","question":"Can a reference electrode's insertion shift the very local potential gradient it measures?","prediction":"Measured gradient depends on probe diameter at equal electrochemical calibration.","test":"Compare miniature nonreactive salt-cell probes with optical field proxies and extrapolated zero-size limits.","contrary_outcome":"Gradients are probe-size independent within uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a reference electrode's insertion shift the very local potential gradient it measures experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0251","id":"S3-0251","volume":"900v3","title":"Separator wetting front anisotropy","prediction":"Conductivity anisotropy appears before full saturation and follows fiber alignment.","test":"Image harmless electrolyte wetting in oriented separators while measuring orthogonal impedance.","contrary":"Activation follows only thickness or final saturation.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0251","title":"Separator wetting front anisotropy","question":"Can dry-fiber orientation predict the direction of fastest ionic activation after first wetting?","prediction":"Conductivity anisotropy appears before full saturation and follows fiber alignment.","test":"Image harmless electrolyte wetting in oriented separators while measuring orthogonal impedance.","contrary_outcome":"Activation follows only thickness or final saturation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0252","id":"S3-0252","volume":"900v3","title":"Charge relaxation thermal fingerprint","prediction":"Heat and voltage relaxation have separable calibrated time scales.","test":"Use safe low-voltage carbon capacitors with microcalorimetry and energy balance.","contrary":"All thermal relaxation matches a single resistor-capacitor description.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0252","title":"Charge relaxation thermal fingerprint","question":"Can self-heating after a charge pulse distinguish resistive loss from slow reversible ion redistribution?","prediction":"Heat and voltage relaxation have separable calibrated time scales.","test":"Use safe low-voltage carbon capacitors with microcalorimetry and energy balance.","contrary_outcome":"All thermal relaxation matches a single resistor-capacitor description.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0253","id":"S3-0253","volume":"900v3","title":"Electrolyte meniscus voltage noise","prediction":"Noise events align with optically measured meniscus jumps at constant total charge.","test":"Use inert electrodes, benign electrolyte and current limits with vibration controls.","contrary":"Noise is unrelated to meniscus motion or requires faradaic current.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0253","title":"Electrolyte meniscus voltage noise","question":"Can contact-line pinning create voltage noise in a blocking-electrode cell without charge-transfer reactions?","prediction":"Noise events align with optically measured meniscus jumps at constant total charge.","test":"Use inert electrodes, benign electrolyte and current limits with vibration controls.","contrary_outcome":"Noise is unrelated to meniscus motion or requires faradaic current.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0254","id":"S3-0254","volume":"900v3","title":"Carbon electrode thickness optimum","prediction":"A thermal boundary term reverses the energy ranking under temperature cycling.","test":"Compare current-limited aqueous capacitors with matched carbon mass through geometric rearrangement.","contrary":"Energy ranking is explained entirely by electrochemical transport.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0254","title":"Carbon electrode thickness optimum","question":"Can thinning a porous electrode reduce delivered energy despite improved rate capability because collector heat leaks dominate?","prediction":"A thermal boundary term reverses the energy ranking under temperature cycling.","test":"Compare current-limited aqueous capacitors with matched carbon mass through geometric rearrangement.","contrary_outcome":"Energy ranking is explained entirely by electrochemical transport.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0255","id":"S3-0255","volume":"900v3","title":"Ion diffusion geometric mirror","prediction":"Transient concentration skew reverses with geometry while DC resistance remains equal.","test":"Use safe salt microchannels with blocking electrodes, low voltage and optical concentration maps.","contrary":"Transient skew does not reverse or follows electrode differences.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0255","title":"Ion diffusion geometric mirror","question":"Can two mirror-image asymmetric salt channels have identical steady resistance but opposite concentration transients?","prediction":"Transient concentration skew reverses with geometry while DC resistance remains equal.","test":"Use safe salt microchannels with blocking electrodes, low voltage and optical concentration maps.","contrary_outcome":"Transient skew does not reverse or follows electrode differences.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0256","id":"S3-0256","volume":"900v3","title":"Aqueous cell gravitational stratification","prediction":"Rotating the cell relative to gravity changes relaxation while initial charge is matched.","test":"Use safe aqueous blocking cells with concentration imaging and no gas evolution.","contrary":"Relaxation is orientation-independent after temperature control.","layers":[1,2],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0256","title":"Aqueous cell gravitational stratification","question":"Can weak density stratification delay open-circuit relaxation after charging without changing chemistry?","prediction":"Rotating the cell relative to gravity changes relaxation while initial charge is matched.","test":"Use safe aqueous blocking cells with concentration imaging and no gas evolution.","contrary_outcome":"Relaxation is orientation-independent after temperature control.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0256","title":"Aqueous cell gravitational stratification","question":"Can weak density stratification delay open-circuit relaxation after charging without changing chemistry?","prediction":"Rotating the cell relative to gravity changes relaxation while initial charge is matched.","test":"Use safe aqueous blocking cells with concentration imaging and no gas evolution.","contrary_outcome":"Relaxation is orientation-independent after temperature control.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can weak density stratification delay open-circuit relaxation after charging without changing chemistry experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0257","id":"S3-0257","volume":"900v3","title":"Electrode pore acoustic probe","prediction":"Only mobile electrolyte pathways show phase-locked impedance modulation.","test":"Measure low-voltage carbon cells under weak sound with thermal and mechanical contact controls.","contrary":"Sidebands arise solely from collector motion.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0257","title":"Electrode pore acoustic probe","question":"Can a weak acoustic perturbation distinguish blocked pores from slow diffusion by their relaxation sidebands?","prediction":"Only mobile electrolyte pathways show phase-locked impedance modulation.","test":"Measure low-voltage carbon cells under weak sound with thermal and mechanical contact controls.","contrary_outcome":"Sidebands arise solely from collector motion.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0258","id":"S3-0258","volume":"900v3","title":"Double-layer edge thermal drift","prediction":"Spatial charging response follows thermal location rather than permanent pore structure.","test":"Use segmented carbon electrodes in safe electrolyte with calibrated local heating.","contrary":"The gradient remains fixed to electrode microstructure.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0258","title":"Double-layer edge thermal drift","question":"Can localized electrode warming create an apparent capacitance gradient that reverses when the heater moves?","prediction":"Spatial charging response follows thermal location rather than permanent pore structure.","test":"Use segmented carbon electrodes in safe electrolyte with calibrated local heating.","contrary_outcome":"The gradient remains fixed to electrode microstructure.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0259","id":"S3-0259","volume":"900v3","title":"Safe-cell rest optimization","prediction":"Delivered energy has an interior maximum versus rest time under fixed total cycle duration.","test":"Measure current-limited aqueous carbon capacitors with independently measured leakage and heat.","contrary":"Energy is monotonic over the preregistered interval.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0259","title":"Safe-cell rest optimization","question":"Can a fixed rest interval waste more recoverable energy than it restores when leakage competes with redistribution?","prediction":"Delivered energy has an interior maximum versus rest time under fixed total cycle duration.","test":"Measure current-limited aqueous carbon capacitors with independently measured leakage and heat.","contrary_outcome":"Energy is monotonic over the preregistered interval.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0260","id":"S3-0260","volume":"900v3","title":"Evaporation electric field artifact","prediction":"Particle drift persists with zero applied voltage and follows independently measured concentration gradients.","test":"Use inert tracer particles in safe salt films with neutral-tracer and sealed controls.","contrary":"Motion is explained entirely by fluid flow.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0260","title":"Evaporation electric field artifact","question":"Can ionic accumulation at a drying front mimic electrophoretic particle motion without an external field?","prediction":"Particle drift persists with zero applied voltage and follows independently measured concentration gradients.","test":"Use inert tracer particles in safe salt films with neutral-tracer and sealed controls.","contrary_outcome":"Motion is explained entirely by fluid flow.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0261","id":"S3-0261","volume":"900v3","title":"Crystal-electrode contact noise","prediction":"Four-terminal resistance steps align with local contact displacement rather than bulk ionic conductivity.","test":"Use dry low-voltage metal contacts exposed to controlled harmless salt crystallization.","contrary":"Resistance changes follow only solution conductivity.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0261","title":"Crystal-electrode contact noise","question":"Can benign salt precipitation cause stepwise electronic contact resistance before a visible bridge forms?","prediction":"Four-terminal resistance steps align with local contact displacement rather than bulk ionic conductivity.","test":"Use dry low-voltage metal contacts exposed to controlled harmless salt crystallization.","contrary_outcome":"Resistance changes follow only solution conductivity.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0262","id":"S3-0262","volume":"900v3","title":"Electrolyte vessel compliance","prediction":"The feature shifts with wall stiffness at matched electrochemical geometry.","test":"Compare rigid and compliant safe blocking cells with pressure and concentration monitoring.","contrary":"Impedance is stiffness-independent.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0262","title":"Electrolyte vessel compliance","question":"Can vessel-wall compliance create a slow impedance feature by pressure-driven concentration redistribution?","prediction":"The feature shifts with wall stiffness at matched electrochemical geometry.","test":"Compare rigid and compliant safe blocking cells with pressure and concentration monitoring.","contrary_outcome":"Impedance is stiffness-independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0263","id":"S3-0263","volume":"900v3","title":"Capacitor voltage rebound location","prediction":"Probe delay ordering changes with independently varied collector resistance but not pore depth.","test":"Use current-limited segmented carbon capacitors and calibrated high-impedance probes.","contrary":"Probe ordering is insensitive to the proposed origin.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0263","title":"Capacitor voltage rebound location","question":"Can spatial voltage probes identify whether rebound originates near a collector or deep in a pore network?","prediction":"Probe delay ordering changes with independently varied collector resistance but not pore depth.","test":"Use current-limited segmented carbon capacitors and calibrated high-impedance probes.","contrary_outcome":"Probe ordering is insensitive to the proposed origin.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0263","title":"Capacitor voltage rebound location","question":"Can spatial voltage probes identify whether rebound originates near a collector or deep in a pore network?","prediction":"Probe delay ordering changes with independently varied collector resistance but not pore depth.","test":"Use current-limited segmented carbon capacitors and calibrated high-impedance probes.","contrary_outcome":"Probe ordering is insensitive to the proposed origin.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can spatial voltage probes identify whether rebound originates near a collector or deep in a pore network experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0264","id":"S3-0264","volume":"900v3","title":"Ionic conductor humidity front","prediction":"Total resistance stays fixed while local temperature hot spots travel with the hydration front.","test":"Measure safe hydrated polymer strips with low voltage and calibrated infrared thermography.","contrary":"Hot spots remain fixed or resistance must change with front motion.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0264","title":"Ionic conductor humidity front","question":"Can ionic conductance remain constant while a moving hydration front changes the spatial distribution of dissipation?","prediction":"Total resistance stays fixed while local temperature hot spots travel with the hydration front.","test":"Measure safe hydrated polymer strips with low voltage and calibrated infrared thermography.","contrary_outcome":"Hot spots remain fixed or resistance must change with front motion.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0265","id":"S3-0265","volume":"900v3","title":"Electrolyte optical calibration drift","prediction":"Joint wavelength and thermometry corrections remove an apparent concentration overshoot.","test":"Calibrate safe salt solutions across temperature and compare in-cell concentration reconstructions.","contrary":"Overshoots persist after validated thermal correction.","layers":[1],"categories":["physical","energy","biology","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0265","title":"Electrolyte optical calibration drift","question":"Can electrode-adjacent refractive gradients bias optical concentration estimates through temperature rather than salt?","prediction":"Joint wavelength and thermometry corrections remove an apparent concentration overshoot.","test":"Calibrate safe salt solutions across temperature and compare in-cell concentration reconstructions.","contrary_outcome":"Overshoots persist after validated thermal correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0266","id":"S3-0266","volume":"900v3","title":"Charge pulse asymmetry audit","prediction":"Rectification vanishes with four-terminal sensing and matched thermal leads.","test":"Use blocking electrodes in benign electrolyte with reversible lead swapping.","contrary":"Asymmetry remains after electrical and thermal lead effects are corrected.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0266","title":"Charge pulse asymmetry audit","question":"Can unequal lead resistance make a symmetric nonfaradaic cell appear to rectify current pulses?","prediction":"Rectification vanishes with four-terminal sensing and matched thermal leads.","test":"Use blocking electrodes in benign electrolyte with reversible lead swapping.","contrary_outcome":"Asymmetry remains after electrical and thermal lead effects are corrected.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0267","id":"S3-0267","volume":"900v3","title":"Porous electrode trapped-air aging","prediction":"Capacitance recovery tracks shrinking trapped-air volume in a sealed cell.","test":"Image safe electrolyte uptake in carbon pore analogues and compare degassed controls.","contrary":"Recovery occurs without air loss or follows chemical aging.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0267","title":"Porous electrode trapped-air aging","question":"Can gradual air dissolution restore capacitance without any change in active material?","prediction":"Capacitance recovery tracks shrinking trapped-air volume in a sealed cell.","test":"Image safe electrolyte uptake in carbon pore analogues and compare degassed controls.","contrary_outcome":"Recovery occurs without air loss or follows chemical aging.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0268","id":"S3-0268","volume":"900v3","title":"Electrolyte concentration front braking","prediction":"A recirculating diffusive reservoir produces an extended tail in concentration arrival.","test":"Use safe low-voltage channels with optical mapping and a straight-channel reference.","contrary":"Arrival tails match a one-dimensional area-corrected diffusion model.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0268","title":"Electrolyte concentration front braking","question":"Can a geometric expansion slow an ionic concentration front more than predicted by area change alone?","prediction":"A recirculating diffusive reservoir produces an extended tail in concentration arrival.","test":"Use safe low-voltage channels with optical mapping and a straight-channel reference.","contrary_outcome":"Arrival tails match a one-dimensional area-corrected diffusion model.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0269","id":"S3-0269","volume":"900v3","title":"Blocking electrode pressure sensitivity","prediction":"Pressure sensitivity is hysteretic only in initially unsaturated electrodes.","test":"Compare safe aqueous carbon electrodes before/after vacuum-assisted wetting at modest pressure.","contrary":"Sensitivity persists equally in fully saturated controls.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0269","title":"Blocking electrode pressure sensitivity","question":"Can modest hydrostatic pressure change measured capacitance through pore wetting rather than dielectric compression?","prediction":"Pressure sensitivity is hysteretic only in initially unsaturated electrodes.","test":"Compare safe aqueous carbon electrodes before/after vacuum-assisted wetting at modest pressure.","contrary_outcome":"Sensitivity persists equally in fully saturated controls.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0270","id":"S3-0270","volume":"900v3","title":"Artificial crater thermal sorting","prediction":"Thermal maps differ after sorting and collapse when the same grains are remixed.","test":"Use inert granular crater analogues with 3D grain maps and safe lamp forcing.","contrary":"Anomalies persist after grain-size distribution and packing are matched.","layers":[1,2],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0270","title":"Artificial crater thermal sorting","question":"Can grain-size segregation inside a crater create an apparent thermal-inertia anomaly without a compositional difference?","prediction":"Thermal maps differ after sorting and collapse when the same grains are remixed.","test":"Use inert granular crater analogues with 3D grain maps and safe lamp forcing.","contrary_outcome":"Anomalies persist after grain-size distribution and packing are matched.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0270","title":"Artificial crater thermal sorting","question":"Can grain-size segregation inside a crater create an apparent thermal-inertia anomaly without a compositional difference?","prediction":"Thermal maps differ after sorting and collapse when the same grains are remixed.","test":"Use inert granular crater analogues with 3D grain maps and safe lamp forcing.","contrary_outcome":"Anomalies persist after grain-size distribution and packing are matched.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can grain-size segregation inside a crater create an apparent thermal-inertia anomaly without a compositional difference experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0271","id":"S3-0271","volume":"900v3","title":"Vacuum analogue gas-gap scaling","prediction":"Normalized conductance collapses when rarefaction and geometric ratios are matched.","test":"Measure inert gas heat transport over a safe pressure range with traceable gaps.","contrary":"No collapse occurs after radiation and solid-contact losses are removed.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0271","title":"Vacuum analogue gas-gap scaling","question":"Can a modest-pressure laboratory gas gap reproduce the dimensionless thermal transition relevant to porous regolith?","prediction":"Normalized conductance collapses when rarefaction and geometric ratios are matched.","test":"Measure inert gas heat transport over a safe pressure range with traceable gaps.","contrary_outcome":"No collapse occurs after radiation and solid-contact losses are removed.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0272","id":"S3-0272","volume":"900v3","title":"Rocking basin tidal lag","prediction":"Pressure phase varies with pore connectivity while cycle-integrated flow remains zero.","test":"Use a safe transparent saturated bed under small tilt cycles with pressure and flow sensing.","contrary":"Phase is set only by instrument lag or net drainage.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0272","title":"Rocking basin tidal lag","question":"Can periodic basin tilt create a lagged sediment-pore pressure signal without net water transport?","prediction":"Pressure phase varies with pore connectivity while cycle-integrated flow remains zero.","test":"Use a safe transparent saturated bed under small tilt cycles with pressure and flow sensing.","contrary_outcome":"Phase is set only by instrument lag or net drainage.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0273","id":"S3-0273","volume":"900v3","title":"Dust shadow retention","prediction":"Cooldown time exceeds the flat control after conduction and illumination are matched.","test":"Use inert dust analogues, measured view factors and calibrated thermal imaging.","contrary":"Differences follow packing or absorbed lamp power alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0273","title":"Dust shadow retention","question":"Can a shallow dust pit retain a thermal cold spot longer than a flat deposit of equal mass because of radiative exchange?","prediction":"Cooldown time exceeds the flat control after conduction and illumination are matched.","test":"Use inert dust analogues, measured view factors and calibrated thermal imaging.","contrary_outcome":"Differences follow packing or absorbed lamp power alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0274","id":"S3-0274","volume":"900v3","title":"Ice crevasse optical warming","prediction":"Base heating exceeds a single-pass absorption estimate at equal incident power.","test":"Use safe transparent slot models with calibrated absorption and embedded thermometers.","contrary":"Heating is explained by direct absorption or conductive paths.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0274","title":"Ice crevasse optical warming","question":"Can multiple reflections inside a narrow ice-like transparent slot concentrate heating near its base?","prediction":"Base heating exceeds a single-pass absorption estimate at equal incident power.","test":"Use safe transparent slot models with calibrated absorption and embedded thermometers.","contrary_outcome":"Heating is explained by direct absorption or conductive paths.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0275","id":"S3-0275","volume":"900v3","title":"Floating crust flexure front","prediction":"Curvature front travels beyond the thermal diffusion front through elastic coupling.","test":"Use safe floating polymer sheets with thermal and 3D shape imaging.","contrary":"Curvature advances only where local temperature has changed.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0275","title":"Floating crust flexure front","question":"Can local cooling of a floating inert sheet create a propagating buckle before any crack forms?","prediction":"Curvature front travels beyond the thermal diffusion front through elastic coupling.","test":"Use safe floating polymer sheets with thermal and 3D shape imaging.","contrary_outcome":"Curvature advances only where local temperature has changed.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0276","id":"S3-0276","volume":"900v3","title":"Granular horizon inversion","prediction":"Intermediate wetting maximizes contact bridging before bulk liquid heat capacity dominates.","test":"Measure layered inert beds over calibrated water contents with full heat balances.","contrary":"Response varies monotonically with saturation.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0276","title":"Granular horizon inversion","question":"Can a buried fine-grain layer produce a larger thermal response when it is slightly moist than when fully saturated?","prediction":"Intermediate wetting maximizes contact bridging before bulk liquid heat capacity dominates.","test":"Measure layered inert beds over calibrated water contents with full heat balances.","contrary_outcome":"Response varies monotonically with saturation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0277","id":"S3-0277","volume":"900v3","title":"Laboratory eclipse frost transport","prediction":"Frost mass grows just inside the shadow while receding outside it under constant total water inventory.","test":"Use a sealed cold cell with moving safe illumination, mass balance and imaging.","contrary":"Redistribution requires liquid transport or external vapor supply.","layers":[1,2],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0277","title":"Laboratory eclipse frost transport","question":"Can a moving shadow redistribute frost laterally through vapor exchange without liquid water?","prediction":"Frost mass grows just inside the shadow while receding outside it under constant total water inventory.","test":"Use a sealed cold cell with moving safe illumination, mass balance and imaging.","contrary_outcome":"Redistribution requires liquid transport or external vapor supply.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0277","title":"Laboratory eclipse frost transport","question":"Can a moving shadow redistribute frost laterally through vapor exchange without liquid water?","prediction":"Frost mass grows just inside the shadow while receding outside it under constant total water inventory.","test":"Use a sealed cold cell with moving safe illumination, mass balance and imaging.","contrary_outcome":"Redistribution requires liquid transport or external vapor supply.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a moving shadow redistribute frost laterally through vapor exchange without liquid water experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0278","id":"S3-0278","volume":"900v3","title":"Porous meteorite analogue ringing","prediction":"Damping depends on overlap between modal strain and shell moisture.","test":"Compare controlled water distributions in inert porous spheres using tomography and vibrometry.","contrary":"Only total moisture predicts modal damping.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0278","title":"Porous meteorite analogue ringing","question":"Can a thin wet outer shell damp an inert porous sphere's ringing more than a uniformly damp sample of equal water mass?","prediction":"Damping depends on overlap between modal strain and shell moisture.","test":"Compare controlled water distributions in inert porous spheres using tomography and vibrometry.","contrary_outcome":"Only total moisture predicts modal damping.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0279","id":"S3-0279","volume":"900v3","title":"Tidal crack fluid lag","prediction":"A hydraulic relaxation time creates a measurable positive phase lag.","test":"Oscillate transparent fracture gaps with water and record aperture, flow and pressure.","contrary":"Pressure extrema remain synchronous after instrument correction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0279","title":"Tidal crack fluid lag","question":"Can a periodically opened benign fracture show maximum fluid pressure after maximum aperture?","prediction":"A hydraulic relaxation time creates a measurable positive phase lag.","test":"Oscillate transparent fracture gaps with water and record aperture, flow and pressure.","contrary_outcome":"Pressure extrema remain synchronous after instrument correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0280","id":"S3-0280","volume":"900v3","title":"Thermal sand avalanche reset","prediction":"Repacked contacts shift surface thermal phase while composition and size stay fixed.","test":"Trigger safe small avalanches under constant lamp cycles with density and roughness mapping.","contrary":"Phase changes are explained entirely by surface angle.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0280","title":"Thermal sand avalanche reset","question":"Can a small avalanche erase a granular surface's thermal phase lag without changing average grain size?","prediction":"Repacked contacts shift surface thermal phase while composition and size stay fixed.","test":"Trigger safe small avalanches under constant lamp cycles with density and roughness mapping.","contrary_outcome":"Phase changes are explained entirely by surface angle.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0281","id":"S3-0281","volume":"900v3","title":"Impact acoustic porosity ambiguity","prediction":"Amplitude dependence differs between unbonded and weakly bonded inert packs of equal porosity.","test":"Use calibrated safe impacts with tomography and full acoustic records.","contrary":"Both packs share the same amplitude-dependent response.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0281","title":"Impact acoustic porosity ambiguity","question":"Can a pair of low-energy impacts distinguish porosity from weak intergrain bonding that one impact cannot?","prediction":"Amplitude dependence differs between unbonded and weakly bonded inert packs of equal porosity.","test":"Use calibrated safe impacts with tomography and full acoustic records.","contrary_outcome":"Both packs share the same amplitude-dependent response.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0282","id":"S3-0282","volume":"900v3","title":"Cloud chamber wall analogy","prediction":"First-droplet sites align with transient wall cooling rather than static roughness.","test":"Use a benign water-condensation chamber with swappable thermally matched-texture wall patches.","contrary":"Nucleation follows roughness alone.","layers":[1,2],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0282","title":"Cloud chamber wall analogy","question":"Can a wall's local thermal inertia shift where water droplets first condense under uniform bulk supersaturation?","prediction":"First-droplet sites align with transient wall cooling rather than static roughness.","test":"Use a benign water-condensation chamber with swappable thermally matched-texture wall patches.","contrary_outcome":"Nucleation follows roughness alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0282","title":"Cloud chamber wall analogy","question":"Can a wall's local thermal inertia shift where water droplets first condense under uniform bulk supersaturation?","prediction":"First-droplet sites align with transient wall cooling rather than static roughness.","test":"Use a benign water-condensation chamber with swappable thermally matched-texture wall patches.","contrary_outcome":"Nucleation follows roughness alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a wall's local thermal inertia shift where water droplets first condense under uniform bulk supersaturation experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0283","id":"S3-0283","volume":"900v3","title":"Dune pore thermal breathing","prediction":"Cycle-integrated exchange is nonzero through asymmetric pore opening and closing.","test":"Measure tracer-gas exchange in sealed safe granular mounds with isothermal controls.","contrary":"Exchange vanishes after buoyancy-driven external circulation is excluded.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0283","title":"Dune pore thermal breathing","question":"Can periodic surface heating pump air through an inert dune analogue at zero mean wind?","prediction":"Cycle-integrated exchange is nonzero through asymmetric pore opening and closing.","test":"Measure tracer-gas exchange in sealed safe granular mounds with isothermal controls.","contrary_outcome":"Exchange vanishes after buoyancy-driven external circulation is excluded.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0284","id":"S3-0284","volume":"900v3","title":"Spacecraft blanket seam analogue","prediction":"An overlap forms a circulation loop that raises heat leak beyond the equal-area slot.","test":"Measure low-temperature heat transport and airflow in safe multilayer mockups.","contrary":"Overlap leakage is always below open-slot leakage after conduction correction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0284","title":"Spacecraft blanket seam analogue","question":"Can a loosely overlapped insulation seam lose more heat than an open slot because it drives gas circulation at ambient pressure?","prediction":"An overlap forms a circulation loop that raises heat leak beyond the equal-area slot.","test":"Measure low-temperature heat transport and airflow in safe multilayer mockups.","contrary_outcome":"Overlap leakage is always below open-slot leakage after conduction correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0285","id":"S3-0285","volume":"900v3","title":"Ice rind stress delocalization","prediction":"Peak strain falls while integrated displacement remains constant.","test":"Freeze water in transparent safe compliant-backed cells with rigid controls.","contrary":"Crack suppression requires reduced freezing or leaked water.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0285","title":"Ice rind stress delocalization","question":"Can a compliant underlayer spread freezing stress enough to prevent a crack despite unchanged total volume expansion?","prediction":"Peak strain falls while integrated displacement remains constant.","test":"Freeze water in transparent safe compliant-backed cells with rigid controls.","contrary_outcome":"Crack suppression requires reduced freezing or leaked water.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0286","id":"S3-0286","volume":"900v3","title":"Rock thermal fatigue threshold","prediction":"Crack growth differs under opposite confinement phase at equal thermal amplitude.","test":"Use inert brittle coupons under mild thermal cycling and calibrated reversible loads.","contrary":"Growth depends only on peak temperature and stress amplitude.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0286","title":"Rock thermal fatigue threshold","question":"Can the phase between surface heating and mechanical confinement control fatigue more than peak temperature?","prediction":"Crack growth differs under opposite confinement phase at equal thermal amplitude.","test":"Use inert brittle coupons under mild thermal cycling and calibrated reversible loads.","contrary_outcome":"Growth depends only on peak temperature and stress amplitude.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0287","id":"S3-0287","volume":"900v3","title":"Sediment analogue seismic coda","prediction":"Coda decorrelation locates the channel while first-arrival time remains unchanged.","test":"Use inert transparent bead packs with a controlled water channel and blinded acoustic inversion.","contrary":"Coda changes are dominated by boundary drift.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0287","title":"Sediment analogue seismic coda","question":"Can late acoustic coda reveal a narrow saturated channel invisible in the first arrival?","prediction":"Coda decorrelation locates the channel while first-arrival time remains unchanged.","test":"Use inert transparent bead packs with a controlled water channel and blinded acoustic inversion.","contrary_outcome":"Coda changes are dominated by boundary drift.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0288","id":"S3-0288","volume":"900v3","title":"Cryovolcanic analogue vent clogging","prediction":"Outflow oscillations coincide with freeze-thaw plug cycles at the throat.","test":"Use chilled water and ice slurry in a safe transparent vent with pressure and temperature sensing.","contrary":"Oscillations arise from feed fluctuations or occur without a plug.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0288","title":"Cryovolcanic analogue vent clogging","question":"Can benign freezing slurry clog a vent intermittently even under constant feed pressure?","prediction":"Outflow oscillations coincide with freeze-thaw plug cycles at the throat.","test":"Use chilled water and ice slurry in a safe transparent vent with pressure and temperature sensing.","contrary_outcome":"Oscillations arise from feed fluctuations or occur without a plug.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0289","id":"S3-0289","volume":"900v3","title":"Thermal rockfall precursor","prediction":"Resonance shifts predict loss of a measured supporting contact before displacement accelerates.","test":"Use a restrained small block with safe thermal cycling, force sensors and vibrometry.","contrary":"Changes occur only after visible motion.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0289","title":"Thermal rockfall precursor","question":"Can changing elastic contact stiffness precede detachment of a thermally cycled inert block?","prediction":"Resonance shifts predict loss of a measured supporting contact before displacement accelerates.","test":"Use a restrained small block with safe thermal cycling, force sensors and vibrometry.","contrary_outcome":"Changes occur only after visible motion.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0289","title":"Thermal rockfall precursor","question":"Can changing elastic contact stiffness precede detachment of a thermally cycled inert block?","prediction":"Resonance shifts predict loss of a measured supporting contact before displacement accelerates.","test":"Use a restrained small block with safe thermal cycling, force sensors and vibrometry.","contrary_outcome":"Changes occur only after visible motion.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can changing elastic contact stiffness precede detachment of a thermally cycled inert block experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0290","id":"S3-0290","volume":"900v3","title":"Regolith dielectric thermal lag","prediction":"Two-frequency loss phase distinguishes independently imposed moisture and temperature profiles.","test":"Measure safe sand-water layers with calibrated dielectric probes and thermal sensors.","contrary":"The two perturbations remain degenerate.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0290","title":"Regolith dielectric thermal lag","question":"Can low-voltage dielectric measurements separate a buried water-content change from surface-temperature drift in inert soil analogues?","prediction":"Two-frequency loss phase distinguishes independently imposed moisture and temperature profiles.","test":"Measure safe sand-water layers with calibrated dielectric probes and thermal sensors.","contrary_outcome":"The two perturbations remain degenerate.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0291","id":"S3-0291","volume":"900v3","title":"Gravity-current crystal entrainment","prediction":"Tracked crystals briefly move opposite the net current in a resolved recirculation cell.","test":"Image safe shallow salt currents with matched passive tracers and density profiles.","contrary":"All crystal motion follows settling and downstream advection.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0291","title":"Gravity-current crystal entrainment","question":"Can a benign dissolved-salt gravity current carry crystals upstream locally through return circulation?","prediction":"Tracked crystals briefly move opposite the net current in a resolved recirculation cell.","test":"Image safe shallow salt currents with matched passive tracers and density profiles.","contrary_outcome":"All crystal motion follows settling and downstream advection.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0292","id":"S3-0292","volume":"900v3","title":"Frozen fracture acoustic reopening","prediction":"Attenuation changes at isolated wet contacts precede a spanning flow path.","test":"Measure safe ice-filled transparent fractures with low-power ultrasound and pressure-flow tests.","contrary":"Attenuation changes only after permeability rises.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0292","title":"Frozen fracture acoustic reopening","question":"Can acoustic attenuation reveal thaw-driven reopening before mean permeability increases?","prediction":"Attenuation changes at isolated wet contacts precede a spanning flow path.","test":"Measure safe ice-filled transparent fractures with low-power ultrasound and pressure-flow tests.","contrary_outcome":"Attenuation changes only after permeability rises.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0293","id":"S3-0293","volume":"900v3","title":"Thermal boulder contact eclipse","prediction":"Early recovery follows contact area while late cooldown constrains bulk diffusion.","test":"Use inert sphere-on-bed standards with known contacts and replayed safe light/shadow histories.","contrary":"Both parameters remain inseparable across the full transient.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0293","title":"Thermal boulder contact eclipse","question":"Can shadow timing distinguish a boulder's conductive contact area from its internal diffusivity?","prediction":"Early recovery follows contact area while late cooldown constrains bulk diffusion.","test":"Use inert sphere-on-bed standards with known contacts and replayed safe light/shadow histories.","contrary_outcome":"Both parameters remain inseparable across the full transient.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0294","id":"S3-0294","volume":"900v3","title":"Wave-energy surface cover","prediction":"Measured recoil differs between flexible and rigid covers at equal transmitted energy.","test":"Use safe water waves, calibrated force sensors and full wave-energy measurements.","contrary":"Momentum transfer is fixed by energy loss alone.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0294","title":"Wave-energy surface cover","question":"Can a thin floating cover alter packet momentum transfer without appreciably changing energy loss?","prediction":"Measured recoil differs between flexible and rigid covers at equal transmitted energy.","test":"Use safe water waves, calibrated force sensors and full wave-energy measurements.","contrary_outcome":"Momentum transfer is fixed by energy loss alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0294","title":"Wave-energy surface cover","question":"Can a thin floating cover alter packet momentum transfer without appreciably changing energy loss?","prediction":"Measured recoil differs between flexible and rigid covers at equal transmitted energy.","test":"Use safe water waves, calibrated force sensors and full wave-energy measurements.","contrary_outcome":"Momentum transfer is fixed by energy loss alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a thin floating cover alter packet momentum transfer without appreciably changing energy loss experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0295","id":"S3-0295","volume":"900v3","title":"Crystal growth stopping distance","prediction":"The advance scales with independently measured boundary-layer inventory.","test":"Track benign salt-face motion and local concentration after rapid solution exchange.","contrary":"Advance follows only pump delay or bulk concentration.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0295","title":"Crystal growth stopping distance","question":"Can a supersaturation down-step leave a finite growth advance set by solute stored near the face?","prediction":"The advance scales with independently measured boundary-layer inventory.","test":"Track benign salt-face motion and local concentration after rapid solution exchange.","contrary_outcome":"Advance follows only pump delay or bulk concentration.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0296","id":"S3-0296","volume":"900v3","title":"Thermal wick side reservoir","prediction":"Local replenishment shortens the hydraulic path to the emerging dry patch.","test":"Compare transparent water wicks with relocated equal-volume reservoirs under matched heating.","contrary":"Dryout time depends only on total water inventory.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0296","title":"Thermal wick side reservoir","question":"Can a side reservoir delay dryout more than the same added water volume at the inlet?","prediction":"Local replenishment shortens the hydraulic path to the emerging dry patch.","test":"Compare transparent water wicks with relocated equal-volume reservoirs under matched heating.","contrary_outcome":"Dryout time depends only on total water inventory.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0297","id":"S3-0297","volume":"900v3","title":"Optical phase drift reversal","prediction":"The flow contribution reverses while stationary window stress does not.","test":"Use low-power reciprocal optical paths through a safe transparent flow cell with stress calibration.","contrary":"Both contributions transform identically.","layers":[1],"categories":["physical","biology","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0297","title":"Optical phase drift reversal","question":"Can reversing probe propagation separate window stress drift from a sample's flow-induced phase shift?","prediction":"The flow contribution reverses while stationary window stress does not.","test":"Use low-power reciprocal optical paths through a safe transparent flow cell with stress calibration.","contrary_outcome":"Both contributions transform identically.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0298","id":"S3-0298","volume":"900v3","title":"Sediment drainage tilt gate","prediction":"Permeability rises abruptly as a single imaged throat wets.","test":"Tilt transparent safe granular packs while tracking topology and pressure-flow curves.","contrary":"Permeability follows only average saturation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0298","title":"Sediment drainage tilt gate","question":"Can a small tilt reconnect isolated water pockets without measurable change in average saturation?","prediction":"Permeability rises abruptly as a single imaged throat wets.","test":"Tilt transparent safe granular packs while tracking topology and pressure-flow curves.","contrary_outcome":"Permeability follows only average saturation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0299","id":"S3-0299","volume":"900v3","title":"Electrolyte pulse spacing marker","prediction":"Voltage relaxation changes most strongly when spacing matches reservoir exchange time.","test":"Use safe blocking-electrode cells with calibrated side pores and current limits.","contrary":"Spacing dependence follows only external circuit capacitance.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0299","title":"Electrolyte pulse spacing marker","question":"Can fixed-total-charge pulse spacing identify the time scale of hidden ionic reservoirs?","prediction":"Voltage relaxation changes most strongly when spacing matches reservoir exchange time.","test":"Use safe blocking-electrode cells with calibrated side pores and current limits.","contrary_outcome":"Spacing dependence follows only external circuit capacitance.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0300","id":"S3-0300","volume":"900v3","title":"Acoustic wet-contact census","prediction":"The damping ratio tracks independently imaged wet-contact fraction across nonuniform water distributions.","test":"Use inert transparent grain packs, low-power sound and optical wetting maps.","contrary":"The ratio is determined only by total liquid mass.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0300","title":"Acoustic wet-contact census","question":"Can the ratio of two modal damping changes estimate the fraction of wet contacts without knowing total pore water mass?","prediction":"The damping ratio tracks independently imaged wet-contact fraction across nonuniform water distributions.","test":"Use inert transparent grain packs, low-power sound and optical wetting maps.","contrary_outcome":"The ratio is determined only by total liquid mass.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0300","title":"Acoustic wet-contact census","question":"Can the ratio of two modal damping changes estimate the fraction of wet contacts without knowing total pore water mass?","prediction":"The damping ratio tracks independently imaged wet-contact fraction across nonuniform water distributions.","test":"Use inert transparent grain packs, low-power sound and optical wetting maps.","contrary_outcome":"The ratio is determined only by total liquid mass.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can the ratio of two modal damping changes estimate the fraction of wet contacts without knowing total pore water mass experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0301","id":"S3-0301","volume":"900v3","title":"Buckling energy detour","prediction":"Neighbor acceleration peaks after snap-through despite no direct actuator contact.","test":"Measure displacements and energy in a safe coupled elastic-cell pair.","contrary":"No transfer exceeds ordinary linear coupling.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0301","title":"Buckling energy detour","question":"Can a released buckle transfer energy into an adjacent stable cell?","prediction":"Neighbor acceleration peaks after snap-through despite no direct actuator contact.","test":"Measure displacements and energy in a safe coupled elastic-cell pair.","contrary_outcome":"No transfer exceeds ordinary linear coupling.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0302","id":"S3-0302","volume":"900v3","title":"Friction pulse arrest","prediction":"Slip amplitude collapses over the island and reappears downstream.","test":"Map motion in a transparent low-load friction interface.","contrary":"Slip is uniformly delayed rather than locally arrested.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0302","title":"Friction pulse arrest","question":"Can a compliant island arrest a slip pulse without stopping surrounding sliding?","prediction":"Slip amplitude collapses over the island and reappears downstream.","test":"Map motion in a transparent low-load friction interface.","contrary_outcome":"Slip is uniformly delayed rather than locally arrested.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0303","id":"S3-0303","volume":"900v3","title":"Elastic cavity pumping","prediction":"Nonlinear wall deformation yields net flow despite zero imposed volume change per cycle.","test":"Measure safe water flow and cavity shape with mirrored controls.","contrary":"Net flow vanishes after pressure offsets are removed.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0303","title":"Elastic cavity pumping","question":"Can reciprocal squeezing pump liquid through a deforming asymmetric cavity?","prediction":"Nonlinear wall deformation yields net flow despite zero imposed volume change per cycle.","test":"Measure safe water flow and cavity shape with mirrored controls.","contrary_outcome":"Net flow vanishes after pressure offsets are removed.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0304","id":"S3-0304","volume":"900v3","title":"Granular torque screening","prediction":"Rotational response decays faster than axial force along the same chain.","test":"Use photoelastic inert grains with force and rotation tracking.","contrary":"Both responses share the same attenuation length.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0304","title":"Granular torque screening","question":"Can a force chain transmit compression while screening an applied torque?","prediction":"Rotational response decays faster than axial force along the same chain.","test":"Use photoelastic inert grains with force and rotation tracking.","contrary_outcome":"Both responses share the same attenuation length.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0305","id":"S3-0305","volume":"900v3","title":"Membrane hole stabilization","prediction":"Wrinkling onset shifts to larger compression around the hole.","test":"Compare full-field strain in perforated and intact safe films.","contrary":"The hole always lowers the buckling threshold.","layers":[1,2],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0305","title":"Membrane hole stabilization","question":"Can a small hole stabilize a compressed membrane by releasing a localized incompatible strain?","prediction":"Wrinkling onset shifts to larger compression around the hole.","test":"Compare full-field strain in perforated and intact safe films.","contrary_outcome":"The hole always lowers the buckling threshold.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0305","title":"Membrane hole stabilization","question":"Can a small hole stabilize a compressed membrane by releasing a localized incompatible strain?","prediction":"Wrinkling onset shifts to larger compression around the hole.","test":"Compare full-field strain in perforated and intact safe films.","contrary_outcome":"The hole always lowers the buckling threshold.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a small hole stabilize a compressed membrane by releasing a localized incompatible strain experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0306","id":"S3-0306","volume":"900v3","title":"Elastic sleeve crawling","prediction":"Displacement reverses when the curvature-friction pattern is mirrored.","test":"Track a safe soft sleeve under modest pressure with friction calibration.","contrary":"Motion follows unnoticed pressure asymmetry alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0306","title":"Elastic sleeve crawling","question":"Can a uniform pressure cycle move a sleeve only when contact friction varies with curvature?","prediction":"Displacement reverses when the curvature-friction pattern is mirrored.","test":"Track a safe soft sleeve under modest pressure with friction calibration.","contrary_outcome":"Motion follows unnoticed pressure asymmetry alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0307","id":"S3-0307","volume":"900v3","title":"Contact stiffness tomography","prediction":"Directional compliance identifies the contact better than one-axis stiffness.","test":"Blindly infer deliberately weakened joints from small-load displacement fields.","contrary":"Location remains ambiguous across the tested directions.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0307","title":"Contact stiffness tomography","question":"Can three loading directions locate a weak internal contact in a rigid-looking assembly?","prediction":"Directional compliance identifies the contact better than one-axis stiffness.","test":"Blindly infer deliberately weakened joints from small-load displacement fields.","contrary_outcome":"Location remains ambiguous across the tested directions.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0308","id":"S3-0308","volume":"900v3","title":"Wrinkle end interaction","prediction":"End separation decreases without externally imposed lateral motion.","test":"Image safe thin-film wrinkles under fixed global strain.","contrary":"Ends move only with substrate drift.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0308","title":"Wrinkle end interaction","question":"Can terminating wrinkles attract through the membrane stress field?","prediction":"End separation decreases without externally imposed lateral motion.","test":"Image safe thin-film wrinkles under fixed global strain.","contrary_outcome":"Ends move only with substrate drift.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0309","id":"S3-0309","volume":"900v3","title":"Elastic wave fatigue marker","prediction":"Localized curvature changes exceed noise before frequency changes do.","test":"Cycle a restrained benign beam and compare microscopy with modal scans.","contrary":"Curvature changes begin only after a resolved frequency shift.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0309","title":"Elastic wave fatigue marker","question":"Can mode-shape curvature detect a developing soft hinge before resonance frequency shifts?","prediction":"Localized curvature changes exceed noise before frequency changes do.","test":"Cycle a restrained benign beam and compare microscopy with modal scans.","contrary_outcome":"Curvature changes begin only after a resolved frequency shift.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0310","id":"S3-0310","volume":"900v3","title":"Granular intrusion wake","prediction":"Subsequent probe resistance falls along its old path at matched density.","test":"Use inert transparent grains with force probes and tomography.","contrary":"Wake softness is explained entirely by density.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0310","title":"Granular intrusion wake","question":"Can an intruder leave a softer wake without changing local packing fraction?","prediction":"Subsequent probe resistance falls along its old path at matched density.","test":"Use inert transparent grains with force probes and tomography.","contrary_outcome":"Wake softness is explained entirely by density.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0311","id":"S3-0311","volume":"900v3","title":"Rolling contact memory","prediction":"Contact-patch asymmetry persists for a measured relaxation time.","test":"Track safe elastomer wheels with full-field strain during reversals.","contrary":"Asymmetry follows instantaneous velocity alone.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0311","title":"Rolling contact memory","question":"Can a rolling soft wheel retain directional stiffness memory after reversing?","prediction":"Contact-patch asymmetry persists for a measured relaxation time.","test":"Track safe elastomer wheels with full-field strain during reversals.","contrary_outcome":"Asymmetry follows instantaneous velocity alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0312","id":"S3-0312","volume":"900v3","title":"Mechanical fuse cascading","prediction":"Cascade probability drops when the element's recovery time exceeds wave transit time.","test":"Measure low-energy snap networks with identical static stiffness controls.","contrary":"Cascade suppression depends only on static stiffness.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0312","title":"Mechanical fuse cascading","question":"Can one reversible snap element prevent a cascade by temporarily absorbing neighbor strain?","prediction":"Cascade probability drops when the element's recovery time exceeds wave transit time.","test":"Measure low-energy snap networks with identical static stiffness controls.","contrary_outcome":"Cascade suppression depends only on static stiffness.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0312","title":"Mechanical fuse cascading","question":"Can one reversible snap element prevent a cascade by temporarily absorbing neighbor strain?","prediction":"Cascade probability drops when the element's recovery time exceeds wave transit time.","test":"Measure low-energy snap networks with identical static stiffness controls.","contrary_outcome":"Cascade suppression depends only on static stiffness.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can one reversible snap element prevent a cascade by temporarily absorbing neighbor strain experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0313","id":"S3-0313","volume":"900v3","title":"Bending neutral-axis migration","prediction":"Surface strain ratios change during hydration with unchanged thickness.","test":"Use safe polymer bilayers with both-face strain and cross-section imaging.","contrary":"Ratios remain fixed after modulus calibration.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0313","title":"Bending neutral-axis migration","question":"Can a hydrated bilayer's neutral axis move while its overall thickness stays constant?","prediction":"Surface strain ratios change during hydration with unchanged thickness.","test":"Use safe polymer bilayers with both-face strain and cross-section imaging.","contrary_outcome":"Ratios remain fixed after modulus calibration.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0314","id":"S3-0314","volume":"900v3","title":"Elastic knot sliding gate","prediction":"Contact rearrangement decreases measured drag before final locking.","test":"Pull safe cords slowly with force and contact imaging.","contrary":"Drag increases monotonically after geometry correction.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0314","title":"Elastic knot sliding gate","question":"Can tightening a loose knot reduce rather than increase sliding resistance over a finite load range?","prediction":"Contact rearrangement decreases measured drag before final locking.","test":"Pull safe cords slowly with force and contact imaging.","contrary_outcome":"Drag increases monotonically after geometry correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0315","id":"S3-0315","volume":"900v3","title":"Frictionless apparent damping","prediction":"Lost local oscillation energy reappears in unobserved modes and returns later.","test":"Measure all accessible modes in a low-loss coupled beam assembly.","contrary":"Total mechanical energy decays at the apparent local rate.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0315","title":"Frictionless apparent damping","question":"Can reversible mode transfer imitate damping in a single-coordinate measurement?","prediction":"Lost local oscillation energy reappears in unobserved modes and returns later.","test":"Measure all accessible modes in a low-loss coupled beam assembly.","contrary_outcome":"Total mechanical energy decays at the apparent local rate.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0316","id":"S3-0316","volume":"900v3","title":"Buckled beam force inference","prediction":"Two curvature landmarks identify the independently controlled perturbations.","test":"Use safe elastic beams with traceable load and clamp-angle calibration.","contrary":"The inverse remains degenerate within shape noise.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0316","title":"Buckled beam force inference","question":"Can post-buckling shape distinguish axial force from an unknown clamp rotation?","prediction":"Two curvature landmarks identify the independently controlled perturbations.","test":"Use safe elastic beams with traceable load and clamp-angle calibration.","contrary_outcome":"The inverse remains degenerate within shape noise.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0317","id":"S3-0317","volume":"900v3","title":"Granular door jamming","prediction":"Contact anisotropy induced by motion lowers persistent-arch formation.","test":"Compare safe bead flow under closing and fixed apertures.","contrary":"Jamming depends only on final width and flow rate.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0317","title":"Granular door jamming","question":"Can slowly closing an aperture produce less jamming than holding it at the same final width?","prediction":"Contact anisotropy induced by motion lowers persistent-arch formation.","test":"Compare safe bead flow under closing and fixed apertures.","contrary_outcome":"Jamming depends only on final width and flow rate.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0318","id":"S3-0318","volume":"900v3","title":"Elastic corner delamination","prediction":"Onset reverses the purely geometric stress-concentration ranking.","test":"Use safe bonded films with matched adhesion and measured swelling.","contrary":"Sharp corners always initiate first at matched energy release.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0318","title":"Elastic corner delamination","question":"Can a rounded corner delaminate earlier than a sharp corner under swelling because it stores more accessible strain energy?","prediction":"Onset reverses the purely geometric stress-concentration ranking.","test":"Use safe bonded films with matched adhesion and measured swelling.","contrary_outcome":"Sharp corners always initiate first at matched energy release.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0319","id":"S3-0319","volume":"900v3","title":"Soft object acoustic radiation","prediction":"Prestress changes vibration phase and total sound power at equal drive force.","test":"Compare reversible prestress states with shape and force calibration.","contrary":"Shape and material modulus alone explain radiation.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0319","title":"Soft object acoustic radiation","question":"Can two objects with identical static shape radiate differently because their internal stress differs?","prediction":"Prestress changes vibration phase and total sound power at equal drive force.","test":"Compare reversible prestress states with shape and force calibration.","contrary_outcome":"Shape and material modulus alone explain radiation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0320","id":"S3-0320","volume":"900v3","title":"Granular humidity stiffness paradox","prediction":"Contact lubrication lowers stiffness before measured bridge formation.","test":"Track benign bead-pack stiffness and water distribution under humidity ramps.","contrary":"Stiffness rises monotonically or follows bulk condensation only.","layers":[1,2],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0320","title":"Granular humidity stiffness paradox","question":"Can a small humidity increase soften a packing before capillary bridges stiffen it?","prediction":"Contact lubrication lowers stiffness before measured bridge formation.","test":"Track benign bead-pack stiffness and water distribution under humidity ramps.","contrary_outcome":"Stiffness rises monotonically or follows bulk condensation only.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0320","title":"Granular humidity stiffness paradox","question":"Can a small humidity increase soften a packing before capillary bridges stiffen it?","prediction":"Contact lubrication lowers stiffness before measured bridge formation.","test":"Track benign bead-pack stiffness and water distribution under humidity ramps.","contrary_outcome":"Stiffness rises monotonically or follows bulk condensation only.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a small humidity increase soften a packing before capillary bridges stiffen it experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0321","id":"S3-0321","volume":"900v3","title":"Flexural pulse direction marker","prediction":"Converted rotational phase changes sign across notch position.","test":"Measure vector vibrations in safe notched beams with blind positions.","contrary":"Phase sign is controlled by transducer orientation alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0321","title":"Flexural pulse direction marker","question":"Can an off-center buried notch be localized from the sign of mode-conversion rotation?","prediction":"Converted rotational phase changes sign across notch position.","test":"Measure vector vibrations in safe notched beams with blind positions.","contrary_outcome":"Phase sign is controlled by transducer orientation alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0322","id":"S3-0322","volume":"900v3","title":"Mechanical relaxation order","prediction":"One arrangement shows a delayed strain reversal absent in the other.","test":"Build safe reference networks and measure all branch strains.","contrary":"Responses collapse after static stiffness matching.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0322","title":"Mechanical relaxation order","question":"Can two identical viscoelastic elements in different series-parallel arrangements share static stiffness but have different recovery order?","prediction":"One arrangement shows a delayed strain reversal absent in the other.","test":"Build safe reference networks and measure all branch strains.","contrary_outcome":"Responses collapse after static stiffness matching.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0323","id":"S3-0323","volume":"900v3","title":"Elastic washer contact census","prediction":"Tilt compliance changes discretely as independently imaged patches join.","test":"Use transparent low-load washer supports with force and contact imaging.","contrary":"Only total contact area matters.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0323","title":"Elastic washer contact census","question":"Can a washer's tilt response estimate how many disconnected contact patches support it?","prediction":"Tilt compliance changes discretely as independently imaged patches join.","test":"Use transparent low-load washer supports with force and contact imaging.","contrary_outcome":"Only total contact area matters.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0324","id":"S3-0324","volume":"900v3","title":"Granular resonance localization","prediction":"Mode energy concentrates near the calibrated soft contact.","test":"Measure vibration fields in inert ordered grain assemblies.","contrary":"Modes remain extended or follow boundary defects only.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0324","title":"Granular resonance localization","question":"Can a single unusually soft contact localize a low-frequency mode without a visible density anomaly?","prediction":"Mode energy concentrates near the calibrated soft contact.","test":"Measure vibration fields in inert ordered grain assemblies.","contrary_outcome":"Modes remain extended or follow boundary defects only.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0325","id":"S3-0325","volume":"900v3","title":"Fold propagation stall","prediction":"Propagation arrests during loading and resumes after waiting.","test":"Use safe polymer sheets with matched instantaneous modulus and distinct relaxation spectra.","contrary":"Propagation depends only on instantaneous stiffness.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0325","title":"Fold propagation stall","question":"Can a crease stop propagating when it reaches a region with equal stiffness but different stress relaxation?","prediction":"Propagation arrests during loading and resumes after waiting.","test":"Use safe polymer sheets with matched instantaneous modulus and distinct relaxation spectra.","contrary_outcome":"Propagation depends only on instantaneous stiffness.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0325","title":"Fold propagation stall","question":"Can a crease stop propagating when it reaches a region with equal stiffness but different stress relaxation?","prediction":"Propagation arrests during loading and resumes after waiting.","test":"Use safe polymer sheets with matched instantaneous modulus and distinct relaxation spectra.","contrary_outcome":"Propagation depends only on instantaneous stiffness.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a crease stop propagating when it reaches a region with equal stiffness but different stress relaxation experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0326","id":"S3-0326","volume":"900v3","title":"Adhesive peel oscillation origin","prediction":"Stored bending energy causes periodic advance at constant independently measured adhesion.","test":"Use benign tapes with calibrated backing stiffness and slow peel imaging.","contrary":"Oscillations require rate-dependent adhesion.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0326","title":"Adhesive peel oscillation origin","question":"Can a compliant backing generate peel oscillations even when adhesion has no rate weakening?","prediction":"Stored bending energy causes periodic advance at constant independently measured adhesion.","test":"Use benign tapes with calibrated backing stiffness and slow peel imaging.","contrary_outcome":"Oscillations require rate-dependent adhesion.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0327","id":"S3-0327","volume":"900v3","title":"Mechanical shadow zone","prediction":"Strain behind the inclusion falls below the void-control field.","test":"Map safe elastomer composites under calibrated small loads.","contrary":"The void always produces greater shielding.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0327","title":"Mechanical shadow zone","question":"Can a stiff inclusion reduce remote strain more than an equal-size void under one loading geometry?","prediction":"Strain behind the inclusion falls below the void-control field.","test":"Map safe elastomer composites under calibrated small loads.","contrary_outcome":"The void always produces greater shielding.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0328","id":"S3-0328","volume":"900v3","title":"Elastic hinge temperature bias","prediction":"Residual angle disappears when the specimen is made isothermal.","test":"Compare safe elastic hinges with synchronized thermal and angle measurements.","contrary":"Residual angle persists after complete thermal equilibration.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0328","title":"Elastic hinge temperature bias","question":"Can a thermal gradient mimic hinge plasticity in a loading-unloading test?","prediction":"Residual angle disappears when the specimen is made isothermal.","test":"Compare safe elastic hinges with synchronized thermal and angle measurements.","contrary_outcome":"Residual angle persists after complete thermal equilibration.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0329","id":"S3-0329","volume":"900v3","title":"Granular shear-band restart","prediction":"Band relocation precedes any measurable bulk density change.","test":"Shear inert photoelastic grains with interchangeable rough walls.","contrary":"Bands remain fixed to internal packing history.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0329","title":"Granular shear-band restart","question":"Can a shear band restart away from its previous location when only boundary roughness is changed?","prediction":"Band relocation precedes any measurable bulk density change.","test":"Shear inert photoelastic grains with interchangeable rough walls.","contrary_outcome":"Bands remain fixed to internal packing history.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0330","id":"S3-0330","volume":"900v3","title":"Pneumatic snap latency","prediction":"Delay follows independently measured permeation time at equal force histories.","test":"Use safe low-pressure polymer diaphragms with sealed and permeable controls.","contrary":"Delay is explained solely by viscoelastic creep.","layers":[1,2],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0330","title":"Pneumatic snap latency","question":"Can air diffusion through a membrane set snap-through delay independently of its elastic loading rate?","prediction":"Delay follows independently measured permeation time at equal force histories.","test":"Use safe low-pressure polymer diaphragms with sealed and permeable controls.","contrary_outcome":"Delay is explained solely by viscoelastic creep.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0330","title":"Pneumatic snap latency","question":"Can air diffusion through a membrane set snap-through delay independently of its elastic loading rate?","prediction":"Delay follows independently measured permeation time at equal force histories.","test":"Use safe low-pressure polymer diaphragms with sealed and permeable controls.","contrary_outcome":"Delay is explained solely by viscoelastic creep.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can air diffusion through a membrane set snap-through delay independently of its elastic loading rate experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0331","id":"S3-0331","volume":"900v3","title":"Elastic rib chirality","prediction":"Twist sign reverses with geometry while force-extension curves match.","test":"Measure safe mirrored beam coupons with full-field strain.","contrary":"Twist arises from fabrication misalignment and does not mirror.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0331","title":"Elastic rib chirality","question":"Can a mirrored rib pattern reverse twist under axial loading without changing axial stiffness?","prediction":"Twist sign reverses with geometry while force-extension curves match.","test":"Measure safe mirrored beam coupons with full-field strain.","contrary_outcome":"Twist arises from fabrication misalignment and does not mirror.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0332","id":"S3-0332","volume":"900v3","title":"Frictional heat localization","prediction":"Thermal peak trails and then moves upstream during sustained slip.","test":"Measure low-speed benign polymer friction with infrared and contact imaging.","contrary":"Peak follows local slip speed everywhere.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0332","title":"Frictional heat localization","question":"Can a sliding interface's hottest spot migrate opposite to its slip front because contacts age behind it?","prediction":"Thermal peak trails and then moves upstream during sustained slip.","test":"Measure low-speed benign polymer friction with infrared and contact imaging.","contrary_outcome":"Peak follows local slip speed everywhere.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0333","id":"S3-0333","volume":"900v3","title":"Mechanical impedance decoy","prediction":"Hidden rotational coupling separates the responses.","test":"Measure multi-axis transfer functions in safe calibrated assemblies.","contrary":"Equal scalar impedance predicts all off-axis responses.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0333","title":"Mechanical impedance decoy","question":"Can two objects with equal driving-point impedance respond differently to an off-axis force?","prediction":"Hidden rotational coupling separates the responses.","test":"Measure multi-axis transfer functions in safe calibrated assemblies.","contrary_outcome":"Equal scalar impedance predicts all off-axis responses.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0334","id":"S3-0334","volume":"900v3","title":"Soft-shell pressure inversion","prediction":"Curvature near a geometric defect provides a second independent observable.","test":"Use safe modest-pressure shells with traceable temperature and pressure.","contrary":"Both perturbations produce indistinguishable full shapes.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0334","title":"Soft-shell pressure inversion","question":"Can shell shape distinguish internal pressure from uniform thermal expansion when radius alone cannot?","prediction":"Curvature near a geometric defect provides a second independent observable.","test":"Use safe modest-pressure shells with traceable temperature and pressure.","contrary_outcome":"Both perturbations produce indistinguishable full shapes.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0335","id":"S3-0335","volume":"900v3","title":"Granular bridge healing","prediction":"Failure force rises with rest while tomography shows fixed positions.","test":"Use inert grain bridges with controlled humidity and force ramps.","contrary":"Strength changes require rearrangement or water uptake.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0335","title":"Granular bridge healing","question":"Can an interrupted granular bridge recover load capacity through contact aging without grain rearrangement?","prediction":"Failure force rises with rest while tomography shows fixed positions.","test":"Use inert grain bridges with controlled humidity and force ramps.","contrary_outcome":"Strength changes require rearrangement or water uptake.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0336","id":"S3-0336","volume":"900v3","title":"Elastic strain-energy leak","prediction":"Calorimetry detects dissipation accompanying independently resolved nanometric slip.","test":"Use safe small-load bonded analogues with high-resolution interferometry.","contrary":"Heat arises only from bulk viscoelasticity.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0336","title":"Elastic strain-energy leak","question":"Can a crack-free interface release stored strain through microslip too small for conventional displacement tracking?","prediction":"Calorimetry detects dissipation accompanying independently resolved nanometric slip.","test":"Use safe small-load bonded analogues with high-resolution interferometry.","contrary_outcome":"Heat arises only from bulk viscoelasticity.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0337","id":"S3-0337","volume":"900v3","title":"Mechanical pulse lineage","prediction":"Mode-energy ratios classify pulse duration despite equal final center-of-mass motion.","test":"Apply calibrated low-energy impulses to a flexible safe target.","contrary":"Ratios contain no information beyond total impulse.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0337","title":"Mechanical pulse lineage","question":"Can two equal-impulse loads leave different residual mode populations that identify pulse shape?","prediction":"Mode-energy ratios classify pulse duration despite equal final center-of-mass motion.","test":"Apply calibrated low-energy impulses to a flexible safe target.","contrary_outcome":"Ratios contain no information beyond total impulse.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0338","id":"S3-0338","volume":"900v3","title":"Contact-line mechanical pinning","prediction":"Depinning threshold scales with fiber stiffness at matched wetting chemistry.","test":"Use safe water interfaces and identical-coated fibers of calibrated bending stiffness.","contrary":"Threshold depends only on contact angle hysteresis.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0338","title":"Contact-line mechanical pinning","question":"Can a dry flexible fiber pin a liquid contact line by bending rather than surface chemistry?","prediction":"Depinning threshold scales with fiber stiffness at matched wetting chemistry.","test":"Use safe water interfaces and identical-coated fibers of calibrated bending stiffness.","contrary_outcome":"Threshold depends only on contact angle hysteresis.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0339","id":"S3-0339","volume":"900v3","title":"Buckling noise susceptibility","prediction":"The softest fluctuation mode matches the later buckle pattern.","test":"Measure safe thin shells under small loads with independent perturbation trials.","contrary":"Fluctuation maps do not predict buckle location beyond geometry.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0339","title":"Buckling noise susceptibility","question":"Can a structure's response to weak broadband forcing predict its preferred buckle before loading reaches instability?","prediction":"The softest fluctuation mode matches the later buckle pattern.","test":"Measure safe thin shells under small loads with independent perturbation trials.","contrary_outcome":"Fluctuation maps do not predict buckle location beyond geometry.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0340","id":"S3-0340","volume":"900v3","title":"Granular dissipation geography","prediction":"Local heat aligns with changing contacts rather than grain-density maxima.","test":"Use inert transparent grains, safe tapping and sensitive thermal/contact imaging.","contrary":"Heat follows boundaries or sensor artifacts alone.","layers":[1,2],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0340","title":"Granular dissipation geography","question":"Can equal-energy tapping produce different heat maps because force-chain topology selects dissipation sites?","prediction":"Local heat aligns with changing contacts rather than grain-density maxima.","test":"Use inert transparent grains, safe tapping and sensitive thermal/contact imaging.","contrary_outcome":"Heat follows boundaries or sensor artifacts alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0340","title":"Granular dissipation geography","question":"Can equal-energy tapping produce different heat maps because force-chain topology selects dissipation sites?","prediction":"Local heat aligns with changing contacts rather than grain-density maxima.","test":"Use inert transparent grains, safe tapping and sensitive thermal/contact imaging.","contrary_outcome":"Heat follows boundaries or sensor artifacts alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can equal-energy tapping produce different heat maps because force-chain topology selects dissipation sites experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0341","id":"S3-0341","volume":"900v3","title":"Fluid hinge passive clutch","prediction":"Hydraulic relaxation produces a frequency-selective torque increase.","test":"Measure safe water-filled hinges against drained and solid controls.","contrary":"Torque follows polymer viscoelasticity alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0341","title":"Fluid hinge passive clutch","question":"Can a liquid-filled compliant hinge stiffen under fast motion while retaining low static stiffness?","prediction":"Hydraulic relaxation produces a frequency-selective torque increase.","test":"Measure safe water-filled hinges against drained and solid controls.","contrary_outcome":"Torque follows polymer viscoelasticity alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0342","id":"S3-0342","volume":"900v3","title":"Elastic wave mode census","prediction":"Energy measured by full-field imaging increases while sparse RMS decreases.","test":"Use calibrated safe beam networks with movable soft inclusions.","contrary":"Sparse RMS always tracks total energy within uncertainty.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0342","title":"Elastic wave mode census","question":"Can a sparse sensor array miss a localized mode even when the total vibration energy rises?","prediction":"Energy measured by full-field imaging increases while sparse RMS decreases.","test":"Use calibrated safe beam networks with movable soft inclusions.","contrary_outcome":"Sparse RMS always tracks total energy within uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0343","id":"S3-0343","volume":"900v3","title":"Friction reversal timing","prediction":"Contact age depends on whether shear stress relaxes during the pause.","test":"Compare safe polymer sliders with stress, temperature and contact imaging.","contrary":"Only total pause duration matters.","layers":[1],"categories":["physical","energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0343","title":"Friction reversal timing","question":"Can pausing before reversal change static friction more than an equal pause during forward sliding?","prediction":"Contact age depends on whether shear stress relaxes during the pause.","test":"Compare safe polymer sliders with stress, temperature and contact imaging.","contrary_outcome":"Only total pause duration matters.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0344","id":"S3-0344","volume":"900v3","title":"Mechanical evaporation drive","prediction":"Curvature tracks pore pressure and disappears when pressure is relieved at equal humidity.","test":"Use safe porous strips with pressure vents and gravimetric uptake.","contrary":"Curvature persists after capillary pressure release.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0344","title":"Mechanical evaporation drive","question":"Can evaporating water bend a porous strip primarily through capillary pressure rather than differential humidity swelling?","prediction":"Curvature tracks pore pressure and disappears when pressure is relieved at equal humidity.","test":"Use safe porous strips with pressure vents and gravimetric uptake.","contrary_outcome":"Curvature persists after capillary pressure release.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0345","id":"S3-0345","volume":"900v3","title":"Granular acoustic rank reversal","prediction":"Static force and pulse amplitude rank contact chains differently.","test":"Use photoelastic inert grains with independently mapped forces and wave fields.","contrary":"Transmission ranks monotonically with static chain force.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0345","title":"Granular acoustic rank reversal","question":"Can the strongest static load path be the weakest acoustic transmission path because of impedance mismatch?","prediction":"Static force and pulse amplitude rank contact chains differently.","test":"Use photoelastic inert grains with independently mapped forces and wave fields.","contrary_outcome":"Transmission ranks monotonically with static chain force.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0346","id":"S3-0346","volume":"900v3","title":"Elastic loop area interpretation","prediction":"Accounting for kinetic energy and actuator work closes the apparent loss.","test":"Measure safe low-loss linkages over full cycles with all moving masses tracked.","contrary":"Unrecovered energy equals the loop area after complete accounting.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0346","title":"Elastic loop area interpretation","question":"Can a force-displacement loop have nonzero area from geometric time lag without irreversible material loss?","prediction":"Accounting for kinetic energy and actuator work closes the apparent loss.","test":"Measure safe low-loss linkages over full cycles with all moving masses tracked.","contrary_outcome":"Unrecovered energy equals the loop area after complete accounting.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0347","id":"S3-0347","volume":"900v3","title":"Soft cavity collapse topology","prediction":"A connected neck triggers ordered wall contact absent in isolated cavities.","test":"Compress safe transparent elastomers with 3D shape measurements.","contrary":"Collapse sequence depends only on total void fraction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0347","title":"Soft cavity collapse topology","question":"Can two cavities of equal volume collapse in different sequences because their connectivity differs?","prediction":"A connected neck triggers ordered wall contact absent in isolated cavities.","test":"Compress safe transparent elastomers with 3D shape measurements.","contrary_outcome":"Collapse sequence depends only on total void fraction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0348","id":"S3-0348","volume":"900v3","title":"Frictional contact thermal reset","prediction":"Static friction drops immediately with measured contact-area reduction.","test":"Test safe sliders with controlled contact temperature and chemical stability checks.","contrary":"Friction changes follow lubricant viscosity or bulk modulus alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0348","title":"Frictional contact thermal reset","question":"Can a brief mild cooling step erase friction aging by contracting contacts without changing bulk surface chemistry?","prediction":"Static friction drops immediately with measured contact-area reduction.","test":"Test safe sliders with controlled contact temperature and chemical stability checks.","contrary_outcome":"Friction changes follow lubricant viscosity or bulk modulus alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0349","id":"S3-0349","volume":"900v3","title":"Elastic prestress cloaking","prediction":"One scattering channel reaches a minimum at a calibrated prestress.","test":"Measure safe elastomer inclusions with vector vibration mapping.","contrary":"All channels change together without a selective minimum.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0349","title":"Elastic prestress cloaking","question":"Can a localized prestress make a soft inclusion nearly invisible to one elastic mode while visible to another?","prediction":"One scattering channel reaches a minimum at a calibrated prestress.","test":"Measure safe elastomer inclusions with vector vibration mapping.","contrary_outcome":"All channels change together without a selective minimum.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0350","id":"S3-0350","volume":"900v3","title":"Granular confinement phase","prediction":"Burst timing locks to confinement phase while mean throughput changes little.","test":"Use safe bead hoppers with calibrated low-amplitude wall actuation.","contrary":"Bursts remain random after boundary-motion artifacts are removed.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0350","title":"Granular confinement phase","question":"Can alternating side confinement synchronize intermittent flow without changing average confining load?","prediction":"Burst timing locks to confinement phase while mean throughput changes little.","test":"Use safe bead hoppers with calibrated low-amplitude wall actuation.","contrary_outcome":"Bursts remain random after boundary-motion artifacts are removed.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0350","title":"Granular confinement phase","question":"Can alternating side confinement synchronize intermittent flow without changing average confining load?","prediction":"Burst timing locks to confinement phase while mean throughput changes little.","test":"Use safe bead hoppers with calibrated low-amplitude wall actuation.","contrary_outcome":"Bursts remain random after boundary-motion artifacts are removed.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can alternating side confinement synchronize intermittent flow without changing average confining load experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0351","id":"S3-0351","volume":"900v3","title":"Wrinkle wavelength detachment","prediction":"Wavelength coarsens ahead of directly resolved gaps.","test":"Image safe bonded films with interferometry and strain maps.","contrary":"Coarsening occurs only after visible delamination.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0351","title":"Wrinkle wavelength detachment","question":"Can wrinkle wavelength increase before delamination because the effective bonded area shrinks microscopically?","prediction":"Wavelength coarsens ahead of directly resolved gaps.","test":"Image safe bonded films with interferometry and strain maps.","contrary_outcome":"Coarsening occurs only after visible delamination.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0352","id":"S3-0352","volume":"900v3","title":"Elastic recovery overshoot","prediction":"Local displacement overshoots due to coupled relaxation modes.","test":"Measure all branches in safe calibrated spring-dashpot analogues.","contrary":"Overshoot requires external work or sensor drift.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0352","title":"Elastic recovery overshoot","question":"Can a passive viscoelastic network recover beyond its original local position while total strain energy decreases?","prediction":"Local displacement overshoots due to coupled relaxation modes.","test":"Measure all branches in safe calibrated spring-dashpot analogues.","contrary_outcome":"Overshoot requires external work or sensor drift.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0353","id":"S3-0353","volume":"900v3","title":"Granular pressure-wall lag","prediction":"Base-force rise lags contact reorganization despite negligible inertia.","test":"Load an inert grain column with wall-force and contact tracking.","contrary":"Lag follows only actuator or sensor response.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0353","title":"Granular pressure-wall lag","question":"Can wall friction delay transmission of a slowly applied top load to the base?","prediction":"Base-force rise lags contact reorganization despite negligible inertia.","test":"Load an inert grain column with wall-force and contact tracking.","contrary_outcome":"Lag follows only actuator or sensor response.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0354","id":"S3-0354","volume":"900v3","title":"Mechanical angular momentum exchange","prediction":"Stored torsional energy reverses rotation while total angular momentum accounting closes.","test":"Use restrained safe rotors and calibrated small impulses.","contrary":"Reversal requires unnoticed external torque.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0354","title":"Mechanical angular momentum exchange","question":"Can a torsionally compliant support make a struck object rotate opposite its initial angular impulse later?","prediction":"Stored torsional energy reverses rotation while total angular momentum accounting closes.","test":"Use restrained safe rotors and calibrated small impulses.","contrary_outcome":"Reversal requires unnoticed external torque.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0355","id":"S3-0355","volume":"900v3","title":"Elastic defect healing marker","prediction":"Stiffness recovers with geometric closure while frictional loss persists.","test":"Use safe cracked-polymer analogues with controlled closing load and acoustic scans.","contrary":"Frequency and damping recover together.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0355","title":"Elastic defect healing marker","question":"Can recontact of a closed crack restore resonance frequency before damping returns?","prediction":"Stiffness recovers with geometric closure while frictional loss persists.","test":"Use safe cracked-polymer analogues with controlled closing load and acoustic scans.","contrary_outcome":"Frequency and damping recover together.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0356","id":"S3-0356","volume":"900v3","title":"Frictional speed-step symmetry","prediction":"Contact-state memory produces direction-dependent transient force.","test":"Measure safe sliders with matched speed profiles and thermal controls.","contrary":"Force depends only on instantaneous speed and temperature.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0356","title":"Frictional speed-step symmetry","question":"Can equal-magnitude acceleration and deceleration produce unequal friction transients at identical instantaneous speed?","prediction":"Contact-state memory produces direction-dependent transient force.","test":"Measure safe sliders with matched speed profiles and thermal controls.","contrary_outcome":"Force depends only on instantaneous speed and temperature.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0357","id":"S3-0357","volume":"900v3","title":"Granular pile base signature","prediction":"Force-chain preparation leaves different central pressure profiles.","test":"Use inert grains, 3D shape matching and calibrated pressure films.","contrary":"Outer geometry determines the entire pressure field.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0357","title":"Granular pile base signature","question":"Can basal force patterns distinguish a poured pile from a compressed pile with identical outer shape?","prediction":"Force-chain preparation leaves different central pressure profiles.","test":"Use inert grains, 3D shape matching and calibrated pressure films.","contrary_outcome":"Outer geometry determines the entire pressure field.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0358","id":"S3-0358","volume":"900v3","title":"Elastic cage load sharing","prediction":"Network compatibility routes force nonlocally.","test":"Measure safe tension networks with all tie forces instrumented.","contrary":"Load redistribution decays monotonically with graph distance.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0358","title":"Elastic cage load sharing","question":"Can loosening one tie increase the peak load in a nonadjacent tie while unloading both neighbors?","prediction":"Network compatibility routes force nonlocally.","test":"Measure safe tension networks with all tie forces instrumented.","contrary_outcome":"Load redistribution decays monotonically with graph distance.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0359","id":"S3-0359","volume":"900v3","title":"Mechanical contact thermal lens","prediction":"Differential expansion rotates the supported surface faster than common-mode expansion.","test":"Use a safe small three-support platform with interferometry and thermometry.","contrary":"Tilt follows only average support temperature.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0359","title":"Mechanical contact thermal lens","question":"Can slight heating of one support alter an optical table's tilt before its mean height changes?","prediction":"Differential expansion rotates the supported surface faster than common-mode expansion.","test":"Use a safe small three-support platform with interferometry and thermometry.","contrary_outcome":"Tilt follows only average support temperature.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0360","id":"S3-0360","volume":"900v3","title":"Granular intruder rotation","prediction":"Rotation correlates with the previous path direction and reverses under mirrored preparation.","test":"Track low-speed intruders in inert transparent grains with randomized packing controls.","contrary":"Rotation averages to zero regardless of preparation history.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0360","title":"Granular intruder rotation","question":"Can a symmetric intruder rotate in a statistically isotropic packing because its recent path breaks symmetry?","prediction":"Rotation correlates with the previous path direction and reverses under mirrored preparation.","test":"Track low-speed intruders in inert transparent grains with randomized packing controls.","contrary_outcome":"Rotation averages to zero regardless of preparation history.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0360","title":"Granular intruder rotation","question":"Can a symmetric intruder rotate in a statistically isotropic packing because its recent path breaks symmetry?","prediction":"Rotation correlates with the previous path direction and reverses under mirrored preparation.","test":"Track low-speed intruders in inert transparent grains with randomized packing controls.","contrary_outcome":"Rotation averages to zero regardless of preparation history.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a symmetric intruder rotate in a statistically isotropic packing because its recent path breaks symmetry experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0361","id":"S3-0361","volume":"900v3","title":"Elastic seam flutter threshold","prediction":"Compliance adds a delayed restoring torque that destabilizes a finite speed band.","test":"Use safe low-speed air flow with measured hinge torque and flap motion.","contrary":"Flutter threshold changes monotonically with hinge stiffness.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0361","title":"Elastic seam flutter threshold","question":"Can a passive flap flutter at lower flow when its seam is slightly compliant than when freely hinged?","prediction":"Compliance adds a delayed restoring torque that destabilizes a finite speed band.","test":"Use safe low-speed air flow with measured hinge torque and flap motion.","contrary_outcome":"Flutter threshold changes monotonically with hinge stiffness.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0362","id":"S3-0362","volume":"900v3","title":"Frictional acoustic inversion","prediction":"High-frequency energy fraction increases with independently imaged event multiplicity.","test":"Measure safe low-load interfaces with calibrated acoustic transfer functions.","contrary":"Spectrum depends only on total displacement.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0362","title":"Frictional acoustic inversion","question":"Can the acoustic spectrum distinguish many small slips from one large slip with the same total displacement?","prediction":"High-frequency energy fraction increases with independently imaged event multiplicity.","test":"Measure safe low-load interfaces with calibrated acoustic transfer functions.","contrary_outcome":"Spectrum depends only on total displacement.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0363","id":"S3-0363","volume":"900v3","title":"Mechanical strain concentration swap","prediction":"Compatibility concentrates strain at an inclusion end instead.","test":"Use safe transparent elastomer coupons with full-field strain under small loads.","contrary":"Maximum strain always remains at the minimum section.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0363","title":"Mechanical strain concentration swap","question":"Can a compliant inclusion shift the maximum strain away from the narrowest geometric section?","prediction":"Compatibility concentrates strain at an inclusion end instead.","test":"Use safe transparent elastomer coupons with full-field strain under small loads.","contrary_outcome":"Maximum strain always remains at the minimum section.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0364","id":"S3-0364","volume":"900v3","title":"Granular shear thermal ambiguity","prediction":"Correcting independently measured grain temperature removes the apparent aging signal.","test":"Combine safe shear, embedded thermometry and acoustic probes with isothermal controls.","contrary":"Residual speed changes persist beyond thermal uncertainty.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0364","title":"Granular shear thermal ambiguity","question":"Can weak shear heating mimic a packing-aging change in acoustic speed?","prediction":"Correcting independently measured grain temperature removes the apparent aging signal.","test":"Combine safe shear, embedded thermometry and acoustic probes with isothermal controls.","contrary_outcome":"Residual speed changes persist beyond thermal uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0365","id":"S3-0365","volume":"900v3","title":"Elastic wavefront curvature gate","prediction":"Polarization-resolved wavefront curvatures have opposite signs.","test":"Use safe machined plate interfaces and vector vibrometry.","contrary":"Both polarizations bend in the same direction after mode separation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0365","title":"Elastic wavefront curvature gate","question":"Can a curved interface focus bending waves while defocusing longitudinal waves in the same plate?","prediction":"Polarization-resolved wavefront curvatures have opposite signs.","test":"Use safe machined plate interfaces and vector vibrometry.","contrary_outcome":"Both polarizations bend in the same direction after mode separation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0366","id":"S3-0366","volume":"900v3","title":"Mechanical breathing resonance","prediction":"Parametric stiffness variation changes modal phase at fixed geometry.","test":"Use safe piezo-free mechanical clamps with force, displacement and vibration calibration.","contrary":"Shifts are fully explained by clamp displacement or heating.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0366","title":"Mechanical breathing resonance","question":"Can periodic clamp stiffness modulation shift resonance without measurable clamp movement?","prediction":"Parametric stiffness variation changes modal phase at fixed geometry.","test":"Use safe piezo-free mechanical clamps with force, displacement and vibration calibration.","contrary_outcome":"Shifts are fully explained by clamp displacement or heating.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0367","id":"S3-0367","volume":"900v3","title":"Granular bridge gas drag","prediction":"Gas damping alters post-failure dynamics but not quasistatic failure load.","test":"Use inert small beads under modest safe pressure variation with high-speed imaging.","contrary":"Both timing and strength vary together through humidity effects.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0367","title":"Granular bridge gas drag","question":"Can ambient gas pressure change collapse timing of a grain bridge without changing static strength?","prediction":"Gas damping alters post-failure dynamics but not quasistatic failure load.","test":"Use inert small beads under modest safe pressure variation with high-speed imaging.","contrary_outcome":"Both timing and strength vary together through humidity effects.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0368","id":"S3-0368","volume":"900v3","title":"Elastic adhesion recovery delay","prediction":"Rebond strength correlates with stress relaxation rather than waiting time alone.","test":"Use benign reversible adhesive contacts with measured area and shear stress.","contrary":"Strength depends only on elapsed contact time.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0368","title":"Elastic adhesion recovery delay","question":"Can a peeled interface regain strength only after tangential stress relaxes, even at constant contact area?","prediction":"Rebond strength correlates with stress relaxation rather than waiting time alone.","test":"Use benign reversible adhesive contacts with measured area and shear stress.","contrary_outcome":"Strength depends only on elapsed contact time.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0369","id":"S3-0369","volume":"900v3","title":"Mechanical beam-array deafness","prediction":"Local perturbations reveal a mode absent under global forcing.","test":"Map safe beam-array modes with matched injected energy.","contrary":"The mode remains absent under local forcing too.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0369","title":"Mechanical beam-array deafness","question":"Can a uniform drive fail to excite a high-energy antisymmetric mode that local noise strongly excites?","prediction":"Local perturbations reveal a mode absent under global forcing.","test":"Map safe beam-array modes with matched injected energy.","contrary_outcome":"The mode remains absent under local forcing too.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0370","id":"S3-0370","volume":"900v3","title":"Granular water-bridge rupture","prediction":"Remote displacement begins after rupture with a measurable elastic propagation delay.","test":"Use safe transparent grains and controlled bridge evaporation.","contrary":"Only adjacent grains respond after vibration correction.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0370","title":"Granular water-bridge rupture","question":"Can one capillary bridge rupture trigger remote rearrangement through a preloaded force chain?","prediction":"Remote displacement begins after rupture with a measurable elastic propagation delay.","test":"Use safe transparent grains and controlled bridge evaporation.","contrary_outcome":"Only adjacent grains respond after vibration correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0370","title":"Granular water-bridge rupture","question":"Can one capillary bridge rupture trigger remote rearrangement through a preloaded force chain?","prediction":"Remote displacement begins after rupture with a measurable elastic propagation delay.","test":"Use safe transparent grains and controlled bridge evaporation.","contrary_outcome":"Only adjacent grains respond after vibration correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can one capillary bridge rupture trigger remote rearrangement through a preloaded force chain experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0371","id":"S3-0371","volume":"900v3","title":"Elastic thin-shell volume bias","prediction":"Apparent volume loss disappears under calibrated 3D reconstruction.","test":"Compare one-view and stereo measurements on safe incompressible shell models.","contrary":"Both estimates agree across buckling.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0371","title":"Elastic thin-shell volume bias","question":"Can a single-camera estimate of shell volume mistake a buckle for material compressibility?","prediction":"Apparent volume loss disappears under calibrated 3D reconstruction.","test":"Compare one-view and stereo measurements on safe incompressible shell models.","contrary_outcome":"Both estimates agree across buckling.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0372","id":"S3-0372","volume":"900v3","title":"Frictional rest-angle memory","prediction":"Residual microtilt reverses with the last loading direction at unchanged position.","test":"Use safe compliant sliders with interferometric tilt and force calibration.","contrary":"Tilt is fixed by substrate geometry and not loading history.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0372","title":"Frictional rest-angle memory","question":"Can a slider's resting angle encode the direction of its last subthreshold force?","prediction":"Residual microtilt reverses with the last loading direction at unchanged position.","test":"Use safe compliant sliders with interferometric tilt and force calibration.","contrary_outcome":"Tilt is fixed by substrate geometry and not loading history.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0373","id":"S3-0373","volume":"900v3","title":"Mechanical oscillator entropy proxy","prediction":"Variance rises despite calibrated energy loss when stiffness changes.","test":"Measure safe low-energy oscillators with simultaneous stiffness and velocity estimates.","contrary":"Variance tracks energy after calibration with no countertrend.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0373","title":"Mechanical oscillator entropy proxy","question":"Can a broader displacement distribution occur while vibration energy decreases because mode stiffness softens?","prediction":"Variance rises despite calibrated energy loss when stiffness changes.","test":"Measure safe low-energy oscillators with simultaneous stiffness and velocity estimates.","contrary_outcome":"Variance tracks energy after calibration with no countertrend.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0374","id":"S3-0374","volume":"900v3","title":"Granular surface roughness clock","prediction":"Spatial roughness correlations change ahead of mean height.","test":"Monitor inert granular beds with stereo imaging and tomography during gentle aging.","contrary":"Roughness changes originate only from surface vibration.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0374","title":"Granular surface roughness clock","question":"Can evolving surface roughness identify slow subsurface compaction before height changes are resolved?","prediction":"Spatial roughness correlations change ahead of mean height.","test":"Monitor inert granular beds with stereo imaging and tomography during gentle aging.","contrary_outcome":"Roughness changes originate only from surface vibration.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0375","id":"S3-0375","volume":"900v3","title":"Elastic support exchange","prediction":"Mode damping shifts with the supports' relaxation spectra despite matched static stiffness.","test":"Compare safe calibrated viscoelastic support pairs with full-field modal scans.","contrary":"Only static stiffness and total loss factor matter.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0375","title":"Elastic support exchange","question":"Can exchanging two equal-static-stiffness supports change damping localization in a structure?","prediction":"Mode damping shifts with the supports' relaxation spectra despite matched static stiffness.","test":"Compare safe calibrated viscoelastic support pairs with full-field modal scans.","contrary_outcome":"Only static stiffness and total loss factor matter.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0376","id":"S3-0376","volume":"900v3","title":"Mechanical cord twist localization","prediction":"Twist density jumps locally above a tension-dependent threshold.","test":"Use safe marked cords, torque sensing and 3D shape imaging.","contrary":"Twist remains uniform until material yielding.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0376","title":"Mechanical cord twist localization","question":"Can axial tension localize twist into a short segment of a uniform cord through self-contact?","prediction":"Twist density jumps locally above a tension-dependent threshold.","test":"Use safe marked cords, torque sensing and 3D shape imaging.","contrary_outcome":"Twist remains uniform until material yielding.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0377","id":"S3-0377","volume":"900v3","title":"Granular channel splitting","prediction":"Branch imbalance persists within runs but changes sign across independent preparations.","test":"Use safe symmetric hoppers with randomized repacking and force imaging.","contrary":"Imbalance is fixed by hidden geometric asymmetry.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0377","title":"Granular channel splitting","question":"Can a single obstacle split grain flow into unequal branches even in mirror-symmetric geometry because contact history breaks symmetry?","prediction":"Branch imbalance persists within runs but changes sign across independent preparations.","test":"Use safe symmetric hoppers with randomized repacking and force imaging.","contrary_outcome":"Imbalance is fixed by hidden geometric asymmetry.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0378","id":"S3-0378","volume":"900v3","title":"Elastic stress-free reference failure","prediction":"Opposite-face strain remains unequal at zero external force.","test":"Measure safe bonded bilayers with force-null control and thermal cycling.","contrary":"Internal strain vanishes whenever external force is zero.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0378","title":"Elastic stress-free reference failure","question":"Can thermal contraction make a nominal zero-load reference carry internal stress?","prediction":"Opposite-face strain remains unequal at zero external force.","test":"Measure safe bonded bilayers with force-null control and thermal cycling.","contrary_outcome":"Internal strain vanishes whenever external force is zero.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0379","id":"S3-0379","volume":"900v3","title":"Frictional energy partition","prediction":"Short events radiate a greater calibrated acoustic fraction.","test":"Measure low-energy benign sliding events with complete work and acoustic balances.","contrary":"Acoustic fraction is independent of event duration.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0379","title":"Frictional energy partition","question":"Can identical friction work produce different acoustic energy fractions because slip duration differs?","prediction":"Short events radiate a greater calibrated acoustic fraction.","test":"Measure low-energy benign sliding events with complete work and acoustic balances.","contrary_outcome":"Acoustic fraction is independent of event duration.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0380","id":"S3-0380","volume":"900v3","title":"Mechanical soft-spot migration","prediction":"Geometric reorientation changes local compliance maxima.","test":"Map safe reconfigurable lattices under quasistatic reversible loading.","contrary":"The softest region stays fixed to the weakest element.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0380","title":"Mechanical soft-spot migration","question":"Can a weakly loaded elastic network move its softest deformation region without any component failure?","prediction":"Geometric reorientation changes local compliance maxima.","test":"Map safe reconfigurable lattices under quasistatic reversible loading.","contrary_outcome":"The softest region stays fixed to the weakest element.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0380","title":"Mechanical soft-spot migration","question":"Can a weakly loaded elastic network move its softest deformation region without any component failure?","prediction":"Geometric reorientation changes local compliance maxima.","test":"Map safe reconfigurable lattices under quasistatic reversible loading.","contrary_outcome":"The softest region stays fixed to the weakest element.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a weakly loaded elastic network move its softest deformation region without any component failure experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0381","id":"S3-0381","volume":"900v3","title":"Granular force recovery asymmetry","prediction":"Wall friction mobilization creates asymmetric relaxation time.","test":"Measure inert grain columns with matched load ramps and wall-force sensors.","contrary":"Times differ only through actuator dynamics.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0381","title":"Granular force recovery asymmetry","question":"Can unloading a granular column restore base force faster than reloading at the same rate?","prediction":"Wall friction mobilization creates asymmetric relaxation time.","test":"Measure inert grain columns with matched load ramps and wall-force sensors.","contrary_outcome":"Times differ only through actuator dynamics.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0382","id":"S3-0382","volume":"900v3","title":"Elastic clamp heat coupling","prediction":"Frequency shifts disappear when clamp expansion is mechanically compensated.","test":"Use safe beams with independent clamp and beam thermometry.","contrary":"Shifts persist and match bulk modulus change.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0382","title":"Elastic clamp heat coupling","question":"Can clamp heating change a beam's apparent modulus through constraint expansion rather than material softening?","prediction":"Frequency shifts disappear when clamp expansion is mechanically compensated.","test":"Use safe beams with independent clamp and beam thermometry.","contrary_outcome":"Shifts persist and match bulk modulus change.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0383","id":"S3-0383","volume":"900v3","title":"Mechanical pulse spatial alias","prediction":"Apparent direction reverses with sensor spacing while full-field motion stays standing.","test":"Compare synchronized sparse sensors and imaging on a safe plate.","contrary":"Direction remains invariant to sampling geometry.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0383","title":"Mechanical pulse spatial alias","question":"Can sparse vibration sampling infer a false propagation direction for a standing wave?","prediction":"Apparent direction reverses with sensor spacing while full-field motion stays standing.","test":"Compare synchronized sparse sensors and imaging on a safe plate.","contrary_outcome":"Direction remains invariant to sampling geometry.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0384","id":"S3-0384","volume":"900v3","title":"Granular permeability stress loop","prediction":"Flow anisotropy follows the shear direction and persists after load removal.","test":"Use inert transparent saturated packs with tomography and orthogonal flow tests.","contrary":"Porosity alone predicts permeability.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0384","title":"Granular permeability stress loop","question":"Can cyclic shear change permeability at constant porosity through pore-throat orientation?","prediction":"Flow anisotropy follows the shear direction and persists after load removal.","test":"Use inert transparent saturated packs with tomography and orthogonal flow tests.","contrary_outcome":"Porosity alone predicts permeability.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0385","id":"S3-0385","volume":"900v3","title":"Elastic fold thermal readout","prediction":"Temperature peaks track local layer slip at the crease.","test":"Use safe thin laminates with infrared imaging and layer-motion tracking.","contrary":"Heat is distributed according to curvature only.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0385","title":"Elastic fold thermal readout","question":"Can friction at a moving fold generate a thermal line distinct from bulk bending loss?","prediction":"Temperature peaks track local layer slip at the crease.","test":"Use safe thin laminates with infrared imaging and layer-motion tracking.","contrary_outcome":"Heat is distributed according to curvature only.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0386","id":"S3-0386","volume":"900v3","title":"Mechanical metastable averaging","prediction":"The mean geometry violates the measured force-balance relation.","test":"Measure safe bistable shells and compare time-averaged and quasistatic states.","contrary":"The average corresponds to an accessible equilibrium under matched loads.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0386","title":"Mechanical metastable averaging","question":"Can averaging two stable shapes yield a shape the structure cannot statically occupy?","prediction":"The mean geometry violates the measured force-balance relation.","test":"Measure safe bistable shells and compare time-averaged and quasistatic states.","contrary_outcome":"The average corresponds to an accessible equilibrium under matched loads.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0387","id":"S3-0387","volume":"900v3","title":"Granular contact shielding","prediction":"Static forces fall but dynamic displacements rise through compliance redistribution.","test":"Measure photoelastic inert grain mixtures under small static and dynamic loads.","contrary":"Force and displacement rankings remain correlated.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0387","title":"Granular contact shielding","question":"Can adding one large grain shield smaller grains from load while raising their motion amplitude?","prediction":"Static forces fall but dynamic displacements rise through compliance redistribution.","test":"Measure photoelastic inert grain mixtures under small static and dynamic loads.","contrary_outcome":"Force and displacement rankings remain correlated.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0388","id":"S3-0388","volume":"900v3","title":"Elastic ring defect orientation","prediction":"Coupling between nearly degenerate modes follows notch angle.","test":"Measure safe thin rings with movable reversible mass-neutral notches.","contrary":"Splitting depends only on notch depth.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0388","title":"Elastic ring defect orientation","question":"Can rotating a tiny ring notch change mode splitting without changing either isolated natural frequency?","prediction":"Coupling between nearly degenerate modes follows notch angle.","test":"Measure safe thin rings with movable reversible mass-neutral notches.","contrary_outcome":"Splitting depends only on notch depth.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0389","id":"S3-0389","volume":"900v3","title":"Mechanical flutter energy source","prediction":"Measured actuator-equivalent power enters through correlated pressure-motion work.","test":"Use safe low-speed air flow with pressure, force and motion measurements.","contrary":"Oscillation energy cannot be closed with measured flow work.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0389","title":"Mechanical flutter energy source","question":"Can a self-oscillating flag extract energy from a flow even when its average drag decreases?","prediction":"Measured actuator-equivalent power enters through correlated pressure-motion work.","test":"Use safe low-speed air flow with pressure, force and motion measurements.","contrary_outcome":"Oscillation energy cannot be closed with measured flow work.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0390","id":"S3-0390","volume":"900v3","title":"Granular hydrogel pressure delay","prediction":"Slow contact rearrangement delays the force maximum.","test":"Use inert grains and nonhazardous hydrogel beads with volume and force tracking.","contrary":"Force peaks with inclusion volume rate or external drift.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0390","title":"Granular hydrogel pressure delay","question":"Can a safe swelling inclusion load a grain pack after its own volume growth has nearly stopped?","prediction":"Slow contact rearrangement delays the force maximum.","test":"Use inert grains and nonhazardous hydrogel beads with volume and force tracking.","contrary_outcome":"Force peaks with inclusion volume rate or external drift.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0390","title":"Granular hydrogel pressure delay","question":"Can a safe swelling inclusion load a grain pack after its own volume growth has nearly stopped?","prediction":"Slow contact rearrangement delays the force maximum.","test":"Use inert grains and nonhazardous hydrogel beads with volume and force tracking.","contrary_outcome":"Force peaks with inclusion volume rate or external drift.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a safe swelling inclusion load a grain pack after its own volume growth has nearly stopped experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0391","id":"S3-0391","volume":"900v3","title":"Elastic interfacial rotational drag","prediction":"Distributed contact geometry changes torque at matched sliding force.","test":"Compare safe textured contacts with force, torque and area measurements.","contrary":"Twisting torque is predicted by sliding friction alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0391","title":"Elastic interfacial rotational drag","question":"Can two surfaces share tangential friction but differ in resistance to a twisting contact?","prediction":"Distributed contact geometry changes torque at matched sliding force.","test":"Compare safe textured contacts with force, torque and area measurements.","contrary_outcome":"Twisting torque is predicted by sliding friction alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0392","id":"S3-0392","volume":"900v3","title":"Mechanical normal-mode relocation","prediction":"Mode shape relocates through an avoided crossing while frequency stays within a narrow band.","test":"Measure safe coupled beams with calibrated movable masses.","contrary":"Large relocation requires a proportionally large frequency change.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0392","title":"Mechanical normal-mode relocation","question":"Can changing one boundary mass transfer a mode's spatial center without a large frequency shift?","prediction":"Mode shape relocates through an avoided crossing while frequency stays within a narrow band.","test":"Measure safe coupled beams with calibrated movable masses.","contrary_outcome":"Large relocation requires a proportionally large frequency change.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0393","id":"S3-0393","volume":"900v3","title":"Granular rattler noise","prediction":"Removing imaged rattlers lowers noise with negligible change in force network.","test":"Use inert transparent packs and safe weak excitation.","contrary":"Noise tracks only load-bearing contacts.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0393","title":"Granular rattler noise","question":"Can loosely trapped grains dominate acoustic noise without carrying appreciable static load?","prediction":"Removing imaged rattlers lowers noise with negligible change in force network.","test":"Use inert transparent packs and safe weak excitation.","contrary_outcome":"Noise tracks only load-bearing contacts.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0394","id":"S3-0394","volume":"900v3","title":"Elastic film drainage buckle","prediction":"Buckling onset follows measured pressure drop at unchanged surface chemistry.","test":"Use safe water-filled thin gaps with pressure taps and shape imaging.","contrary":"Buckling requires adhesive change or drying.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0394","title":"Elastic film drainage buckle","question":"Can liquid drainage beneath a film trigger a buckle through pressure gradients before adhesion changes?","prediction":"Buckling onset follows measured pressure drop at unchanged surface chemistry.","test":"Use safe water-filled thin gaps with pressure taps and shape imaging.","contrary_outcome":"Buckling requires adhesive change or drying.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0395","id":"S3-0395","volume":"900v3","title":"Mechanical reciprocity with memory","prediction":"Reciprocity returns when both transfer functions are measured about the same prepared state.","test":"Use safe low-load joints with state imaging and simultaneous small probes.","contrary":"Asymmetry persists in a fixed linearized state.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0395","title":"Mechanical reciprocity with memory","question":"Can a passive history-dependent joint appear nonreciprocal when source swaps alter its contact state?","prediction":"Reciprocity returns when both transfer functions are measured about the same prepared state.","test":"Use safe low-load joints with state imaging and simultaneous small probes.","contrary_outcome":"Asymmetry persists in a fixed linearized state.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0396","id":"S3-0396","volume":"900v3","title":"Granular tilt permeability switch","prediction":"Liquid bridges shift enough to open a spanning gas path.","test":"Image safe water-wet transparent grains with gas flow and gravimetry.","contrary":"Permeability remains a function of water mass alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0396","title":"Granular tilt permeability switch","question":"Can tilting an unsaturated pack change gas permeability while water mass remains fixed?","prediction":"Liquid bridges shift enough to open a spanning gas path.","test":"Image safe water-wet transparent grains with gas flow and gravimetry.","contrary_outcome":"Permeability remains a function of water mass alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0397","id":"S3-0397","volume":"900v3","title":"Elastic strain gradient sensing","prediction":"Opposite-face phase differences identify curvature independently of mean strain.","test":"Use safe calibrated beams with optical gratings and traceable displacement.","contrary":"Thickness uncertainty prevents separation within error bounds.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0397","title":"Elastic strain gradient sensing","question":"Can a pair of surface gratings separate bending strain from uniform extension without knowing thickness?","prediction":"Opposite-face phase differences identify curvature independently of mean strain.","test":"Use safe calibrated beams with optical gratings and traceable displacement.","contrary_outcome":"Thickness uncertainty prevents separation within error bounds.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0398","id":"S3-0398","volume":"900v3","title":"Mechanical stress concentration time","prediction":"Peak stress migrates between two regions with distinct relaxation spectra.","test":"Use safe photoelastic composite strips with fixed displacement and time-resolved stress maps.","contrary":"Stress decays everywhere without moving its maximum.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0398","title":"Mechanical stress concentration time","question":"Can the location of maximum stress move during a constant-displacement hold because materials relax differently?","prediction":"Peak stress migrates between two regions with distinct relaxation spectra.","test":"Use safe photoelastic composite strips with fixed displacement and time-resolved stress maps.","contrary_outcome":"Stress decays everywhere without moving its maximum.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0399","id":"S3-0399","volume":"900v3","title":"Granular collision restitution geography","prediction":"Bed rearrangement absorbs energy beyond single-contact restitution.","test":"Drop inert beads safely onto constrained and unconstrained matched beds.","contrary":"Restitution is determined only by grain material and impact speed.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0399","title":"Granular collision restitution geography","question":"Can identical grains have different apparent restitution depending on whether the bed can reorganize beneath them?","prediction":"Bed rearrangement absorbs energy beyond single-contact restitution.","test":"Drop inert beads safely onto constrained and unconstrained matched beds.","contrary_outcome":"Restitution is determined only by grain material and impact speed.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0400","id":"S3-0400","volume":"900v3","title":"Elastic topological count limit","prediction":"Mode count changes at a measured connectivity transition.","test":"Use safe mechanical lattices with reversible low-force contacts and complete mode scans.","contrary":"Mode count is insensitive to connectivity under matched stiffness.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0400","title":"Elastic topological count limit","question":"Can boundary-localized modes disappear when a supposedly negligible contact closes?","prediction":"Mode count changes at a measured connectivity transition.","test":"Use safe mechanical lattices with reversible low-force contacts and complete mode scans.","contrary_outcome":"Mode count is insensitive to connectivity under matched stiffness.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0400","title":"Elastic topological count limit","question":"Can boundary-localized modes disappear when a supposedly negligible contact closes?","prediction":"Mode count changes at a measured connectivity transition.","test":"Use safe mechanical lattices with reversible low-force contacts and complete mode scans.","contrary_outcome":"Mode count is insensitive to connectivity under matched stiffness.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can boundary-localized modes disappear when a supposedly negligible contact closes experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0401","id":"S3-0401","volume":"900v3","title":"Mechanical friction-temperature lead","prediction":"Calibrated local heat appears before displacement exceeds threshold.","test":"Measure safe low-load contacts with sensitive thermography and nanometric displacement sensing.","contrary":"All heat follows resolved slip or external conduction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0401","title":"Mechanical friction-temperature lead","question":"Can a temperature rise precede macroscopic slip because microcontacts dissipate during loading?","prediction":"Calibrated local heat appears before displacement exceeds threshold.","test":"Measure safe low-load contacts with sensitive thermography and nanometric displacement sensing.","contrary_outcome":"All heat follows resolved slip or external conduction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0402","id":"S3-0402","volume":"900v3","title":"Granular intrusion path reversal","prediction":"Return force differs at identical position and speed with imaged contact rearrangements.","test":"Use inert transparent grains and a slow safe intruder.","contrary":"Forces are reversible after buoyancy and wall effects are corrected.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0402","title":"Granular intrusion path reversal","question":"Can reversing an intruder retrace its path but not its force curve because the wake collapses?","prediction":"Return force differs at identical position and speed with imaged contact rearrangements.","test":"Use inert transparent grains and a slow safe intruder.","contrary_outcome":"Forces are reversible after buoyancy and wall effects are corrected.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0403","id":"S3-0403","volume":"900v3","title":"Elastic crack-face optical phase","prediction":"Phase jumps align with independently measured contact force at nearly constant projected width.","test":"Use safe transparent cracked polymers under small cyclic loads.","contrary":"Phase reflects only bulk stress birefringence.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0403","title":"Elastic crack-face optical phase","question":"Can optical phase detect intermittent crack-face recontact missed by projected crack width?","prediction":"Phase jumps align with independently measured contact force at nearly constant projected width.","test":"Use safe transparent cracked polymers under small cyclic loads.","contrary_outcome":"Phase reflects only bulk stress birefringence.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0404","id":"S3-0404","volume":"900v3","title":"Mechanical compliant stop rebound","prediction":"Center-of-mass rebound rises while internal vibration energy falls.","test":"Compare safe small-mass impacts on stops with calibrated force histories.","contrary":"Rebound follows stop stiffness monotonically after loss accounting.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0404","title":"Mechanical compliant stop rebound","question":"Can a softer stop produce a larger rebound velocity by reducing internal mode excitation?","prediction":"Center-of-mass rebound rises while internal vibration energy falls.","test":"Compare safe small-mass impacts on stops with calibrated force histories.","contrary_outcome":"Rebound follows stop stiffness monotonically after loss accounting.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0405","id":"S3-0405","volume":"900v3","title":"Granular force-chain branching clock","prediction":"Contact imaging resolves an ordered activation sequence before the base sensor responds.","test":"Use safe photoelastic grains with synchronized force measurements.","contrary":"Activation timing is simultaneous within instrument uncertainty.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0405","title":"Granular force-chain branching clock","question":"Can the timing of branch activation reveal load propagation better than base-force onset?","prediction":"Contact imaging resolves an ordered activation sequence before the base sensor responds.","test":"Use safe photoelastic grains with synchronized force measurements.","contrary_outcome":"Activation timing is simultaneous within instrument uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0406","id":"S3-0406","volume":"900v3","title":"Elastic laminate neutral temperature","prediction":"Relaxation shifts the zero-curvature temperature despite identical composition.","test":"Cycle safe polymer laminates at several rates with full thermal equilibration checks.","contrary":"Zero curvature is rate-independent after thermal lag correction.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0406","title":"Elastic laminate neutral temperature","question":"Can a bilayer pass through zero curvature at a temperature that depends on heating rate?","prediction":"Relaxation shifts the zero-curvature temperature despite identical composition.","test":"Cycle safe polymer laminates at several rates with full thermal equilibration checks.","contrary_outcome":"Zero curvature is rate-independent after thermal lag correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0407","id":"S3-0407","volume":"900v3","title":"Mechanical hinge acoustic signature","prediction":"Localized stick-slip produces a harmonic pattern absent in viscous controls.","test":"Use safe low-amplitude hinged beams and calibrated equivalent-loss dampers.","contrary":"Harmonic spectra are identical after drive distortion correction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0407","title":"Mechanical hinge acoustic signature","question":"Can hinge friction be distinguished from distributed damping through odd harmonics at equal total loss?","prediction":"Localized stick-slip produces a harmonic pattern absent in viscous controls.","test":"Use safe low-amplitude hinged beams and calibrated equivalent-loss dampers.","contrary_outcome":"Harmonic spectra are identical after drive distortion correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0408","id":"S3-0408","volume":"900v3","title":"Liquid bridge recoil clock","prediction":"Early recoil speed separates slip lengths that share steady throughput.","test":"Break safe water bridges in calibrated transparent channels; track shape and velocity.","contrary":"Recoil follows surface tension and geometry alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0408","title":"Liquid bridge recoil clock","question":"Can bridge recoil reveal hidden wall slip better than steady flow?","prediction":"Early recoil speed separates slip lengths that share steady throughput.","test":"Break safe water bridges in calibrated transparent channels; track shape and velocity.","contrary_outcome":"Recoil follows surface tension and geometry alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0409","id":"S3-0409","volume":"900v3","title":"Droplet collision phase gate","prediction":"Coalescence frequency varies periodically with independently measured surface phase.","test":"Use benign water drops with safe low-amplitude forcing and blinded collision timing.","contrary":"Outcomes depend only on collision speed and impact parameter.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0409","title":"Droplet collision phase gate","question":"Can the oscillation phase of a droplet determine whether two otherwise identical drops coalesce?","prediction":"Coalescence frequency varies periodically with independently measured surface phase.","test":"Use benign water drops with safe low-amplitude forcing and blinded collision timing.","contrary_outcome":"Outcomes depend only on collision speed and impact parameter.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0410","id":"S3-0410","volume":"900v3","title":"Pore junction flow capture","prediction":"A residual film selects the next advancing meniscus path.","test":"Cycle safe water through transparent junctions with film-thickness imaging.","contrary":"Path selection is history-independent after residual volume correction.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0410","title":"Pore junction flow capture","question":"Can a temporarily wet side branch redirect flow after it is drained?","prediction":"A residual film selects the next advancing meniscus path.","test":"Cycle safe water through transparent junctions with film-thickness imaging.","contrary_outcome":"Path selection is history-independent after residual volume correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0410","title":"Pore junction flow capture","question":"Can a temporarily wet side branch redirect flow after it is drained?","prediction":"A residual film selects the next advancing meniscus path.","test":"Cycle safe water through transparent junctions with film-thickness imaging.","contrary_outcome":"Path selection is history-independent after residual volume correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a temporarily wet side branch redirect flow after it is drained experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0411","id":"S3-0411","volume":"900v3","title":"Bubble wake entrainment","prediction":"Pair velocity exceeds isolated velocity only within a measured wake region.","test":"Track air bubbles in clean water with 3D velocimetry.","contrary":"Speed change follows size growth or wall proximity.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0411","title":"Bubble wake entrainment","question":"Can a small bubble enter a larger bubble's wake and rise faster without merging?","prediction":"Pair velocity exceeds isolated velocity only within a measured wake region.","test":"Track air bubbles in clean water with 3D velocimetry.","contrary_outcome":"Speed change follows size growth or wall proximity.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0412","id":"S3-0412","volume":"900v3","title":"Capillary corner pressure pulse","prediction":"Transient curvature drives a short calibrated pressure overshoot.","test":"Move safe water menisci past known corners with high-speed imaging and pressure sensing.","contrary":"Overshoot vanishes after sensor-response correction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0412","title":"Capillary corner pressure pulse","question":"Can depinning from a corner create a pressure pulse larger than steady capillary pressure?","prediction":"Transient curvature drives a short calibrated pressure overshoot.","test":"Move safe water menisci past known corners with high-speed imaging and pressure sensing.","contrary_outcome":"Overshoot vanishes after sensor-response correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0413","id":"S3-0413","volume":"900v3","title":"Liquid film wave quenching","prediction":"A thickness patch redirects wave energy into a damped mode.","test":"Measure safe falling-water films with full thickness and velocity maps.","contrary":"Wave suppression is explained by reduced mean throughput.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0413","title":"Liquid film wave quenching","question":"Can local thickening suppress a traveling film wave without changing mean flow?","prediction":"A thickness patch redirects wave energy into a damped mode.","test":"Measure safe falling-water films with full thickness and velocity maps.","contrary_outcome":"Wave suppression is explained by reduced mean throughput.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0414","id":"S3-0414","volume":"900v3","title":"Mixing without centroid motion","prediction":"Concentration variance falls faster despite zero mean displacement.","test":"Use safe dye in a transparent deforming cavity with reversible-flow controls.","contrary":"Mixing enhancement disappears after molecular diffusion is accounted for.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0414","title":"Mixing without centroid motion","question":"Can symmetric oscillation enhance mixing while leaving each fluid centroid fixed?","prediction":"Concentration variance falls faster despite zero mean displacement.","test":"Use safe dye in a transparent deforming cavity with reversible-flow controls.","contrary_outcome":"Mixing enhancement disappears after molecular diffusion is accounted for.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0415","id":"S3-0415","volume":"900v3","title":"Foam wall drainage bottleneck","prediction":"Bulk outflow decreases while wall-film inventory rises.","test":"Use benign soap foam with controlled wall wetting, mass balance and imaging.","contrary":"Outflow reduction follows bubble-size changes alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0415","title":"Foam wall drainage bottleneck","question":"Can a hydrophilic wall slow foam drainage by storing liquid in immobile films?","prediction":"Bulk outflow decreases while wall-film inventory rises.","test":"Use benign soap foam with controlled wall wetting, mass balance and imaging.","contrary_outcome":"Outflow reduction follows bubble-size changes alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0416","id":"S3-0416","volume":"900v3","title":"Meniscus curvature anticipation","prediction":"Pressure communication deforms it upstream over a measurable distance.","test":"Image safe water menisci approaching calibrated expansions at low speed.","contrary":"Shape changes begin only after geometric entry.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0416","title":"Meniscus curvature anticipation","question":"Can a moving meniscus change shape before reaching a channel expansion?","prediction":"Pressure communication deforms it upstream over a measurable distance.","test":"Image safe water menisci approaching calibrated expansions at low speed.","contrary_outcome":"Shape changes begin only after geometric entry.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0417","id":"S3-0417","volume":"900v3","title":"Vortex pair wall exchange","prediction":"The surviving vortex circulation rises while total impulse accounting closes.","test":"Create safe low-speed water vortex pairs near a wall with velocimetry.","contrary":"Both vortices only decay independently.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0417","title":"Vortex pair wall exchange","question":"Can a wall absorb one vortex's momentum while strengthening its partner?","prediction":"The surviving vortex circulation rises while total impulse accounting closes.","test":"Create safe low-speed water vortex pairs near a wall with velocimetry.","contrary_outcome":"Both vortices only decay independently.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0418","id":"S3-0418","volume":"900v3","title":"Droplet rolling-slip split","prediction":"Tracer rotation changes while centroid speed stays matched.","test":"Track benign drops on controlled-wetting slopes with internal tracers.","contrary":"Internal velocity fields are identical at equal centroid speed.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0418","title":"Droplet rolling-slip split","question":"Can internal circulation distinguish rolling from sliding when the outer droplet trajectory is identical?","prediction":"Tracer rotation changes while centroid speed stays matched.","test":"Track benign drops on controlled-wetting slopes with internal tracers.","contrary_outcome":"Internal velocity fields are identical at equal centroid speed.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0419","id":"S3-0419","volume":"900v3","title":"Capillary rise contact aging","prediction":"Restart delay grows with pause duration in a sealed chamber.","test":"Use safe water capillaries, controlled pressure pauses and high-speed contact imaging.","contrary":"Delay is fully explained by evaporation or viscous relaxation.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0419","title":"Capillary rise contact aging","question":"Can a pause in capillary rise change restart speed through contact-line aging rather than evaporation?","prediction":"Restart delay grows with pause duration in a sealed chamber.","test":"Use safe water capillaries, controlled pressure pauses and high-speed contact imaging.","contrary_outcome":"Delay is fully explained by evaporation or viscous relaxation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0420","id":"S3-0420","volume":"900v3","title":"Porous front fragmentation","prediction":"Fingers appear when trapped gas pressure relaxes unevenly.","test":"Use transparent water-wet pore networks with gas-pressure taps.","contrary":"Fragmentation depends only on imposed pressure magnitude.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0420","title":"Porous front fragmentation","question":"Can one pressure step split a wetting front into disconnected advancing fingers at fixed pore geometry?","prediction":"Fingers appear when trapped gas pressure relaxes unevenly.","test":"Use transparent water-wet pore networks with gas-pressure taps.","contrary_outcome":"Fragmentation depends only on imposed pressure magnitude.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0420","title":"Porous front fragmentation","question":"Can one pressure step split a wetting front into disconnected advancing fingers at fixed pore geometry?","prediction":"Fingers appear when trapped gas pressure relaxes unevenly.","test":"Use transparent water-wet pore networks with gas-pressure taps.","contrary_outcome":"Fragmentation depends only on imposed pressure magnitude.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can one pressure step split a wetting front into disconnected advancing fingers at fixed pore geometry experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0421","id":"S3-0421","volume":"900v3","title":"Liquid slosh hidden mode","prediction":"A hidden pressure mode grows despite reduced free-surface amplitude.","test":"Measure safe water-tank surface shape and distributed wall pressure.","contrary":"Wall-force reduction tracks visible slosh reduction everywhere.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0421","title":"Liquid slosh hidden mode","question":"Can an internal baffle suppress visible slosh while increasing wall force at another frequency?","prediction":"A hidden pressure mode grows despite reduced free-surface amplitude.","test":"Measure safe water-tank surface shape and distributed wall pressure.","contrary_outcome":"Wall-force reduction tracks visible slosh reduction everywhere.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0422","id":"S3-0422","volume":"900v3","title":"Bubble corner release","prediction":"Oscillation depins one contact segment before whole-bubble motion.","test":"Use clean water, calibrated corner geometry and weak safe motion.","contrary":"Detachment force depends only on bubble volume.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0422","title":"Bubble corner release","question":"Can a bubble detach from a corner at a lower buoyant force after a small lateral oscillation?","prediction":"Oscillation depins one contact segment before whole-bubble motion.","test":"Use clean water, calibrated corner geometry and weak safe motion.","contrary_outcome":"Detachment force depends only on bubble volume.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0423","id":"S3-0423","volume":"900v3","title":"Capillary film short circuit","prediction":"Early collected flux precedes visible meniscus arrival and scales with corner geometry.","test":"Use safe dyed water and calibrated microbalances in transparent channels.","contrary":"Early flux is below detection or comes from vapor condensation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0423","title":"Capillary film short circuit","question":"Can a nanoscopic-looking corner film transport measurable liquid before a bulk front arrives?","prediction":"Early collected flux precedes visible meniscus arrival and scales with corner geometry.","test":"Use safe dyed water and calibrated microbalances in transparent channels.","contrary_outcome":"Early flux is below detection or comes from vapor condensation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0424","id":"S3-0424","volume":"900v3","title":"Viscous finger suppression ledger","prediction":"High-resolution imaging reveals more fine structure despite a smoother coarse front.","test":"Use safe viscous liquid displacement with multi-resolution image analysis.","contrary":"Interface length decreases at every validated scale.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0424","title":"Viscous finger suppression ledger","question":"Can suppressing visible fingers increase total interface length at unresolved scales?","prediction":"High-resolution imaging reveals more fine structure despite a smoother coarse front.","test":"Use safe viscous liquid displacement with multi-resolution image analysis.","contrary_outcome":"Interface length decreases at every validated scale.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0425","id":"S3-0425","volume":"900v3","title":"Droplet recoil substrate delay","prediction":"A delayed substrate displacement precedes secondary lift-off.","test":"Use benign drops on safe soft substrates with force and shape measurements.","contrary":"Secondary motion is explained by liquid oscillation alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0425","title":"Droplet recoil substrate delay","question":"Can substrate relaxation return energy late enough to create a second droplet rebound?","prediction":"A delayed substrate displacement precedes secondary lift-off.","test":"Use benign drops on safe soft substrates with force and shape measurements.","contrary_outcome":"Secondary motion is explained by liquid oscillation alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0426","id":"S3-0426","volume":"900v3","title":"Channel flow reversal asymmetry","prediction":"Wall relaxation breaks pulse symmetry while mean pressure remains zero.","test":"Measure safe water in mirrored compliant channels with shape tracking.","contrary":"Net transport disappears after pressure-waveform matching.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0426","title":"Channel flow reversal asymmetry","question":"Can equal forward and reverse pressure pulses produce different transported volumes in a deformable channel?","prediction":"Wall relaxation breaks pulse symmetry while mean pressure remains zero.","test":"Measure safe water in mirrored compliant channels with shape tracking.","contrary_outcome":"Net transport disappears after pressure-waveform matching.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0427","id":"S3-0427","volume":"900v3","title":"Contact-line humidity gate","prediction":"Depinning force shifts with surface adsorption while volume is constant within uncertainty.","test":"Use safe water drops, controlled humidity and force microscopy-scale sensing.","contrary":"Changes require measurable evaporation or condensation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0427","title":"Contact-line humidity gate","question":"Can changing vapor humidity alter droplet depinning before measurable volume change?","prediction":"Depinning force shifts with surface adsorption while volume is constant within uncertainty.","test":"Use safe water drops, controlled humidity and force microscopy-scale sensing.","contrary_outcome":"Changes require measurable evaporation or condensation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0428","id":"S3-0428","volume":"900v3","title":"Pore gas diffusion escape","prediction":"Gas diffusion through the solid or gas network shortens lifetime.","test":"Use transparent benign porous analogues with controlled remote wetting and gas composition.","contrary":"Lifetime depends only on local liquid contact area.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0428","title":"Pore gas diffusion escape","question":"Can a trapped bubble dissolve faster when a remote pore wets even without a liquid connection?","prediction":"Gas diffusion through the solid or gas network shortens lifetime.","test":"Use transparent benign porous analogues with controlled remote wetting and gas composition.","contrary_outcome":"Lifetime depends only on local liquid contact area.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0429","id":"S3-0429","volume":"900v3","title":"Liquid curtain edge recoil","prediction":"Edge thickness stores momentum before bulk narrowing becomes visible.","test":"Measure safe water-sheet thickness and velocity with synchronized imaging.","contrary":"Recoil starts only with resolved width reduction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0429","title":"Liquid curtain edge recoil","question":"Can a free liquid sheet's edge accelerate inward while total sheet width is initially unchanged?","prediction":"Edge thickness stores momentum before bulk narrowing becomes visible.","test":"Measure safe water-sheet thickness and velocity with synchronized imaging.","contrary_outcome":"Recoil starts only with resolved width reduction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0430","id":"S3-0430","volume":"900v3","title":"Vortex thermal dye bias","prediction":"Corrected concentration variance differs from raw fluorescence variance.","test":"Use safe dye calibration, independent thermometry and isothermal vortex controls.","contrary":"Raw and corrected mixing rates agree within uncertainty.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0430","title":"Vortex thermal dye bias","question":"Can temperature-sensitive fluorescence falsely imply enhanced mixing in a vortex?","prediction":"Corrected concentration variance differs from raw fluorescence variance.","test":"Use safe dye calibration, independent thermometry and isothermal vortex controls.","contrary_outcome":"Raw and corrected mixing rates agree within uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0430","title":"Vortex thermal dye bias","question":"Can temperature-sensitive fluorescence falsely imply enhanced mixing in a vortex?","prediction":"Corrected concentration variance differs from raw fluorescence variance.","test":"Use safe dye calibration, independent thermometry and isothermal vortex controls.","contrary_outcome":"Raw and corrected mixing rates agree within uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can temperature-sensitive fluorescence falsely imply enhanced mixing in a vortex experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0431","id":"S3-0431","volume":"900v3","title":"Meniscus rupture topology","prediction":"The connected air path triggers earlier neck failure.","test":"Measure safe water bridge 3D shapes, loads and internal topology.","contrary":"Rupture depends only on outer shape and volume.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0431","title":"Meniscus rupture topology","question":"Can two liquid bridges of equal volume rupture at different loads because one contains a trapped air channel?","prediction":"The connected air path triggers earlier neck failure.","test":"Measure safe water bridge 3D shapes, loads and internal topology.","contrary_outcome":"Rupture depends only on outer shape and volume.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0432","id":"S3-0432","volume":"900v3","title":"Capillary staircase memory","prediction":"Residual films reinforce a route across cycles.","test":"Image safe water transport in symmetric transparent networks with randomized initial filling.","contrary":"Route choices remain independent across cycles.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0432","title":"Capillary staircase memory","question":"Can repeated pressure cycling select one route through a symmetric pore staircase?","prediction":"Residual films reinforce a route across cycles.","test":"Image safe water transport in symmetric transparent networks with randomized initial filling.","contrary_outcome":"Route choices remain independent across cycles.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0433","id":"S3-0433","volume":"900v3","title":"Droplet cooling convection switch","prediction":"Buoyancy overtakes thermocapillary forcing at a measured temperature threshold.","test":"Track safe water-drop flow, surface temperature and mass loss.","contrary":"Flow direction remains fixed after contamination controls.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0433","title":"Droplet cooling convection switch","question":"Can a cooling droplet reverse internal circulation without changing evaporation direction?","prediction":"Buoyancy overtakes thermocapillary forcing at a measured temperature threshold.","test":"Track safe water-drop flow, surface temperature and mass loss.","contrary_outcome":"Flow direction remains fixed after contamination controls.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0434","id":"S3-0434","volume":"900v3","title":"Foam rearrangement pressure wave","prediction":"A measured pressure wave precedes the remote topological change.","test":"Use benign two-dimensional foam with high-speed imaging and pressure sensing.","contrary":"Remote events are independent after common disturbances are excluded.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0434","title":"Foam rearrangement pressure wave","question":"Can one film rupture trigger a delayed rearrangement several bubbles away?","prediction":"A measured pressure wave precedes the remote topological change.","test":"Use benign two-dimensional foam with high-speed imaging and pressure sensing.","contrary_outcome":"Remote events are independent after common disturbances are excluded.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0435","id":"S3-0435","volume":"900v3","title":"Pore network mean-field failure","prediction":"Loop-rich networks trap different gas volumes at matched pressure.","test":"Use safe transparent designed networks with equal pore statistics.","contrary":"Hysteresis collapses under pore-size matching.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0435","title":"Pore network mean-field failure","question":"Can two networks with identical pore-size distributions have different drainage hysteresis because of loops?","prediction":"Loop-rich networks trap different gas volumes at matched pressure.","test":"Use safe transparent designed networks with equal pore statistics.","contrary_outcome":"Hysteresis collapses under pore-size matching.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0436","id":"S3-0436","volume":"900v3","title":"Liquid jet startup pinch","prediction":"Nozzle wetting history creates a thinner initial neck.","test":"Use safe low-speed water jets with calibrated pump waveforms and nozzle imaging.","contrary":"Breakup follows instantaneous flow alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0436","title":"Liquid jet startup pinch","question":"Can a slowly starting jet pinch earlier than a steady jet with the same instantaneous flow?","prediction":"Nozzle wetting history creates a thinner initial neck.","test":"Use safe low-speed water jets with calibrated pump waveforms and nozzle imaging.","contrary_outcome":"Breakup follows instantaneous flow alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0437","id":"S3-0437","volume":"900v3","title":"Bubble raft load transfer","prediction":"Force chains follow ordered packing directions and rotate with the raft.","test":"Use benign soap-bubble rafts with safe force probes and shape reconstruction.","contrary":"Response is isotropic after boundary effects are removed.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0437","title":"Bubble raft load transfer","question":"Can pressing one bubble redistribute force preferentially along a crystallographic direction of a bubble raft?","prediction":"Force chains follow ordered packing directions and rotate with the raft.","test":"Use benign soap-bubble rafts with safe force probes and shape reconstruction.","contrary_outcome":"Response is isotropic after boundary effects are removed.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0438","id":"S3-0438","volume":"900v3","title":"Capillary adhesion rate inversion","prediction":"Slow contact-line pinning outweighs viscous suction reduction.","test":"Measure safe water bridges with calibrated force, geometry and humidity.","contrary":"Peak force rises monotonically with separation speed.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0438","title":"Capillary adhesion rate inversion","question":"Can pulling two wet plates apart more slowly require a larger peak force over a finite speed range?","prediction":"Slow contact-line pinning outweighs viscous suction reduction.","test":"Measure safe water bridges with calibrated force, geometry and humidity.","contrary_outcome":"Peak force rises monotonically with separation speed.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0439","id":"S3-0439","volume":"900v3","title":"Liquid rivulet branch healing","prediction":"Capillary pressure reroutes flow across a pre-existing thin film.","test":"Use safe water on controlled-wetting slopes with full film imaging.","contrary":"Recombination requires changed inlet flow or new wetting.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0439","title":"Liquid rivulet branch healing","question":"Can a split rivulet recombine after one branch dries even under unchanged inlet flow?","prediction":"Capillary pressure reroutes flow across a pre-existing thin film.","test":"Use safe water on controlled-wetting slopes with full film imaging.","contrary_outcome":"Recombination requires changed inlet flow or new wetting.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0440","id":"S3-0440","volume":"900v3","title":"Vortex sediment lift threshold","prediction":"Pressure impulse contributes independently to grain release.","test":"Use safe shallow water vortices, pressure measurements and particle tracking.","contrary":"Release depends only on peak bed shear.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0440","title":"Vortex sediment lift threshold","question":"Can an unsteady vortex lift inert grains below the threshold predicted from peak steady shear?","prediction":"Pressure impulse contributes independently to grain release.","test":"Use safe shallow water vortices, pressure measurements and particle tracking.","contrary_outcome":"Release depends only on peak bed shear.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0440","title":"Vortex sediment lift threshold","question":"Can an unsteady vortex lift inert grains below the threshold predicted from peak steady shear?","prediction":"Pressure impulse contributes independently to grain release.","test":"Use safe shallow water vortices, pressure measurements and particle tracking.","contrary_outcome":"Release depends only on peak bed shear.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can an unsteady vortex lift inert grains below the threshold predicted from peak steady shear experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0441","id":"S3-0441","volume":"900v3","title":"Droplet electric screening control","prediction":"One attraction component disappears with screening while humidity fields remain matched.","test":"Use safe uncharged water-drop setups with low-voltage field monitors and no high-voltage drive.","contrary":"Screening has no effect after airflow and radiative changes are corrected.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0441","title":"Droplet electric screening control","question":"Can a grounded screen distinguish electrostatic droplet attraction from vapor-mediated attraction?","prediction":"One attraction component disappears with screening while humidity fields remain matched.","test":"Use safe uncharged water-drop setups with low-voltage field monitors and no high-voltage drive.","contrary_outcome":"Screening has no effect after airflow and radiative changes are corrected.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0442","id":"S3-0442","volume":"900v3","title":"Foam permeability load memory","prediction":"Film topology retains a distinct flow resistance.","test":"Use benign foam with 3D topology imaging and safe low-pressure gas flow.","contrary":"Permeability returns whenever size and liquid fraction match.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0442","title":"Foam permeability load memory","question":"Can compressing then releasing foam change gas permeability while bubble size and liquid fraction recover?","prediction":"Film topology retains a distinct flow resistance.","test":"Use benign foam with 3D topology imaging and safe low-pressure gas flow.","contrary_outcome":"Permeability returns whenever size and liquid fraction match.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0443","id":"S3-0443","volume":"900v3","title":"Capillary pump heat backflow","prediction":"Condensation-induced pressure recovery reverses local velocity before rewetting.","test":"Measure safe water wick pressure, temperature and flow after controlled heat pulses.","contrary":"Flow only decays toward zero without reversal.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0443","title":"Capillary pump heat backflow","question":"Can a capillary-fed evaporator drive a transient reverse flow after heating stops?","prediction":"Condensation-induced pressure recovery reverses local velocity before rewetting.","test":"Measure safe water wick pressure, temperature and flow after controlled heat pulses.","contrary_outcome":"Flow only decays toward zero without reversal.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0444","id":"S3-0444","volume":"900v3","title":"Channel junction mixing asymmetry","prediction":"Transient storage biases outlet composition during synchronized pulses.","test":"Use safe dye-water channels with measured compliant volumes.","contrary":"Outlet concentration depends only on instantaneous inlet rates.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0444","title":"Channel junction mixing asymmetry","question":"Can equal inlet flow rates yield unequal outlet concentration because inlet compliance differs?","prediction":"Transient storage biases outlet composition during synchronized pulses.","test":"Use safe dye-water channels with measured compliant volumes.","contrary_outcome":"Outlet concentration depends only on instantaneous inlet rates.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0445","id":"S3-0445","volume":"900v3","title":"Liquid bridge acoustic filter","prediction":"A shape resonance creates a transmission minimum at unchanged hydrostatic connectivity.","test":"Use safe water bridges with low-power sound and pressure calibration.","contrary":"Sound transmission follows only cross-sectional area.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0445","title":"Liquid bridge acoustic filter","question":"Can a deformable bridge block one acoustic band while transmitting static pressure?","prediction":"A shape resonance creates a transmission minimum at unchanged hydrostatic connectivity.","test":"Use safe water bridges with low-power sound and pressure calibration.","contrary_outcome":"Sound transmission follows only cross-sectional area.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0446","id":"S3-0446","volume":"900v3","title":"Bubble dissolution thermal lag","prediction":"Thermal feedback changes lifetime relative to isothermal diffusion predictions.","test":"Use clean water, calibrated microthermometry and bubble-radius tracking.","contrary":"Temperature remains too small to affect lifetime within uncertainty.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0446","title":"Bubble dissolution thermal lag","question":"Can a dissolving bubble cool its surroundings enough to measurably alter its own lifetime?","prediction":"Thermal feedback changes lifetime relative to isothermal diffusion predictions.","test":"Use clean water, calibrated microthermometry and bubble-radius tracking.","contrary_outcome":"Temperature remains too small to affect lifetime within uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0447","id":"S3-0447","volume":"900v3","title":"Capillary imbibition arrest release","prediction":"Throat shape changes overcome local pinning.","test":"Use safe deformable transparent pore networks with water and full strain mapping.","contrary":"Release requires increased total pore volume or pressure.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0447","title":"Capillary imbibition arrest release","question":"Can a brief lateral strain release an arrested wetting front without changing mean pore volume?","prediction":"Throat shape changes overcome local pinning.","test":"Use safe deformable transparent pore networks with water and full strain mapping.","contrary_outcome":"Release requires increased total pore volume or pressure.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0448","id":"S3-0448","volume":"900v3","title":"Droplet collision contamination map","prediction":"Early internal flow follows the former interface boundary.","test":"Use benign surfactant-labelled water drops with tracer velocimetry and equal-volume controls.","contrary":"Flow depends only on collision geometry.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0448","title":"Droplet collision contamination map","question":"Can one drop's surface contamination localize where a merged drop first circulates?","prediction":"Early internal flow follows the former interface boundary.","test":"Use benign surfactant-labelled water drops with tracer velocimetry and equal-volume controls.","contrary_outcome":"Flow depends only on collision geometry.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0449","id":"S3-0449","volume":"900v3","title":"Liquid slug wake pressure","prediction":"Follower speed rises within a measured pressure-relaxation wake.","test":"Use safe water-air slugs in transparent low-pressure channels.","contrary":"Acceleration is explained only by changed inlet pressure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0449","title":"Liquid slug wake pressure","question":"Can a liquid slug leave a pressure deficit that accelerates a following slug without contact?","prediction":"Follower speed rises within a measured pressure-relaxation wake.","test":"Use safe water-air slugs in transparent low-pressure channels.","contrary_outcome":"Acceleration is explained only by changed inlet pressure.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0450","id":"S3-0450","volume":"900v3","title":"Pore wetting acoustic emission","prediction":"Signal timing aligns with capillary jumps while solid displacement remains negligible.","test":"Use safe transparent porous models with calibrated passive microphones and displacement sensing.","contrary":"Signals require solid movement or pump noise.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0450","title":"Pore wetting acoustic emission","question":"Can a single wetting event produce an acoustic signal distinguishable from solid contact motion?","prediction":"Signal timing aligns with capillary jumps while solid displacement remains negligible.","test":"Use safe transparent porous models with calibrated passive microphones and displacement sensing.","contrary_outcome":"Signals require solid movement or pump noise.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0450","title":"Pore wetting acoustic emission","question":"Can a single wetting event produce an acoustic signal distinguishable from solid contact motion?","prediction":"Signal timing aligns with capillary jumps while solid displacement remains negligible.","test":"Use safe transparent porous models with calibrated passive microphones and displacement sensing.","contrary_outcome":"Signals require solid movement or pump noise.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a single wetting event produce an acoustic signal distinguishable from solid contact motion experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0451","id":"S3-0451","volume":"900v3","title":"Rivulet thermal meander","prediction":"Deflection persists when interfacial tension is homogenized but tracks viscosity contrast.","test":"Use safe liquids with calibrated thermal properties and surface-pressure controls.","contrary":"Deflection vanishes when surface-tension gradients are suppressed.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0451","title":"Rivulet thermal meander","question":"Can a thermal stripe deflect a rivulet through viscosity changes without measurable surface-tension gradients?","prediction":"Deflection persists when interfacial tension is homogenized but tracks viscosity contrast.","test":"Use safe liquids with calibrated thermal properties and surface-pressure controls.","contrary_outcome":"Deflection vanishes when surface-tension gradients are suppressed.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0452","id":"S3-0452","volume":"900v3","title":"Foam optical depth inversion","prediction":"Angular path statistics identify the independently measured processes.","test":"Use benign foam, calibrated illumination and independent liquid-fraction/bubble-size measurements.","contrary":"Both changes remain optically degenerate.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0452","title":"Foam optical depth inversion","question":"Can two viewing angles separate bubble coarsening from drainage in an opaque foam?","prediction":"Angular path statistics identify the independently measured processes.","test":"Use benign foam, calibrated illumination and independent liquid-fraction/bubble-size measurements.","contrary_outcome":"Both changes remain optically degenerate.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0453","id":"S3-0453","volume":"900v3","title":"Liquid film hole memory","prediction":"Later ruptures cluster around the mapped former rim.","test":"Use safe soap films with interferometric thickness maps and randomized controls.","contrary":"Rupture positions are independent of healed-hole location.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0453","title":"Liquid film hole memory","question":"Can a healed film hole leave a thickness ridge that seeds the next rupture?","prediction":"Later ruptures cluster around the mapped former rim.","test":"Use safe soap films with interferometric thickness maps and randomized controls.","contrary_outcome":"Rupture positions are independent of healed-hole location.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0454","id":"S3-0454","volume":"900v3","title":"Capillary network pressure sharing","prediction":"Pressure redistribution preloads its meniscus curvature.","test":"Use safe water networks with local pressure taps and meniscus imaging.","contrary":"Entry threshold is intrinsic to the throat alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0454","title":"Capillary network pressure sharing","question":"Can opening a remote branch lower the local entry threshold of an unchanged throat?","prediction":"Pressure redistribution preloads its meniscus curvature.","test":"Use safe water networks with local pressure taps and meniscus imaging.","contrary_outcome":"Entry threshold is intrinsic to the throat alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0455","id":"S3-0455","volume":"900v3","title":"Droplet impact sound source","prediction":"Changing substrate acoustic impedance alters sound at matched impact morphology.","test":"Drop safe water onto calibrated supports and measure vibration plus sound.","contrary":"Liquid shape alone predicts the sound spectrum.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0455","title":"Droplet impact sound source","question":"Can the dominant impact sound originate from the substrate rather than the liquid even when splash shapes match?","prediction":"Changing substrate acoustic impedance alters sound at matched impact morphology.","test":"Drop safe water onto calibrated supports and measure vibration plus sound.","contrary_outcome":"Liquid shape alone predicts the sound spectrum.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0456","id":"S3-0456","volume":"900v3","title":"Bubble column transport delay","prediction":"Interfacial storage creates a long concentration tail.","test":"Use safe air-water flow and a benign soluble tracer with mass balance.","contrary":"Tracer delay is explained entirely by liquid residence-time distribution.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0456","title":"Bubble column transport delay","question":"Can a dilute bubble column delay a dissolved tracer while leaving mean liquid velocity unchanged?","prediction":"Interfacial storage creates a long concentration tail.","test":"Use safe air-water flow and a benign soluble tracer with mass balance.","contrary_outcome":"Tracer delay is explained entirely by liquid residence-time distribution.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0457","id":"S3-0457","volume":"900v3","title":"Capillary lift-off asymmetry","prediction":"Measured lift order reverses a weight-only prediction.","test":"Use safe thickness-graded films with force and 3D shape imaging.","contrary":"The thinnest edge always detaches first.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0457","title":"Capillary lift-off asymmetry","question":"Can a flexible film detach from water first at its thicker edge because bending redistributes capillary load?","prediction":"Measured lift order reverses a weight-only prediction.","test":"Use safe thickness-graded films with force and 3D shape imaging.","contrary_outcome":"The thinnest edge always detaches first.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0458","id":"S3-0458","volume":"900v3","title":"Liquid contact thermal map","prediction":"Thermal conductance excludes optically dark trapped-air pockets.","test":"Use safe water contacts with calibrated heat pulses and independent interferometry.","contrary":"Thermal and optical areas agree without hidden-area correction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0458","title":"Liquid contact thermal map","question":"Can a wetted contact's temperature identify its true liquid-solid area better than its optical footprint?","prediction":"Thermal conductance excludes optically dark trapped-air pockets.","test":"Use safe water contacts with calibrated heat pulses and independent interferometry.","contrary_outcome":"Thermal and optical areas agree without hidden-area correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0459","id":"S3-0459","volume":"900v3","title":"Vortex coalescence tracer trap","prediction":"Tracer exchange remains low across a persisting transport boundary.","test":"Use safe water flows with dense particle tracking and vorticity maps.","contrary":"Mixing becomes rapid as soon as vorticity peaks merge.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0459","title":"Vortex coalescence tracer trap","question":"Can two merging vortices retain a material barrier after their vorticity fields appear unified?","prediction":"Tracer exchange remains low across a persisting transport boundary.","test":"Use safe water flows with dense particle tracking and vorticity maps.","contrary_outcome":"Mixing becomes rapid as soon as vorticity peaks merge.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0460","id":"S3-0460","volume":"900v3","title":"Porous siphon restart gate","prediction":"Pressure steps first compress gas rather than move liquid.","test":"Use safe transparent water siphons with pressure and bubble-volume measurements.","contrary":"Restart failure requires a broken liquid path.","layers":[1,2],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0460","title":"Porous siphon restart gate","question":"Can a siphon fail to restart despite continuous liquid because trapped gas compressibility absorbs the pressure head?","prediction":"Pressure steps first compress gas rather than move liquid.","test":"Use safe transparent water siphons with pressure and bubble-volume measurements.","contrary_outcome":"Restart failure requires a broken liquid path.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0460","title":"Porous siphon restart gate","question":"Can a siphon fail to restart despite continuous liquid because trapped gas compressibility absorbs the pressure head?","prediction":"Pressure steps first compress gas rather than move liquid.","test":"Use safe transparent water siphons with pressure and bubble-volume measurements.","contrary_outcome":"Restart failure requires a broken liquid path.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a siphon fail to restart despite continuous liquid because trapped gas compressibility absorbs the pressure head experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0461","id":"S3-0461","volume":"900v3","title":"Droplet shape thermal degeneracy","prediction":"Mass-loss rates differ with measured subsurface gradients despite matched surfaces.","test":"Use safe water droplets with calibrated thermal imaging and embedded optical thermometry.","contrary":"Evaporation depends only on surface geometry and temperature.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0461","title":"Droplet shape thermal degeneracy","question":"Can equal droplet outlines hide different internal temperature fields that yield different evaporation rates?","prediction":"Mass-loss rates differ with measured subsurface gradients despite matched surfaces.","test":"Use safe water droplets with calibrated thermal imaging and embedded optical thermometry.","contrary_outcome":"Evaporation depends only on surface geometry and temperature.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0462","id":"S3-0462","volume":"900v3","title":"Liquid-sheet momentum sorting","prediction":"Alternating transverse velocities produce net lateral impulse at a boundary.","test":"Measure safe water sheets with thickness and 3D velocity maps.","contrary":"Momentum balance requires unmeasured thickness growth.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0462","title":"Liquid-sheet momentum sorting","question":"Can a corrugated sheet redirect momentum laterally without increasing mean sheet thickness?","prediction":"Alternating transverse velocities produce net lateral impulse at a boundary.","test":"Measure safe water sheets with thickness and 3D velocity maps.","contrary_outcome":"Momentum balance requires unmeasured thickness growth.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0463","id":"S3-0463","volume":"900v3","title":"Bubble nucleation optical artifact","prediction":"Objects vanish under modest pressure restoration while crystals persist.","test":"Use safe brine films with polarization imaging and controlled low-pressure steps.","contrary":"All apparent nuclei show crystalline signatures and remain pressure-stable.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0463","title":"Bubble nucleation optical artifact","question":"Can dissolved-gas release masquerade as crystal nucleation in a drying salt film?","prediction":"Objects vanish under modest pressure restoration while crystals persist.","test":"Use safe brine films with polarization imaging and controlled low-pressure steps.","contrary_outcome":"All apparent nuclei show crystalline signatures and remain pressure-stable.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0464","id":"S3-0464","volume":"900v3","title":"Capillary bridge evaporation asymmetry","prediction":"Interface recession rates differ and reverse when shielding is swapped.","test":"Use safe water bridges with vapor-field mapping and calibrated geometry.","contrary":"Rates are equal after curvature and temperature matching.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0464","title":"Capillary bridge evaporation asymmetry","question":"Can equal-temperature plates sustain unequal evaporation from opposite sides of a bridge because of vapor access?","prediction":"Interface recession rates differ and reverse when shielding is swapped.","test":"Use safe water bridges with vapor-field mapping and calibrated geometry.","contrary_outcome":"Rates are equal after curvature and temperature matching.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0465","id":"S3-0465","volume":"900v3","title":"Pore front acoustic speedup","prediction":"Individual capillary bridges stiffen contacts before hydraulic percolation.","test":"Measure safe granular packs with imaging, low-power sound and flow tests.","contrary":"Speed increases only after liquid connectivity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0465","title":"Pore front acoustic speedup","question":"Can partial wetting increase acoustic speed before forming a connected liquid path?","prediction":"Individual capillary bridges stiffen contacts before hydraulic percolation.","test":"Measure safe granular packs with imaging, low-power sound and flow tests.","contrary_outcome":"Speed increases only after liquid connectivity.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0466","id":"S3-0466","volume":"900v3","title":"Liquid slug thermal memory","prediction":"Wall temperature profiles depend on travel direction history.","test":"Use safe water slugs in transparent channels with full thermal mapping.","contrary":"Wake profiles depend only on instantaneous slug temperature.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0466","title":"Liquid slug thermal memory","question":"Can a slug retain a different thermal wake after reverse travel despite equal mean temperature?","prediction":"Wall temperature profiles depend on travel direction history.","test":"Use safe water slugs in transparent channels with full thermal mapping.","contrary_outcome":"Wake profiles depend only on instantaneous slug temperature.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0467","id":"S3-0467","volume":"900v3","title":"Foam curvature force census","prediction":"Independent tension measurements close the force balance only with spatial variation included.","test":"Use benign foam with calibrated film tensions and boundary load cells.","contrary":"Uniform tension reconstructs force equally well.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0467","title":"Foam curvature force census","question":"Can local bubble curvature reconstruct boundary force without assuming uniform film tension?","prediction":"Independent tension measurements close the force balance only with spatial variation included.","test":"Use benign foam with calibrated film tensions and boundary load cells.","contrary_outcome":"Uniform tension reconstructs force equally well.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0468","id":"S3-0468","volume":"900v3","title":"Capillary root trapping","prediction":"Residual films make the branch a refill source.","test":"Use safe transparent branching networks with volume and front-speed tracking.","contrary":"Dead ends only slow both drainage and refill.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0468","title":"Capillary root trapping","question":"Can a branching channel's dead end trap liquid during drainage but accelerate subsequent refilling?","prediction":"Residual films make the branch a refill source.","test":"Use safe transparent branching networks with volume and front-speed tracking.","contrary_outcome":"Dead ends only slow both drainage and refill.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0469","id":"S3-0469","volume":"900v3","title":"Droplet noncontact coupling","prediction":"Flow phase locking persists when solid vibration and liquid connections are excluded.","test":"Use safe isolated water drops with humidity mapping and mechanically separated supports.","contrary":"Synchronization disappears after shared temperature noise correction.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0469","title":"Droplet noncontact coupling","question":"Can two evaporating drops synchronize internal flow oscillations through vapor coupling alone?","prediction":"Flow phase locking persists when solid vibration and liquid connections are excluded.","test":"Use safe isolated water drops with humidity mapping and mechanically separated supports.","contrary_outcome":"Synchronization disappears after shared temperature noise correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0470","id":"S3-0470","volume":"900v3","title":"Liquid meniscus inertia census","prediction":"Early acceleration identifies inertia while late velocity identifies friction.","test":"Use safe calibrated capillaries and independently measured pressure pulses.","contrary":"Both parameters remain correlated in the measured response.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0470","title":"Liquid meniscus inertia census","question":"Can a short pressure impulse distinguish liquid inertia from contact-line friction when steady motion cannot?","prediction":"Early acceleration identifies inertia while late velocity identifies friction.","test":"Use safe calibrated capillaries and independently measured pressure pulses.","contrary_outcome":"Both parameters remain correlated in the measured response.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0470","title":"Liquid meniscus inertia census","question":"Can a short pressure impulse distinguish liquid inertia from contact-line friction when steady motion cannot?","prediction":"Early acceleration identifies inertia while late velocity identifies friction.","test":"Use safe calibrated capillaries and independently measured pressure pulses.","contrary_outcome":"Both parameters remain correlated in the measured response.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a short pressure impulse distinguish liquid inertia from contact-line friction when steady motion cannot experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0471","id":"S3-0471","volume":"900v3","title":"Bubble pinning direction","prediction":"Geometric deformation creates direction-dependent depinning thresholds.","test":"Use safe water flow over mirrored ridges with bubble-shape reconstruction.","contrary":"Thresholds are reciprocal after local flow matching.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0471","title":"Bubble pinning direction","question":"Can a patterned ridge pin a bubble differently under reversed liquid flow without chemical asymmetry?","prediction":"Geometric deformation creates direction-dependent depinning thresholds.","test":"Use safe water flow over mirrored ridges with bubble-shape reconstruction.","contrary_outcome":"Thresholds are reciprocal after local flow matching.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0472","id":"S3-0472","volume":"900v3","title":"Foam sound-speed anisotropy","prediction":"Liquid-channel orientation changes sound speed before shape anisotropy resolves.","test":"Measure benign foam with directional acoustics and 3D imaging.","contrary":"Anisotropy begins only after bubble deformation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0472","title":"Foam sound-speed anisotropy","question":"Can draining foam become acoustically anisotropic before bubbles visibly elongate?","prediction":"Liquid-channel orientation changes sound speed before shape anisotropy resolves.","test":"Measure benign foam with directional acoustics and 3D imaging.","contrary_outcome":"Anisotropy begins only after bubble deformation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0473","id":"S3-0473","volume":"900v3","title":"Capillary coalescence heat","prediction":"Pulse energy scales with the measured lost interface area.","test":"Use safe microbridges with sensitive thermometry and mechanical-work accounting.","contrary":"No pulse exceeds uncertainty or energy scales with external work.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0473","title":"Capillary coalescence heat","question":"Can joining two water menisci release enough surface energy to produce a calibrated local temperature pulse?","prediction":"Pulse energy scales with the measured lost interface area.","test":"Use safe microbridges with sensitive thermometry and mechanical-work accounting.","contrary_outcome":"No pulse exceeds uncertainty or energy scales with external work.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0474","id":"S3-0474","volume":"900v3","title":"Liquid channel compliance cloak","prediction":"Steady resistance matches while transient pressure contains a blockage-specific delay.","test":"Use safe transparent water channels with calibrated chambers and hidden inserts.","contrary":"Pulse response is also indistinguishable.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0474","title":"Liquid channel compliance cloak","question":"Can a side chamber hide a blockage in steady pressure-flow tests but reveal it under pulses?","prediction":"Steady resistance matches while transient pressure contains a blockage-specific delay.","test":"Use safe transparent water channels with calibrated chambers and hidden inserts.","contrary_outcome":"Pulse response is also indistinguishable.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0475","id":"S3-0475","volume":"900v3","title":"Bubble-mediated tracer conveyor","prediction":"Repeated contact-line capture carries tracers against the measured mean flow.","test":"Track safe inert tracers, bubble edges and liquid velocities in a transparent water channel.","contrary":"Tracer transport follows liquid advection or requires a net reverse flow.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0475","title":"Bubble-mediated tracer conveyor","question":"Can a migrating air pocket transport an insoluble tracer upstream without net reverse liquid flow?","prediction":"Repeated contact-line capture carries tracers against the measured mean flow.","test":"Track safe inert tracers, bubble edges and liquid velocities in a transparent water channel.","contrary_outcome":"Tracer transport follows liquid advection or requires a net reverse flow.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0476","id":"S3-0476","volume":"900v3","title":"Porous airflow humidity lag","prediction":"Reversible wall sorption delays humidity while mass balance closes.","test":"Use safe air-water vapor in inert porous beds with traceable humidity sensors.","contrary":"Delay is explained entirely by sensor response.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0476","title":"Porous airflow humidity lag","question":"Can a humidity pulse travel slower than an inert gas pulse without net water accumulation over a full cycle?","prediction":"Reversible wall sorption delays humidity while mass balance closes.","test":"Use safe air-water vapor in inert porous beds with traceable humidity sensors.","contrary_outcome":"Delay is explained entirely by sensor response.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0477","id":"S3-0477","volume":"900v3","title":"Liquid bridge force bifurcation","prediction":"Contact-line relocation creates two reproducible force states.","test":"Use safe water bridges with independently imposed pinning sites.","contrary":"Force is single-valued once geometry is fully measured.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0477","title":"Liquid bridge force bifurcation","question":"Can bridge force jump between stable branches at fixed volume and separation?","prediction":"Contact-line relocation creates two reproducible force states.","test":"Use safe water bridges with independently imposed pinning sites.","contrary_outcome":"Force is single-valued once geometry is fully measured.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0478","id":"S3-0478","volume":"900v3","title":"Bubble-induced pore drainage","prediction":"Transient suction at the bubble tail drains the pore.","test":"Use safe transparent water-air networks with local pressure and interface imaging.","contrary":"Drainage requires a favorable mean pressure gradient.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0478","title":"Bubble-induced pore drainage","question":"Can a passing gas bubble empty a side pore against the mean pressure gradient?","prediction":"Transient suction at the bubble tail drains the pore.","test":"Use safe transparent water-air networks with local pressure and interface imaging.","contrary_outcome":"Drainage requires a favorable mean pressure gradient.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0479","id":"S3-0479","volume":"900v3","title":"Capillary pressure variance","prediction":"Loop structure changes drainage burst tails.","test":"Use safe transparent networks with matched throat thresholds and independent topology.","contrary":"Burst statistics collapse after mean-pressure matching.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0479","title":"Capillary pressure variance","question":"Can two porous samples share mean entry pressure but differ in burst-size distributions because of connectivity?","prediction":"Loop structure changes drainage burst tails.","test":"Use safe transparent networks with matched throat thresholds and independent topology.","contrary_outcome":"Burst statistics collapse after mean-pressure matching.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0480","id":"S3-0480","volume":"900v3","title":"Droplet thermal-lens sign","prediction":"Refractive-index gradients overwhelm geometric focusing.","test":"Use safe liquids with calibrated index-temperature response and phase imaging.","contrary":"Lens sign follows only surface curvature.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0480","title":"Droplet thermal-lens sign","question":"Can an evaporating drop's optical lens change sign while its geometric curvature keeps one sign?","prediction":"Refractive-index gradients overwhelm geometric focusing.","test":"Use safe liquids with calibrated index-temperature response and phase imaging.","contrary_outcome":"Lens sign follows only surface curvature.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0480","title":"Droplet thermal-lens sign","question":"Can an evaporating drop's optical lens change sign while its geometric curvature keeps one sign?","prediction":"Refractive-index gradients overwhelm geometric focusing.","test":"Use safe liquids with calibrated index-temperature response and phase imaging.","contrary_outcome":"Lens sign follows only surface curvature.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can an evaporating drop's optical lens change sign while its geometric curvature keeps one sign experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0481","id":"S3-0481","volume":"900v3","title":"Liquid foam boundary friction","prediction":"Pressure work localizes at the wall under matched bulk deformation.","test":"Use benign foam channels with wall-motion and film-tracking measurements.","contrary":"Internal rearrangement rate predicts all pressure loss.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0481","title":"Liquid foam boundary friction","question":"Can wall slip dominate foam pressure loss even when internal rearrangements are frequent?","prediction":"Pressure work localizes at the wall under matched bulk deformation.","test":"Use benign foam channels with wall-motion and film-tracking measurements.","contrary_outcome":"Internal rearrangement rate predicts all pressure loss.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0482","id":"S3-0482","volume":"900v3","title":"Capillary network leak detection","prediction":"Leak compliance produces a phase anomaly with a location-specific delay.","test":"Use safe water networks with calibrated microleaks and blinded inversion.","contrary":"Phase changes remain below uncertainty or nonlocalizable.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0482","title":"Capillary network leak detection","question":"Can an alternating pressure probe locate a tiny leak that does not alter DC flow measurably?","prediction":"Leak compliance produces a phase anomaly with a location-specific delay.","test":"Use safe water networks with calibrated microleaks and blinded inversion.","contrary_outcome":"Phase changes remain below uncertainty or nonlocalizable.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0483","id":"S3-0483","volume":"900v3","title":"Bubble radius-history damping","prediction":"Damping retains a preparation-dependent component at matched radius and gas content.","test":"Use safe water-air bubbles with benign surfactant control and weak acoustic drive.","contrary":"Damping is determined solely by radius and temperature.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0483","title":"Bubble radius-history damping","question":"Can bubbles with equal radius have different damping because their surface adsorption histories differ?","prediction":"Damping retains a preparation-dependent component at matched radius and gas content.","test":"Use safe water-air bubbles with benign surfactant control and weak acoustic drive.","contrary_outcome":"Damping is determined solely by radius and temperature.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0484","id":"S3-0484","volume":"900v3","title":"Liquid film cooling instability","prediction":"Viscosity damps shape waves while thermal diffusion leaves stronger temperature variance.","test":"Measure safe water-film height and temperature under controlled cooling.","contrary":"Both variances change together after forcing is matched.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0484","title":"Liquid film cooling instability","question":"Can cooling stabilize a flowing film geometrically while making its temperature fluctuations larger?","prediction":"Viscosity damps shape waves while thermal diffusion leaves stronger temperature variance.","test":"Measure safe water-film height and temperature under controlled cooling.","contrary_outcome":"Both variances change together after forcing is matched.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0485","id":"S3-0485","volume":"900v3","title":"Porous evaporation localization","prediction":"Peak vapor flux relocates beyond the nearest-neighbor region.","test":"Use safe water-wet transparent porous plates with spatial vapor mapping.","contrary":"Flux changes remain local or track external airflow.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0485","title":"Porous evaporation localization","question":"Can a local pore blockage move the evaporation maximum far from the blockage through network pressure redistribution?","prediction":"Peak vapor flux relocates beyond the nearest-neighbor region.","test":"Use safe water-wet transparent porous plates with spatial vapor mapping.","contrary_outcome":"Flux changes remain local or track external airflow.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0486","id":"S3-0486","volume":"900v3","title":"Droplet torsion recoil","prediction":"Stored interfacial deformation generates counter-rotation of substrate and liquid.","test":"Use safe restrained substrates with torque and internal tracer measurements.","contrary":"Rotation requires an external torque during release.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0486","title":"Droplet torsion recoil","question":"Can a drop released from a twisted contact patch rotate despite zero imposed angular impulse at release?","prediction":"Stored interfacial deformation generates counter-rotation of substrate and liquid.","test":"Use safe restrained substrates with torque and internal tracer measurements.","contrary_outcome":"Rotation requires an external torque during release.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0487","id":"S3-0487","volume":"900v3","title":"Liquid bridge optical degeneracy","prediction":"Force difference correlates with bottom-view contact topology.","test":"Use safe water bridges with synchronized orthogonal imaging and load sensing.","contrary":"Silhouette geometry alone predicts force.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0487","title":"Liquid bridge optical degeneracy","question":"Can two bridges with identical silhouettes have different force because their hidden contact patches differ?","prediction":"Force difference correlates with bottom-view contact topology.","test":"Use safe water bridges with synchronized orthogonal imaging and load sensing.","contrary_outcome":"Silhouette geometry alone predicts force.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0488","id":"S3-0488","volume":"900v3","title":"Capillary drainage temperature sign","prediction":"Changed wetting hysteresis raises capillary barriers more than viscosity lowers drag.","test":"Use safe water beds with independently measured viscosity and contact-angle distributions.","contrary":"Drainage always accelerates after viscosity correction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0488","title":"Capillary drainage temperature sign","question":"Can warming a porous bed slow drainage over a narrow range despite lower liquid viscosity?","prediction":"Changed wetting hysteresis raises capillary barriers more than viscosity lowers drag.","test":"Use safe water beds with independently measured viscosity and contact-angle distributions.","contrary_outcome":"Drainage always accelerates after viscosity correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0489","id":"S3-0489","volume":"900v3","title":"Bubble crossing boundary memory","prediction":"Adsorbed material changes later oscillation damping downstream.","test":"Use safe dilute surfactant patches with surface markers and clean-region controls.","contrary":"Response immediately returns to the clean-bubble baseline.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0489","title":"Bubble crossing boundary memory","question":"Can a bubble retain an altered shape response after crossing a thin surfactant patch?","prediction":"Adsorbed material changes later oscillation damping downstream.","test":"Use safe dilute surfactant patches with surface markers and clean-region controls.","contrary_outcome":"Response immediately returns to the clean-bubble baseline.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0490","id":"S3-0490","volume":"900v3","title":"Liquid vortex contact-line force","prediction":"Pressure redistribution changes force before depinning.","test":"Use safe water flows and force-sensed drops with synchronized velocimetry.","contrary":"Force changes require contact-line motion.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0490","title":"Liquid vortex contact-line force","question":"Can a submerged vortex shift a pinned droplet's contact force without moving its contact line?","prediction":"Pressure redistribution changes force before depinning.","test":"Use safe water flows and force-sensed drops with synchronized velocimetry.","contrary_outcome":"Force changes require contact-line motion.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0490","title":"Liquid vortex contact-line force","question":"Can a submerged vortex shift a pinned droplet's contact force without moving its contact line?","prediction":"Pressure redistribution changes force before depinning.","test":"Use safe water flows and force-sensed drops with synchronized velocimetry.","contrary_outcome":"Force changes require contact-line motion.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a submerged vortex shift a pinned droplet's contact force without moving its contact line experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0491","id":"S3-0491","volume":"900v3","title":"Foam thermal conductivity topology","prediction":"Connected channels carry more heat at matched liquid fraction.","test":"Use benign stable foams with topology imaging and guarded heat-flow measurements.","contrary":"Density and liquid fraction alone explain conductivity.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0491","title":"Foam thermal conductivity topology","question":"Can equal-density foams have different thermal conductivity because liquid channels are differently connected?","prediction":"Connected channels carry more heat at matched liquid fraction.","test":"Use benign stable foams with topology imaging and guarded heat-flow measurements.","contrary_outcome":"Density and liquid fraction alone explain conductivity.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0492","id":"S3-0492","volume":"900v3","title":"Capillary switch reset energy","prediction":"Measured pressure-volume work is hysteretic and path-specific.","test":"Use safe water microchannels with complete pressure-volume cycles.","contrary":"Reset and trigger work agree after viscous losses are removed.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0492","title":"Capillary switch reset energy","question":"Can resetting a passive capillary valve require more energy than triggering it because the meniscus follows another path?","prediction":"Measured pressure-volume work is hysteretic and path-specific.","test":"Use safe water microchannels with complete pressure-volume cycles.","contrary_outcome":"Reset and trigger work agree after viscous losses are removed.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0493","id":"S3-0493","volume":"900v3","title":"Droplet impact gas cushioning","prediction":"Early contact is delayed while later inertial spreading converges.","test":"Use safe water impacts in benign gas mixtures at modest pressure with interferometric contact imaging.","contrary":"Both early and late dynamics change together.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0493","title":"Droplet impact gas cushioning","question":"Can changing ambient gas viscosity alter first-contact timing without changing later spread radius?","prediction":"Early contact is delayed while later inertial spreading converges.","test":"Use safe water impacts in benign gas mixtures at modest pressure with interferometric contact imaging.","contrary_outcome":"Both early and late dynamics change together.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0494","id":"S3-0494","volume":"900v3","title":"Liquid meniscus translation symmetry","prediction":"Capillary energy has a measurable local minimum in position.","test":"Use safe water plugs in calibrated symmetric tapers with force measurements.","contrary":"Plugs drift monotonically toward one end.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0494","title":"Liquid meniscus translation symmetry","question":"Can a chemically uniform but geometrically tapered channel generate a restoring position for a liquid plug?","prediction":"Capillary energy has a measurable local minimum in position.","test":"Use safe water plugs in calibrated symmetric tapers with force measurements.","contrary_outcome":"Plugs drift monotonically toward one end.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0495","id":"S3-0495","volume":"900v3","title":"Porous pressure pulse attenuation","prediction":"Distributed compressibility broadens the pulse through multiple exchange times.","test":"Use safe transparent networks with controlled air inventories and pressure arrays.","contrary":"Only total gas volume determines attenuation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0495","title":"Porous pressure pulse attenuation","question":"Can gas-filled pores attenuate a liquid pressure pulse more than an equal total gas volume in one chamber?","prediction":"Distributed compressibility broadens the pulse through multiple exchange times.","test":"Use safe transparent networks with controlled air inventories and pressure arrays.","contrary_outcome":"Only total gas volume determines attenuation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0496","id":"S3-0496","volume":"900v3","title":"Bubble chain phase sorting","prediction":"Neighbor coupling breaks the isolated-resonance phase ranking.","test":"Use safe air-water bubble arrays with weak sound and radius calibration.","contrary":"Phases remain ordered by isolated bubble size.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0496","title":"Bubble chain phase sorting","question":"Can coupled bubbles of different sizes arrange response phases nonmonotonically along a size-ordered chain?","prediction":"Neighbor coupling breaks the isolated-resonance phase ranking.","test":"Use safe air-water bubble arrays with weak sound and radius calibration.","contrary_outcome":"Phases remain ordered by isolated bubble size.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0497","id":"S3-0497","volume":"900v3","title":"Liquid film strain slip","prediction":"Surface strain creates a pressure gradient that exceeds viscous drag.","test":"Use safe water films on stretchable substrates with full velocity and shape maps.","contrary":"Liquid velocity never reverses after reference-frame correction.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0497","title":"Liquid film strain slip","question":"Can stretching a wet substrate transport liquid opposite the substrate motion locally?","prediction":"Surface strain creates a pressure gradient that exceeds viscous drag.","test":"Use safe water films on stretchable substrates with full velocity and shape maps.","contrary_outcome":"Liquid velocity never reverses after reference-frame correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0498","id":"S3-0498","volume":"900v3","title":"Capillary evaporation pressure bias","prediction":"Drying time depends on port volume at equal sensor calibration.","test":"Use safe water pore models with optical pressure proxies and varied port sizes.","contrary":"Drying is port-independent within uncertainty.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0498","title":"Capillary evaporation pressure bias","question":"Can a pressure sensor's wetted port bias the drying process through its own capillary reservoir?","prediction":"Drying time depends on port volume at equal sensor calibration.","test":"Use safe water pore models with optical pressure proxies and varied port sizes.","contrary_outcome":"Drying is port-independent within uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0499","id":"S3-0499","volume":"900v3","title":"Droplet merging optical clock","prediction":"A high-frequency scattering change precedes resolved neck growth.","test":"Use safe water-drop pairs with calibrated detector timing and interferometric reference.","contrary":"Scattering changes only after visible neck formation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0499","title":"Droplet merging optical clock","question":"Can a low-power scattering signal locate the instant of first liquid contact more precisely than silhouette imaging?","prediction":"A high-frequency scattering change precedes resolved neck growth.","test":"Use safe water-drop pairs with calibrated detector timing and interferometric reference.","contrary_outcome":"Scattering changes only after visible neck formation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0500","id":"S3-0500","volume":"900v3","title":"Pore moisture acoustic inversion","prediction":"The two observables identify independently imaged state variables.","test":"Use inert safe water-wet packs with low-power sound and low-voltage current limits.","contrary":"Both observables respond to only one combined moisture variable.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0500","title":"Pore moisture acoustic inversion","question":"Can acoustic attenuation and static resistance jointly separate wet-contact fraction from liquid connectivity?","prediction":"The two observables identify independently imaged state variables.","test":"Use inert safe water-wet packs with low-power sound and low-voltage current limits.","contrary_outcome":"Both observables respond to only one combined moisture variable.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0500","title":"Pore moisture acoustic inversion","question":"Can acoustic attenuation and static resistance jointly separate wet-contact fraction from liquid connectivity?","prediction":"The two observables identify independently imaged state variables.","test":"Use inert safe water-wet packs with low-power sound and low-voltage current limits.","contrary_outcome":"Both observables respond to only one combined moisture variable.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can acoustic attenuation and static resistance jointly separate wet-contact fraction from liquid connectivity experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0501","id":"S3-0501","volume":"900v3","title":"Magnetic eddy-current depth","prediction":"Late decay changes with gradient direction at fixed sheet resistance.","test":"Measure safe low-field coil responses of reversed layered conductors.","contrary":"Reversing layers leaves calibrated decay unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0501","title":"Magnetic eddy-current depth","question":"Can pulse asymmetry locate a buried conductivity gradient?","prediction":"Late decay changes with gradient direction at fixed sheet resistance.","test":"Measure safe low-field coil responses of reversed layered conductors.","contrary_outcome":"Reversing layers leaves calibrated decay unchanged.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0502","id":"S3-0502","volume":"900v3","title":"Coil mechanical microphony","prediction":"Signal phase follows coil motion rather than specimen magnetization.","test":"Record low-field pickup voltage and laser vibrometry with inert controls.","contrary":"The signal persists without measurable coil motion.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0502","title":"Coil mechanical microphony","question":"Can coil vibration imitate magnetic relaxation?","prediction":"Signal phase follows coil motion rather than specimen magnetization.","test":"Record low-field pickup voltage and laser vibrometry with inert controls.","contrary_outcome":"The signal persists without measurable coil motion.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0503","id":"S3-0503","volume":"900v3","title":"Conductive loop slit","prediction":"Shielding loss tracks slit capacitance at the probe frequency.","test":"Measure low-field transfer and four-terminal resistance across adjustable safe gaps.","contrary":"Shielding depends only on DC resistance.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0503","title":"Conductive loop slit","question":"Can a microscopic slit suppress magnetic shielding before DC continuity fails?","prediction":"Shielding loss tracks slit capacitance at the probe frequency.","test":"Measure low-field transfer and four-terminal resistance across adjustable safe gaps.","contrary_outcome":"Shielding depends only on DC resistance.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0504","id":"S3-0504","volume":"900v3","title":"Magnetic force balance bias","prediction":"Apparent magnetic force remains with a nonmagnetic thermal dummy.","test":"Compare calibrated low-field samples and thermally matched dummies.","contrary":"Only magnetic samples show the shift.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0504","title":"Magnetic force balance bias","question":"Can a temperature gradient shift a force-balance zero through support expansion?","prediction":"Apparent magnetic force remains with a nonmagnetic thermal dummy.","test":"Compare calibrated low-field samples and thermally matched dummies.","contrary_outcome":"Only magnetic samples show the shift.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0505","id":"S3-0505","volume":"900v3","title":"Low-field hysteresis separation","prediction":"Sample-dependent lag survives independently measured electronics correction.","test":"Measure benign magnetic standards with reversed sweeps and reference coils.","contrary":"All lag matches instrument response.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0505","title":"Low-field hysteresis separation","question":"Can two sweep rates separate magnetic viscosity from instrument lag?","prediction":"Sample-dependent lag survives independently measured electronics correction.","test":"Measure benign magnetic standards with reversed sweeps and reference coils.","contrary_outcome":"All lag matches instrument response.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0506","id":"S3-0506","volume":"900v3","title":"Eddy-current crack orientation","prediction":"Joint phases identify calibrated defects missed by amplitude alone.","test":"Scan safe machined conductors with low-field orthogonal probes.","contrary":"Depth and angle remain degenerate.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0506","title":"Eddy-current crack orientation","question":"Can orthogonal coil phases distinguish crack depth from orientation?","prediction":"Joint phases identify calibrated defects missed by amplitude alone.","test":"Scan safe machined conductors with low-field orthogonal probes.","contrary_outcome":"Depth and angle remain degenerate.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0507","id":"S3-0507","volume":"900v3","title":"Magnetic particle contact locking","prediction":"Conductance changes follow contact-chain orientation at fixed volume.","test":"Use inert magnetic beads, modest fields and thermal mapping.","contrary":"Density or field-induced heating explains all changes.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0507","title":"Magnetic particle contact locking","question":"Can weak magnetic alignment alter granular heat flow without changing density?","prediction":"Conductance changes follow contact-chain orientation at fixed volume.","test":"Use inert magnetic beads, modest fields and thermal mapping.","contrary_outcome":"Density or field-induced heating explains all changes.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0508","id":"S3-0508","volume":"900v3","title":"Capacitive gap averaging","prediction":"Capacitance derivatives distinguish the matched gaps.","test":"Use safe low-voltage calibrated plate gaps with tilt metrology.","contrary":"Derivatives match after fringe corrections.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0508","title":"Capacitive gap averaging","question":"Can a tilted gap share capacitance with a parallel gap yet differ in force sensitivity?","prediction":"Capacitance derivatives distinguish the matched gaps.","test":"Use safe low-voltage calibrated plate gaps with tilt metrology.","contrary_outcome":"Derivatives match after fringe corrections.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0509","id":"S3-0509","volume":"900v3","title":"Dielectric humidity inversion","prediction":"Band amplitudes follow independently measured water locations.","test":"Measure benign hydrated porous standards with current-limited spectroscopy.","contrary":"Only total water content predicts both bands.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0509","title":"Dielectric humidity inversion","question":"Can two relaxation bands separate surface water from pore water?","prediction":"Band amplitudes follow independently measured water locations.","test":"Measure benign hydrated porous standards with current-limited spectroscopy.","contrary_outcome":"Only total water content predicts both bands.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0510","id":"S3-0510","volume":"900v3","title":"Thermoelectric lead reversal","prediction":"Parasitic lead junctions reverse the measured slope.","test":"Use traceable low-temperature gradients and four lead-anchor arrangements.","contrary":"Sign survives complete lead correction.","layers":[1,2],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0510","title":"Thermoelectric lead reversal","question":"Can swapping thermal anchors change apparent Seebeck sign without changing the sample?","prediction":"Parasitic lead junctions reverse the measured slope.","test":"Use traceable low-temperature gradients and four lead-anchor arrangements.","contrary_outcome":"Sign survives complete lead correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0510","title":"Thermoelectric lead reversal","question":"Can swapping thermal anchors change apparent Seebeck sign without changing the sample?","prediction":"Parasitic lead junctions reverse the measured slope.","test":"Use traceable low-temperature gradients and four lead-anchor arrangements.","contrary_outcome":"Sign survives complete lead correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can swapping thermal anchors change apparent Seebeck sign without changing the sample experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0511","id":"S3-0511","volume":"900v3","title":"Inductive displacement alias","prediction":"A second frequency separates known displacement from temperature drift.","test":"Test safe metal targets with independent optical displacement.","contrary":"The two causes remain indistinguishable.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0511","title":"Inductive displacement alias","question":"Can conductivity drift masquerade as motion in an inductive sensor?","prediction":"A second frequency separates known displacement from temperature drift.","test":"Test safe metal targets with independent optical displacement.","contrary_outcome":"The two causes remain indistinguishable.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0512","id":"S3-0512","volume":"900v3","title":"Resistive strain lag","prediction":"Gauge strain redistributes before the optical average changes.","test":"Compare bonded gauges and full-field optical strain under safe loads.","contrary":"Electrical strain only follows optical strain.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0512","title":"Resistive strain lag","question":"Can adhesive creep make electrical strain lead mechanical surface strain locally?","prediction":"Gauge strain redistributes before the optical average changes.","test":"Compare bonded gauges and full-field optical strain under safe loads.","contrary_outcome":"Electrical strain only follows optical strain.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0513","id":"S3-0513","volume":"900v3","title":"Contact potential airflow","prediction":"Voltage shifts disappear after local junction-temperature correction.","test":"Use safe low-voltage contacts with thermometry and shielded airflow controls.","contrary":"Residual shifts exceed thermal uncertainty.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0513","title":"Contact potential airflow","question":"Can airflow-induced cooling mimic a changing contact potential?","prediction":"Voltage shifts disappear after local junction-temperature correction.","test":"Use safe low-voltage contacts with thermometry and shielded airflow controls.","contrary_outcome":"Residual shifts exceed thermal uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0514","id":"S3-0514","volume":"900v3","title":"Eddy-current lateral bottleneck","prediction":"Decay time changes strongly when the neck is cut.","test":"Compare low-field responses of matched conductive loops.","contrary":"Decay follows total conductive volume alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0514","title":"Eddy-current lateral bottleneck","question":"Can a narrow conductive neck dominate magnetic decay despite negligible volume?","prediction":"Decay time changes strongly when the neck is cut.","test":"Compare low-field responses of matched conductive loops.","contrary_outcome":"Decay follows total conductive volume alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0515","id":"S3-0515","volume":"900v3","title":"Dielectric pore anisotropy","prediction":"Connectivity changes the directional relaxation spectrum.","test":"Measure benign safe porous standards with matched composition and water.","contrary":"Porosity alone predicts dielectric response.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0515","title":"Dielectric pore anisotropy","question":"Can equal-porosity samples show different low-frequency permittivity because pores connect differently?","prediction":"Connectivity changes the directional relaxation spectrum.","test":"Measure benign safe porous standards with matched composition and water.","contrary_outcome":"Porosity alone predicts dielectric response.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0516","id":"S3-0516","volume":"900v3","title":"Magnetic shielding seam preload","prediction":"Shielding recovers with seam conductance at constant bulk magnetization.","test":"Measure modest-field enclosures with contact and magnetic probes.","contrary":"Bulk permeability explains the entire response.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0516","title":"Magnetic shielding seam preload","question":"Can mechanical preload alter low-field shielding through seam contact rather than permeability?","prediction":"Shielding recovers with seam conductance at constant bulk magnetization.","test":"Measure modest-field enclosures with contact and magnetic probes.","contrary_outcome":"Bulk permeability explains the entire response.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0517","id":"S3-0517","volume":"900v3","title":"Thermoelectric transient sign","prediction":"Unequal heat diffusion creates sequential junction dominance.","test":"Pulse mild heating in safe calibrated multi-junction circuits.","contrary":"No reversal survives instrument-offset correction.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0517","title":"Thermoelectric transient sign","question":"Can a transient thermovoltage reverse sign although steady Seebeck coefficients do not?","prediction":"Unequal heat diffusion creates sequential junction dominance.","test":"Pulse mild heating in safe calibrated multi-junction circuits.","contrary_outcome":"No reversal survives instrument-offset correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0518","id":"S3-0518","volume":"900v3","title":"Capacitor plate warping","prediction":"Optical gap change accounts for the capacitance nonlinearity.","test":"Measure compliant plates with current limits and displacement interferometry.","contrary":"Capacitance changes without corresponding geometry changes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0518","title":"Capacitor plate warping","question":"Can voltage-dependent capacitance arise from mechanical bending at safely low voltage?","prediction":"Optical gap change accounts for the capacitance nonlinearity.","test":"Measure compliant plates with current limits and displacement interferometry.","contrary_outcome":"Capacitance changes without corresponding geometry changes.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0519","id":"S3-0519","volume":"900v3","title":"Magnetic fluid settling","prediction":"Heat conductance changes with chain formation at constant concentration profile.","test":"Use safe sealed particle suspensions under modest fields.","contrary":"Changes require macroscopic settling or magnetic heating.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0519","title":"Magnetic fluid settling","question":"Can dilute magnetic particles form thermal bridges before sedimentation is visible?","prediction":"Heat conductance changes with chain formation at constant concentration profile.","test":"Use safe sealed particle suspensions under modest fields.","contrary_outcome":"Changes require macroscopic settling or magnetic heating.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0520","id":"S3-0520","volume":"900v3","title":"Resistor thermal memory","prediction":"Drift after disconnection depends on prior heating location.","test":"Use safe resistive networks with spatial thermometry.","contrary":"Resistance uniquely predicts future thermal drift.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0520","title":"Resistor thermal memory","question":"Can identical resistance values hide different internal temperature fields that yield different subsequent drift?","prediction":"Drift after disconnection depends on prior heating location.","test":"Use safe resistive networks with spatial thermometry.","contrary_outcome":"Resistance uniquely predicts future thermal drift.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0520","title":"Resistor thermal memory","question":"Can identical resistance values hide different internal temperature fields that yield different subsequent drift?","prediction":"Drift after disconnection depends on prior heating location.","test":"Use safe resistive networks with spatial thermometry.","contrary_outcome":"Resistance uniquely predicts future thermal drift.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can identical resistance values hide different internal temperature fields that yield different subsequent drift experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0521","id":"S3-0521","volume":"900v3","title":"Optoelectronic sensor heating","prediction":"Apparent decay changes with detector duty cycle.","test":"Compare low-power sensing with independent contact thermometry.","contrary":"Decay is duty-cycle independent after noise correction.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0521","title":"Optoelectronic sensor heating","question":"Can a detector's own illumination history bias a measured cooling time?","prediction":"Apparent decay changes with detector duty cycle.","test":"Compare low-power sensing with independent contact thermometry.","contrary_outcome":"Decay is duty-cycle independent after noise correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0522","id":"S3-0522","volume":"900v3","title":"Low-voltage electrostatic dust","prediction":"Deposition differences persist when electric fields are nulled.","test":"Measure safe dust surrogates, local flow and low-voltage field probes.","contrary":"Mesh effects vanish after field cancellation.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0522","title":"Low-voltage electrostatic dust","question":"Can a grounded mesh change inert dust deposition through airflow alone?","prediction":"Deposition differences persist when electric fields are nulled.","test":"Measure safe dust surrogates, local flow and low-voltage field probes.","contrary_outcome":"Mesh effects vanish after field cancellation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0523","id":"S3-0523","volume":"900v3","title":"Magnetic susceptibility mixture","prediction":"Rotational damping adds a frequency-dependent quadrature response.","test":"Compare safe embedded and suspended benign magnetic particles.","contrary":"Both states share the same calibrated spectrum.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0523","title":"Magnetic susceptibility mixture","question":"Can phase-resolved susceptibility distinguish bound from freely rotating particles of equal composition?","prediction":"Rotational damping adds a frequency-dependent quadrature response.","test":"Compare safe embedded and suspended benign magnetic particles.","contrary_outcome":"Both states share the same calibrated spectrum.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0524","id":"S3-0524","volume":"900v3","title":"Circuit thermal localization","prediction":"Local thermal feedback depends on resistor placement.","test":"Use safe low-power networks with current limits and thermal maps.","contrary":"Only total resistance and total heat loss matter.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0524","title":"Circuit thermal localization","question":"Can two resistor networks with equal total resistance have different thermal runaway thresholds under bounded power?","prediction":"Local thermal feedback depends on resistor placement.","test":"Use safe low-power networks with current limits and thermal maps.","contrary_outcome":"Only total resistance and total heat loss matter.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0525","id":"S3-0525","volume":"900v3","title":"Dielectric film contact census","prediction":"Loss phase shifts at independently imaged air islands.","test":"Use safe low-voltage laminated standards with known gaps.","contrary":"Phase responds only after mean capacitance shifts.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0525","title":"Dielectric film contact census","question":"Can capacitance phase detect partial delamination before mean capacitance changes?","prediction":"Loss phase shifts at independently imaged air islands.","test":"Use safe low-voltage laminated standards with known gaps.","contrary_outcome":"Phase responds only after mean capacitance shifts.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0526","id":"S3-0526","volume":"900v3","title":"Eddy-current thermal gradient","prediction":"Heating centroid follows the calibrated gradient direction.","test":"Use modest low-frequency fields, safe power and thermal imaging.","contrary":"Heating remains centered after geometry correction.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0526","title":"Eddy-current thermal gradient","question":"Can a conductivity gradient steer an induced-current hot spot away from the coil center?","prediction":"Heating centroid follows the calibrated gradient direction.","test":"Use modest low-frequency fields, safe power and thermal imaging.","contrary_outcome":"Heating remains centered after geometry correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0527","id":"S3-0527","volume":"900v3","title":"Magnetometer vibration rejection","prediction":"Differential signals reject measured common rotation.","test":"Use benign weak fields with calibrated sensor motion.","contrary":"Rotation leakage dominates the recovered gradient.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0527","title":"Magnetometer vibration rejection","question":"Can a paired sensor geometry distinguish magnetic spatial gradients from rigid-body rotation?","prediction":"Differential signals reject measured common rotation.","test":"Use benign weak fields with calibrated sensor motion.","contrary_outcome":"Rotation leakage dominates the recovered gradient.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0528","id":"S3-0528","volume":"900v3","title":"Thermoelectric contact aging","prediction":"Thermovoltage shifts track junction temperature rather than electrical resistance.","test":"Use safe low-temperature clean contacts and four-terminal sensing.","contrary":"Electrical or chemical changes are required.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0528","title":"Thermoelectric contact aging","question":"Can oxide-free mechanical contact aging change thermovoltage through thermal resistance alone?","prediction":"Thermovoltage shifts track junction temperature rather than electrical resistance.","test":"Use safe low-temperature clean contacts and four-terminal sensing.","contrary_outcome":"Electrical or chemical changes are required.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0529","id":"S3-0529","volume":"900v3","title":"Capacitive liquid interface","prediction":"Loop area matches the measured contact-line path.","test":"Use safe low-voltage water-interface capacitors with optical geometry.","contrary":"Hysteresis persists after geometric correction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0529","title":"Capacitive liquid interface","question":"Can a moving liquid meniscus produce capacitance hysteresis without dielectric hysteresis?","prediction":"Loop area matches the measured contact-line path.","test":"Use safe low-voltage water-interface capacitors with optical geometry.","contrary_outcome":"Hysteresis persists after geometric correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0530","id":"S3-0530","volume":"900v3","title":"Magnetic torque shape ambiguity","prediction":"Phase lag identifies independently measured shape anisotropy.","test":"Use safe suspended magnetic particles in modest oscillating fields.","contrary":"Moment alone predicts rotational response.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0530","title":"Magnetic torque shape ambiguity","question":"Can two particles with equal magnetic moment rotate differently because drag anisotropy differs?","prediction":"Phase lag identifies independently measured shape anisotropy.","test":"Use safe suspended magnetic particles in modest oscillating fields.","contrary_outcome":"Moment alone predicts rotational response.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0530","title":"Magnetic torque shape ambiguity","question":"Can two particles with equal magnetic moment rotate differently because drag anisotropy differs?","prediction":"Phase lag identifies independently measured shape anisotropy.","test":"Use safe suspended magnetic particles in modest oscillating fields.","contrary_outcome":"Moment alone predicts rotational response.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can two particles with equal magnetic moment rotate differently because drag anisotropy differs experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0531","id":"S3-0531","volume":"900v3","title":"Dielectric calibration fringe","prediction":"Apparent anisotropy rotates with the guard error rather than sample.","test":"Rotate safe isotropic standards and calibrated electrodes.","contrary":"Anisotropy follows the sample exclusively.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0531","title":"Dielectric calibration fringe","question":"Can guard-ring misalignment mimic dielectric anisotropy?","prediction":"Apparent anisotropy rotates with the guard error rather than sample.","test":"Rotate safe isotropic standards and calibrated electrodes.","contrary_outcome":"Anisotropy follows the sample exclusively.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0532","id":"S3-0532","volume":"900v3","title":"Resistive heater mode bias","prediction":"Spatial thermal strain determines the buckle pattern.","test":"Use safe thin films with bounded power and full-field thermometry.","contrary":"Total mean temperature alone predicts deformation.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0532","title":"Resistive heater mode bias","question":"Can patterned heating select a different deformation mode at equal total power?","prediction":"Spatial thermal strain determines the buckle pattern.","test":"Use safe thin films with bounded power and full-field thermometry.","contrary_outcome":"Total mean temperature alone predicts deformation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0533","id":"S3-0533","volume":"900v3","title":"Inductive pore water monitor","prediction":"Connectivity changes low-frequency loss before volume changes.","test":"Use safe dilute salt in inert transparent pore models.","contrary":"Only salt mass determines response.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0533","title":"Inductive pore water monitor","question":"Can weak inductive response distinguish continuous saline water from isolated droplets at equal water content?","prediction":"Connectivity changes low-frequency loss before volume changes.","test":"Use safe dilute salt in inert transparent pore models.","contrary_outcome":"Only salt mass determines response.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0534","id":"S3-0534","volume":"900v3","title":"Magnetic damping localization","prediction":"Mode velocity overlap controls eddy-current loss.","test":"Use safe low-field magnets and mechanically calibrated beam patches.","contrary":"Damping depends only on resonance frequency.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0534","title":"Magnetic damping localization","question":"Can a conductive patch damp one vibration mode while barely changing another with equal frequency?","prediction":"Mode velocity overlap controls eddy-current loss.","test":"Use safe low-field magnets and mechanically calibrated beam patches.","contrary_outcome":"Damping depends only on resonance frequency.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0535","id":"S3-0535","volume":"900v3","title":"Thermoelectric noise asymmetry","prediction":"Spectral asymmetry disappears after anchor equilibration.","test":"Measure safe low-resistance standards with independent thermal-noise calibration.","contrary":"Asymmetry persists isothermally beyond instrument noise.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0535","title":"Thermoelectric noise asymmetry","question":"Can unequal thermal anchors create asymmetric voltage-noise spectra in a passive circuit?","prediction":"Spectral asymmetry disappears after anchor equilibration.","test":"Measure safe low-resistance standards with independent thermal-noise calibration.","contrary_outcome":"Asymmetry persists isothermally beyond instrument noise.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0536","id":"S3-0536","volume":"900v3","title":"Capacitive foam drainage","prediction":"Opposite segments change with compensating signs.","test":"Use benign foam and safe low-voltage segmented sensing with imaging.","contrary":"Segment signals contain no spatial information beyond total water.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0536","title":"Capacitive foam drainage","question":"Can electrode segmentation locate a drainage front invisible in total capacitance?","prediction":"Opposite segments change with compensating signs.","test":"Use benign foam and safe low-voltage segmented sensing with imaging.","contrary_outcome":"Segment signals contain no spatial information beyond total water.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0537","id":"S3-0537","volume":"900v3","title":"Magnetic contact nonlinearity","prediction":"Nonlinearity vanishes when particles are mechanically immobilized.","test":"Compare safe loose and embedded magnetic-grain standards.","contrary":"The same nonlinearity remains in immobilized controls.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0537","title":"Magnetic contact nonlinearity","question":"Can weak field-dependent force rearrange contacts enough to mimic intrinsic nonlinear susceptibility?","prediction":"Nonlinearity vanishes when particles are mechanically immobilized.","test":"Compare safe loose and embedded magnetic-grain standards.","contrary_outcome":"The same nonlinearity remains in immobilized controls.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0538","id":"S3-0538","volume":"900v3","title":"Electrical thermal lag inversion","prediction":"Spatial thermal phase breaks the resistance-only depth ambiguity.","test":"Use safe low-power embedded standards and blinded inversion.","contrary":"Depth remains unidentifiable after joint fitting.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0538","title":"Electrical thermal lag inversion","question":"Can resistance and infrared data jointly locate a buried heater with unknown power?","prediction":"Spatial thermal phase breaks the resistance-only depth ambiguity.","test":"Use safe low-power embedded standards and blinded inversion.","contrary_outcome":"Depth remains unidentifiable after joint fitting.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0539","id":"S3-0539","volume":"900v3","title":"Low-voltage surface leakage","prediction":"Spatial dissipation moves with the front.","test":"Use safe current-limited patterned insulators and calibrated thermal imaging.","contrary":"Leakage remains spatially fixed.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0539","title":"Low-voltage surface leakage","question":"Can a humidity front create a migrating leakage path while total resistance stays constant?","prediction":"Spatial dissipation moves with the front.","test":"Use safe current-limited patterned insulators and calibrated thermal imaging.","contrary_outcome":"Leakage remains spatially fixed.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0540","id":"S3-0540","volume":"900v3","title":"Inductive closed-path criterion","prediction":"A closed ring shields more than an equal-area open spiral.","test":"Measure weak-field transfer through geometrically characterized samples.","contrary":"Area alone predicts shielding.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0540","title":"Inductive closed-path criterion","question":"Can a conductive island's topology matter more than area for low-frequency shielding?","prediction":"A closed ring shields more than an equal-area open spiral.","test":"Measure weak-field transfer through geometrically characterized samples.","contrary_outcome":"Area alone predicts shielding.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0540","title":"Inductive closed-path criterion","question":"Can a conductive island's topology matter more than area for low-frequency shielding?","prediction":"A closed ring shields more than an equal-area open spiral.","test":"Measure weak-field transfer through geometrically characterized samples.","contrary_outcome":"Area alone predicts shielding.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a conductive island's topology matter more than area for low-frequency shielding experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0541","id":"S3-0541","volume":"900v3","title":"Granular dielectric aging","prediction":"The spectrum drifts with contact force at constant measured water mass.","test":"Use safe dry inert grains under controlled humidity and load.","contrary":"Changes require detectable moisture or temperature drift.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0541","title":"Granular dielectric aging","question":"Can dielectric relaxation change during dry contact aging without moisture uptake?","prediction":"The spectrum drifts with contact force at constant measured water mass.","test":"Use safe dry inert grains under controlled humidity and load.","contrary_outcome":"Changes require detectable moisture or temperature drift.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0542","id":"S3-0542","volume":"900v3","title":"Magnetic field thermal ambiguity","prediction":"Apparent remanence follows sensor cooling rather than sample history.","test":"Use calibrated benign field standards and matched thermal dummies.","contrary":"Remanence survives sensor-temperature correction.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0542","title":"Magnetic field thermal ambiguity","question":"Can a temperature-sensitive magnetic sensor falsely indicate flux trapping in a nontrapping sample?","prediction":"Apparent remanence follows sensor cooling rather than sample history.","test":"Use calibrated benign field standards and matched thermal dummies.","contrary_outcome":"Remanence survives sensor-temperature correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0543","id":"S3-0543","volume":"900v3","title":"Capacitive contact roughness","prediction":"Contact evolution follows the roughness spectrum.","test":"Measure safe low-voltage rough plates with profilometry and force control.","contrary":"RMS roughness alone explains the curves.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0543","title":"Capacitive contact roughness","question":"Can identical RMS roughness yield different capacitance-force curves through summit spacing?","prediction":"Contact evolution follows the roughness spectrum.","test":"Measure safe low-voltage rough plates with profilometry and force control.","contrary_outcome":"RMS roughness alone explains the curves.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0544","id":"S3-0544","volume":"900v3","title":"Resistive network damage alias","prediction":"Resistance jumps reverse under contact reseating without material repair.","test":"Use safe low-current networks with independent microscopy.","contrary":"Jumps persist after verified reseating.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0544","title":"Resistive network damage alias","question":"Can reversible contact slip imitate irreversible conductor damage in resistance monitoring?","prediction":"Resistance jumps reverse under contact reseating without material repair.","test":"Use safe low-current networks with independent microscopy.","contrary_outcome":"Jumps persist after verified reseating.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0545","id":"S3-0545","volume":"900v3","title":"Magnetic pulse waveform selection","prediction":"Peak torque and rotational relaxation retain waveform information.","test":"Use safe benign particles with calibrated field waveforms.","contrary":"Rotation depends only on integrated field.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0545","title":"Magnetic pulse waveform selection","question":"Can equal-integral weak field pulses produce different mechanical rotations of suspended particles?","prediction":"Peak torque and rotational relaxation retain waveform information.","test":"Use safe benign particles with calibrated field waveforms.","contrary_outcome":"Rotation depends only on integrated field.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0546","id":"S3-0546","volume":"900v3","title":"Thermoelectric radiative imbalance","prediction":"Local junction temperatures reveal the hidden gradient.","test":"Use safe low-temperature shields and traceable junction thermometry.","contrary":"Voltage remains after all junction gradients are nulled.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0546","title":"Thermoelectric radiative imbalance","question":"Can asymmetric radiation create a thermovoltage in an apparently isothermal sample holder?","prediction":"Local junction temperatures reveal the hidden gradient.","test":"Use safe low-temperature shields and traceable junction thermometry.","contrary_outcome":"Voltage remains after all junction gradients are nulled.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0547","id":"S3-0547","volume":"900v3","title":"Dielectric pore collapse marker","prediction":"Loss shifts correlate with local pore-wall contact.","test":"Use safe porous polymers under small compression with imaging.","contrary":"Loss follows only macroscopic strain.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0547","title":"Dielectric pore collapse marker","question":"Can dielectric loss detect reversible pore collapse before bulk strain resolves?","prediction":"Loss shifts correlate with local pore-wall contact.","test":"Use safe porous polymers under small compression with imaging.","contrary_outcome":"Loss follows only macroscopic strain.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0548","id":"S3-0548","volume":"900v3","title":"Coil calibration thermal expansion","prediction":"Optically measured expansion predicts the full trend.","test":"Use weak-field reference coils and benign standards during mild heating.","contrary":"Residual trend exceeds combined geometric uncertainty.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0548","title":"Coil calibration thermal expansion","question":"Can coil radius drift explain an apparent specimen susceptibility trend?","prediction":"Optically measured expansion predicts the full trend.","test":"Use weak-field reference coils and benign standards during mild heating.","contrary_outcome":"Residual trend exceeds combined geometric uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0549","id":"S3-0549","volume":"900v3","title":"Capacitive droplet occupancy","prediction":"Spatial phase differences depend on contact distribution.","test":"Use safe low-voltage sensing with imaged water standards.","contrary":"Only total volume affects every channel.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0549","title":"Capacitive droplet occupancy","question":"Can a distributed electrode distinguish one large drop from many small drops of equal total volume?","prediction":"Spatial phase differences depend on contact distribution.","test":"Use safe low-voltage sensing with imaged water standards.","contrary_outcome":"Only total volume affects every channel.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0550","id":"S3-0550","volume":"900v3","title":"Electrical bridge thermal phase","prediction":"Differential phase follows front position at constant mean resistance.","test":"Use safe low-power resistor arrays with calibrated thermal forcing.","contrary":"Mean temperature explains the entire output.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0550","title":"Electrical bridge thermal phase","question":"Can a bridge circuit reject uniform heating yet remain sensitive to a moving thermal front?","prediction":"Differential phase follows front position at constant mean resistance.","test":"Use safe low-power resistor arrays with calibrated thermal forcing.","contrary_outcome":"Mean temperature explains the entire output.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0550","title":"Electrical bridge thermal phase","question":"Can a bridge circuit reject uniform heating yet remain sensitive to a moving thermal front?","prediction":"Differential phase follows front position at constant mean resistance.","test":"Use safe low-power resistor arrays with calibrated thermal forcing.","contrary_outcome":"Mean temperature explains the entire output.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a bridge circuit reject uniform heating yet remain sensitive to a moving thermal front experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0551","id":"S3-0551","volume":"900v3","title":"Magnetic shield opening order","prediction":"Frictional contact history changes effective seam conductance.","test":"Measure safe weak fields and contact topology across closure sequences.","contrary":"Final geometry and force uniquely determine shielding.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0551","title":"Magnetic shield opening order","question":"Can closing enclosure seams in different orders leave different low-field shielding at identical final preload?","prediction":"Frictional contact history changes effective seam conductance.","test":"Measure safe weak fields and contact topology across closure sequences.","contrary_outcome":"Final geometry and force uniquely determine shielding.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0552","id":"S3-0552","volume":"900v3","title":"Dielectric relaxation boundary loss","prediction":"Bulk time scales remain fixed while boundary amplitudes scale.","test":"Use safe dilute electrolytes with blocking electrodes and current limits.","contrary":"All spectral features scale identically.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0552","title":"Dielectric relaxation boundary loss","question":"Can electrode polarization be separated from bulk relaxation by changing only electrode spacing?","prediction":"Bulk time scales remain fixed while boundary amplitudes scale.","test":"Use safe dilute electrolytes with blocking electrodes and current limits.","contrary_outcome":"All spectral features scale identically.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0553","id":"S3-0553","volume":"900v3","title":"Resistive thermal hot spot census","prediction":"Noise rises with independently measured local temperature fluctuations.","test":"Use safe low-current contact arrays and calibrated infrared magnification.","contrary":"Noise tracks only mean resistance.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0553","title":"Resistive thermal hot spot census","question":"Can electrical noise identify a hot microcontact missed by area-average resistance?","prediction":"Noise rises with independently measured local temperature fluctuations.","test":"Use safe low-current contact arrays and calibrated infrared magnification.","contrary_outcome":"Noise tracks only mean resistance.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0554","id":"S3-0554","volume":"900v3","title":"Inductive crack closure memory","prediction":"Finite-frequency phase detects imperfect electrical recontact.","test":"Use safe machined cracked standards under measured closing loads.","contrary":"Closed cracks become indistinguishable within validated bandwidth.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0554","title":"Inductive crack closure memory","question":"Can weak-field inspection distinguish a closed crack from an intact conductor?","prediction":"Finite-frequency phase detects imperfect electrical recontact.","test":"Use safe machined cracked standards under measured closing loads.","contrary_outcome":"Closed cracks become indistinguishable within validated bandwidth.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0555","id":"S3-0555","volume":"900v3","title":"Magnetic bead viscosity clock","prediction":"Adhesion introduces amplitude-dependent lag absent from viscosity.","test":"Use safe modest-field beads in benign fluids with controlled surfaces.","contrary":"Both amplitudes yield the same unresolved parameter combination.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0555","title":"Magnetic bead viscosity clock","question":"Can two oscillation amplitudes separate viscosity from weak surface adhesion?","prediction":"Adhesion introduces amplitude-dependent lag absent from viscosity.","test":"Use safe modest-field beads in benign fluids with controlled surfaces.","contrary_outcome":"Both amplitudes yield the same unresolved parameter combination.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0556","id":"S3-0556","volume":"900v3","title":"Capacitive gap breathing","prediction":"Mean capacitance exceeds capacitance at mean gap by a calibrated amount.","test":"Measure safe low-voltage plates with interferometric gap histories.","contrary":"No bias remains after readout linearization.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0556","title":"Capacitive gap breathing","question":"Can symmetric gap oscillations produce a DC measurement bias through nonlinear averaging?","prediction":"Mean capacitance exceeds capacitance at mean gap by a calibrated amount.","test":"Measure safe low-voltage plates with interferometric gap histories.","contrary_outcome":"No bias remains after readout linearization.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0557","id":"S3-0557","volume":"900v3","title":"Electrical thermal bridge localization","prediction":"Resistance transients identify the bridge through spatial heating overlap.","test":"Use safe resistor-grid standards with blinded bridge positions.","contrary":"Bridge locations remain degenerate.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0557","title":"Electrical thermal bridge localization","question":"Can a sequence of low-power current patterns locate a thermal bridge without thermal imaging?","prediction":"Resistance transients identify the bridge through spatial heating overlap.","test":"Use safe resistor-grid standards with blinded bridge positions.","contrary_outcome":"Bridge locations remain degenerate.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0558","id":"S3-0558","volume":"900v3","title":"Dielectric wetting-front lead","prediction":"Signal lead matches the independently calculated field extent.","test":"Use safe water in transparent channels with low-voltage electrodes.","contrary":"Signals begin only at geometric footprint entry.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0558","title":"Dielectric wetting-front lead","question":"Can a fringing field detect pore wetting before the front reaches the electrode footprint?","prediction":"Signal lead matches the independently calculated field extent.","test":"Use safe water in transparent channels with low-voltage electrodes.","contrary_outcome":"Signals begin only at geometric footprint entry.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0559","id":"S3-0559","volume":"900v3","title":"Magnetic force-chain decay","prediction":"Thermal anisotropy remains while remanent magnetic moment is negligible.","test":"Use safe low-remanence grains with field, contact and heat-flow measurements.","contrary":"Anisotropy vanishes with the field or follows remanence.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0559","title":"Magnetic force-chain decay","question":"Can magnetic alignment persist after field removal because friction locks grain chains?","prediction":"Thermal anisotropy remains while remanent magnetic moment is negligible.","test":"Use safe low-remanence grains with field, contact and heat-flow measurements.","contrary_outcome":"Anisotropy vanishes with the field or follows remanence.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0560","id":"S3-0560","volume":"900v3","title":"Thermoelectric phase cancellation","prediction":"Frequency-dependent junction lags break static cancellation.","test":"Use safe calibrated thermal junction networks and sinusoidal mild heating.","contrary":"Cancellation holds across the entire measured band.","layers":[1,2],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0560","title":"Thermoelectric phase cancellation","question":"Can two opposing junction pairs hide a local thermal transient in DC voltage yet reveal it in phase?","prediction":"Frequency-dependent junction lags break static cancellation.","test":"Use safe calibrated thermal junction networks and sinusoidal mild heating.","contrary_outcome":"Cancellation holds across the entire measured band.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0560","title":"Thermoelectric phase cancellation","question":"Can two opposing junction pairs hide a local thermal transient in DC voltage yet reveal it in phase?","prediction":"Frequency-dependent junction lags break static cancellation.","test":"Use safe calibrated thermal junction networks and sinusoidal mild heating.","contrary_outcome":"Cancellation holds across the entire measured band.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can two opposing junction pairs hide a local thermal transient in DC voltage yet reveal it in phase experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0561","id":"S3-0561","volume":"900v3","title":"Capacitive electrode intrusion","prediction":"Nearby reference humidity changes with sensor coating mass.","test":"Use safe humidity chambers with noncontact reference spectroscopy.","contrary":"Humidity is independent of sensor presence.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0561","title":"Capacitive electrode intrusion","question":"Can a humidity sensor alter local humidity through water storage in its own coating?","prediction":"Nearby reference humidity changes with sensor coating mass.","test":"Use safe humidity chambers with noncontact reference spectroscopy.","contrary_outcome":"Humidity is independent of sensor presence.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0562","id":"S3-0562","volume":"900v3","title":"Electrical porous contact percolation","prediction":"Electrical spanning occurs before a mechanically rigid network forms.","test":"Compress safe conductive-grain analogues with current limits and force sensing.","contrary":"Both transitions coincide within uncertainty.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0562","title":"Electrical porous contact percolation","question":"Can resistance drop abruptly while mechanical stiffness changes smoothly?","prediction":"Electrical spanning occurs before a mechanically rigid network forms.","test":"Compress safe conductive-grain analogues with current limits and force sensing.","contrary_outcome":"Both transitions coincide within uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0563","id":"S3-0563","volume":"900v3","title":"Magnetic relaxation concentration bias","prediction":"Microscopy-corrected aggregation removes the apparent viscosity rise.","test":"Use safe dilute benign magnetic suspensions and independent rheometry.","contrary":"Viscosity estimates remain unchanged after aggregation correction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0563","title":"Magnetic relaxation concentration bias","question":"Can particle aggregation imitate increased viscosity in magnetic rotational measurements?","prediction":"Microscopy-corrected aggregation removes the apparent viscosity rise.","test":"Use safe dilute benign magnetic suspensions and independent rheometry.","contrary_outcome":"Viscosity estimates remain unchanged after aggregation correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0564","id":"S3-0564","volume":"900v3","title":"Low-voltage charge induction geometry","prediction":"Integrated current reverses when the object returns and net transfer vanishes.","test":"Use safe low-voltage electrodes, guarded electrometry and calibrated motion.","contrary":"A nonzero net charge remains after a closed motion cycle.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0564","title":"Low-voltage charge induction geometry","question":"Can a moving grounded object create apparent charge transfer without contact?","prediction":"Integrated current reverses when the object returns and net transfer vanishes.","test":"Use safe low-voltage electrodes, guarded electrometry and calibrated motion.","contrary_outcome":"A nonzero net charge remains after a closed motion cycle.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0565","id":"S3-0565","volume":"900v3","title":"Dielectric thermal camera synergy","prediction":"Heating phase differs for independently calibrated loss mechanisms.","test":"Use safe current-limited polymers with low excitation and microcalorimetry.","contrary":"Both mechanisms remain indistinguishable.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0565","title":"Dielectric thermal camera synergy","question":"Can combined loss and thermal maps separate ionic leakage from dielectric relaxation heating?","prediction":"Heating phase differs for independently calibrated loss mechanisms.","test":"Use safe current-limited polymers with low excitation and microcalorimetry.","contrary_outcome":"Both mechanisms remain indistinguishable.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0566","id":"S3-0566","volume":"900v3","title":"Magnetic shielding frequency swap","prediction":"Ranking reverses near independently measured relaxation scales.","test":"Measure benign weak-field shield standards over calibrated frequencies.","contrary":"One shield dominates throughout the validated range.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0566","title":"Magnetic shielding frequency swap","question":"Can the best shield at one frequency be worse at another because of competing conduction and permeability?","prediction":"Ranking reverses near independently measured relaxation scales.","test":"Measure benign weak-field shield standards over calibrated frequencies.","contrary_outcome":"One shield dominates throughout the validated range.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0567","id":"S3-0567","volume":"900v3","title":"Capacitive strain sign recovery","prediction":"Differential capacitance reverses with curvature.","test":"Use safe low-voltage flexible beams with optical curvature calibration.","contrary":"Differential output cannot resolve bending sign.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0567","title":"Capacitive strain sign recovery","question":"Can opposite-side electrodes recover the sign of bending that one electrode cannot?","prediction":"Differential capacitance reverses with curvature.","test":"Use safe low-voltage flexible beams with optical curvature calibration.","contrary_outcome":"Differential output cannot resolve bending sign.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0568","id":"S3-0568","volume":"900v3","title":"Resistive interface thermal resistance","prediction":"Oxide-free and insulating-film contacts violate one-to-one ranking.","test":"Measure safe low-current electrical and guarded thermal transport independently.","contrary":"Electrical resistance uniquely predicts thermal resistance.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0568","title":"Resistive interface thermal resistance","question":"Can equal electrical contact resistance hide different thermal contact resistance?","prediction":"Oxide-free and insulating-film contacts violate one-to-one ranking.","test":"Measure safe low-current electrical and guarded thermal transport independently.","contrary_outcome":"Electrical resistance uniquely predicts thermal resistance.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0569","id":"S3-0569","volume":"900v3","title":"Inductive sensor boundary echo","prediction":"Apparent relaxation shifts with wall distance.","test":"Measure weak-field benign standards in interchangeable nonmagnetic enclosures.","contrary":"Relaxation is wall-distance independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0569","title":"Inductive sensor boundary echo","question":"Can a nearby conducting wall create a delayed-looking response without specimen dynamics?","prediction":"Apparent relaxation shifts with wall distance.","test":"Measure weak-field benign standards in interchangeable nonmagnetic enclosures.","contrary_outcome":"Relaxation is wall-distance independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0570","id":"S3-0570","volume":"900v3","title":"Magnetic particle gravity coupling","prediction":"Sedimentation alters rotational confinement and phase lag.","test":"Use safe suspended benign particles under orientation reversal with imaging.","contrary":"Response depends only on field and viscosity.","layers":[1,2],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0570","title":"Magnetic particle gravity coupling","question":"Can gravity change weak-field rotational response without changing magnetization?","prediction":"Sedimentation alters rotational confinement and phase lag.","test":"Use safe suspended benign particles under orientation reversal with imaging.","contrary_outcome":"Response depends only on field and viscosity.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0570","title":"Magnetic particle gravity coupling","question":"Can gravity change weak-field rotational response without changing magnetization?","prediction":"Sedimentation alters rotational confinement and phase lag.","test":"Use safe suspended benign particles under orientation reversal with imaging.","contrary_outcome":"Response depends only on field and viscosity.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can gravity change weak-field rotational response without changing magnetization experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0571","id":"S3-0571","volume":"900v3","title":"Capacitive porous humidity topology","prediction":"Capacitance hysteresis correlates with independently mapped water location.","test":"Use safe porous standards with gravimetry and low-voltage spectroscopy.","contrary":"Capacitance is uniquely determined by water mass.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0571","title":"Capacitive porous humidity topology","question":"Can adsorption and desorption at equal water mass yield different capacitance because water occupies different pores?","prediction":"Capacitance hysteresis correlates with independently mapped water location.","test":"Use safe porous standards with gravimetry and low-voltage spectroscopy.","contrary_outcome":"Capacitance is uniquely determined by water mass.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0572","id":"S3-0572","volume":"900v3","title":"Electrical lead mechanical stress","prediction":"Artifact follows lead strain and persists with an isothermal dummy.","test":"Use safe low-voltage measurements with strain-relieved and bent leads.","contrary":"No strain-correlated voltage exceeds uncertainty.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0572","title":"Electrical lead mechanical stress","question":"Can bending a lead create a voltage artifact larger than the sample's thermal signal?","prediction":"Artifact follows lead strain and persists with an isothermal dummy.","test":"Use safe low-voltage measurements with strain-relieved and bent leads.","contrary_outcome":"No strain-correlated voltage exceeds uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0573","id":"S3-0573","volume":"900v3","title":"Dielectric interface hidden layer","prediction":"Response disappears when the interfacial film is interrupted.","test":"Use safe low-voltage layered standards with optical film metrology.","contrary":"Bulk volume fraction predicts the entire response.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0573","title":"Dielectric interface hidden layer","question":"Can a thin interfacial liquid film dominate low-frequency permittivity while bulk water content is negligible?","prediction":"Response disappears when the interfacial film is interrupted.","test":"Use safe low-voltage layered standards with optical film metrology.","contrary_outcome":"Bulk volume fraction predicts the entire response.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0574","id":"S3-0574","volume":"900v3","title":"Magnetic torque temperature lag","prediction":"Corrected torque tracks local sample temperature instead of elapsed time.","test":"Use safe weak-field standards with independent local thermometry.","contrary":"Relaxation remains after isothermal correction.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0574","title":"Magnetic torque temperature lag","question":"Can holder temperature lag mimic a time-dependent susceptibility after a field step?","prediction":"Corrected torque tracks local sample temperature instead of elapsed time.","test":"Use safe weak-field standards with independent local thermometry.","contrary_outcome":"Relaxation remains after isothermal correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0575","id":"S3-0575","volume":"900v3","title":"Capacitive sensor spatial alias","prediction":"Reported uniformity changes with electrode phase offset.","test":"Use safe patterned water films and low-voltage sensor arrays.","contrary":"Output is invariant to relative pitch alignment.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0575","title":"Capacitive sensor spatial alias","question":"Can alternating wet and dry stripes appear uniformly wet when electrode pitch matches stripe spacing?","prediction":"Reported uniformity changes with electrode phase offset.","test":"Use safe patterned water films and low-voltage sensor arrays.","contrary_outcome":"Output is invariant to relative pitch alignment.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0576","id":"S3-0576","volume":"900v3","title":"Electrical contact acoustic coupling","prediction":"Resistance drops correlate with new contact patches.","test":"Use safe low-current interfaces with force and optical contact sensing.","contrary":"Only average force determines resistance.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0576","title":"Electrical contact acoustic coupling","question":"Can weak vibration lower resistance through contact renewal without raising mean contact force?","prediction":"Resistance drops correlate with new contact patches.","test":"Use safe low-current interfaces with force and optical contact sensing.","contrary_outcome":"Only average force determines resistance.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0577","id":"S3-0577","volume":"900v3","title":"Dielectric phase unwrapping trap","prediction":"Unwrapped raw transfer data restores positive passive response.","test":"Measure safe calibrated RC standards with independent time-domain checks.","contrary":"Negative time persists in passive validated data.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0577","title":"Dielectric phase unwrapping trap","question":"Can phase wrapping create an apparent negative relaxation time?","prediction":"Unwrapped raw transfer data restores positive passive response.","test":"Measure safe calibrated RC standards with independent time-domain checks.","contrary_outcome":"Negative time persists in passive validated data.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0578","id":"S3-0578","volume":"900v3","title":"Magnetic reference contamination","prediction":"Bias changes with reference separation and orientation.","test":"Use safe modest-field measurements with blank and separation controls.","contrary":"Recovered susceptibility is reference-position independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0578","title":"Magnetic reference contamination","question":"Can a reference sample's remanence bias weak susceptibility of an adjacent benign sample?","prediction":"Bias changes with reference separation and orientation.","test":"Use safe modest-field measurements with blank and separation controls.","contrary_outcome":"Recovered susceptibility is reference-position independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0579","id":"S3-0579","volume":"900v3","title":"Capacitive thermal-expansion cancellation","prediction":"A zero coefficient shifts with probe frequency.","test":"Use safe low-voltage layered capacitors with calibrated dimensions.","contrary":"Cancellation temperature is frequency-independent.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0579","title":"Capacitive thermal-expansion cancellation","question":"Can a spacer's thermal expansion cancel dielectric temperature drift at one frequency but not another?","prediction":"A zero coefficient shifts with probe frequency.","test":"Use safe low-voltage layered capacitors with calibrated dimensions.","contrary_outcome":"Cancellation temperature is frequency-independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0580","id":"S3-0580","volume":"900v3","title":"Electrical network hidden branch","prediction":"Pulse recovery reveals the branch through a delayed thermal mode.","test":"Use safe low-power resistor networks with matched DC values.","contrary":"All matched networks share identical recovery.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0580","title":"Electrical network hidden branch","question":"Can equal DC resistance conceal a branch that stores thermal energy and alters later resistance?","prediction":"Pulse recovery reveals the branch through a delayed thermal mode.","test":"Use safe low-power resistor networks with matched DC values.","contrary_outcome":"All matched networks share identical recovery.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0580","title":"Electrical network hidden branch","question":"Can equal DC resistance conceal a branch that stores thermal energy and alters later resistance?","prediction":"Pulse recovery reveals the branch through a delayed thermal mode.","test":"Use safe low-power resistor networks with matched DC values.","contrary_outcome":"All matched networks share identical recovery.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can equal DC resistance conceal a branch that stores thermal energy and alters later resistance experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0581","id":"S3-0581","volume":"900v3","title":"Magnetic contact angle probe","prediction":"Rotation onset differs by direction at matched field torque.","test":"Use safe coated benign magnetic particles at water interfaces.","contrary":"Threshold asymmetry follows magnetic anisotropy alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0581","title":"Magnetic contact angle probe","question":"Can a weak magnetic torque measure liquid contact-angle hysteresis on a coated particle?","prediction":"Rotation onset differs by direction at matched field torque.","test":"Use safe coated benign magnetic particles at water interfaces.","contrary_outcome":"Threshold asymmetry follows magnetic anisotropy alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0582","id":"S3-0582","volume":"900v3","title":"Dielectric drying skin","prediction":"Removing the skin restores the bulk-calibrated reading without changing water mass.","test":"Use safe wet porous standards with removable inert skins.","contrary":"Readings remain accurate with the skin intact.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0582","title":"Dielectric drying skin","question":"Can an insulating skin make bulk moisture appear lower than it is in capacitance sensing?","prediction":"Removing the skin restores the bulk-calibrated reading without changing water mass.","test":"Use safe wet porous standards with removable inert skins.","contrary_outcome":"Readings remain accurate with the skin intact.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0583","id":"S3-0583","volume":"900v3","title":"Inductive thermal boundary scanning","prediction":"Height dependence separates calibrated thickness and conductivity pairs.","test":"Scan safe metal standards with optical thickness verification.","contrary":"The two causes remain degenerate.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0583","title":"Inductive thermal boundary scanning","question":"Can a moving weak-field probe distinguish local conductivity from thickness through two lift heights?","prediction":"Height dependence separates calibrated thickness and conductivity pairs.","test":"Scan safe metal standards with optical thickness verification.","contrary_outcome":"The two causes remain degenerate.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0584","id":"S3-0584","volume":"900v3","title":"Thermoelectric time-reversal audit","prediction":"Opposite sequences yield different transient slopes but the same equilibrated slope.","test":"Use safe junction standards with complete thermal histories.","contrary":"Transient slope is sequence-independent.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0584","title":"Thermoelectric time-reversal audit","question":"Can reversing a heating sequence expose unmodeled thermal storage in a Seebeck measurement?","prediction":"Opposite sequences yield different transient slopes but the same equilibrated slope.","test":"Use safe junction standards with complete thermal histories.","contrary_outcome":"Transient slope is sequence-independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0585","id":"S3-0585","volume":"900v3","title":"Capacitive liquid connectivity clock","prediction":"Later high-resolution imaging validates the inferred spanning order.","test":"Use safe water networks with current-limited sensing and independent microscopy.","contrary":"Phase jumps occur without spanning or miss validated events.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0585","title":"Capacitive liquid connectivity clock","question":"Can a low-frequency phase jump mark first liquid spanning before optical resolution permits confirmation?","prediction":"Later high-resolution imaging validates the inferred spanning order.","test":"Use safe water networks with current-limited sensing and independent microscopy.","contrary_outcome":"Phase jumps occur without spanning or miss validated events.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0586","id":"S3-0586","volume":"900v3","title":"Electrical contact force inversion","prediction":"Current dependence isolates heating while low-current resistance tracks force.","test":"Use safe bounded-current contacts with force and thermometry standards.","contrary":"Parameters remain nonidentifiable.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0586","title":"Electrical contact force inversion","question":"Can two resistance measurements at different currents separate contact force from local heating?","prediction":"Current dependence isolates heating while low-current resistance tracks force.","test":"Use safe bounded-current contacts with force and thermometry standards.","contrary_outcome":"Parameters remain nonidentifiable.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0587","id":"S3-0587","volume":"900v3","title":"Magnetic elastic resonance shift","prediction":"Shift vanishes when contact force is mechanically held constant.","test":"Use safe benign magnetic composites under modest fields.","contrary":"Shift persists under constant contact force.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0587","title":"Magnetic elastic resonance shift","question":"Can a weak field shift a mechanical resonance through contact preload while intrinsic modulus stays fixed?","prediction":"Shift vanishes when contact force is mechanically held constant.","test":"Use safe benign magnetic composites under modest fields.","contrary_outcome":"Shift persists under constant contact force.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0588","id":"S3-0588","volume":"900v3","title":"Dielectric pore-gas substitution audit","prediction":"Thermal corrections remove the dry-gas response difference.","test":"Use safe benign gases with fixed water activity and independent mass uptake.","contrary":"Response remains after thermal correction.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0588","title":"Dielectric pore-gas substitution audit","question":"Can humidity-sensor response change through gas thermal conductivity rather than water uptake?","prediction":"Thermal corrections remove the dry-gas response difference.","test":"Use safe benign gases with fixed water activity and independent mass uptake.","contrary_outcome":"Response remains after thermal correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0589","id":"S3-0589","volume":"900v3","title":"Capacitive electrochemical crossover","prediction":"Capacitance converges as independently imaged gradients relax.","test":"Use safe dilute salt cells with low voltage and no gas evolution.","contrary":"Capacitance is waiting-time independent.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0589","title":"Capacitive electrochemical crossover","question":"Can a harmless blocking cell's apparent capacitance depend on waiting time because concentration gradients persist?","prediction":"Capacitance converges as independently imaged gradients relax.","test":"Use safe dilute salt cells with low voltage and no gas evolution.","contrary_outcome":"Capacitance is waiting-time independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0590","id":"S3-0590","volume":"900v3","title":"Electrical resistance dimensional trap","prediction":"Geometry correction restores the intrinsic coefficient's sign.","test":"Use safe low-current meanders with optical dimensional metrology.","contrary":"Corrected and uncorrected signs remain equal.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0590","title":"Electrical resistance dimensional trap","question":"Can thermal expansion reverse the sign of a measured resistance coefficient in a patterned conductor?","prediction":"Geometry correction restores the intrinsic coefficient's sign.","test":"Use safe low-current meanders with optical dimensional metrology.","contrary_outcome":"Corrected and uncorrected signs remain equal.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0590","title":"Electrical resistance dimensional trap","question":"Can thermal expansion reverse the sign of a measured resistance coefficient in a patterned conductor?","prediction":"Geometry correction restores the intrinsic coefficient's sign.","test":"Use safe low-current meanders with optical dimensional metrology.","contrary_outcome":"Corrected and uncorrected signs remain equal.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can thermal expansion reverse the sign of a measured resistance coefficient in a patterned conductor experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0591","id":"S3-0591","volume":"900v3","title":"Magnetic field homogeneity bias","prediction":"Correcting measured field maps narrows the inferred distribution.","test":"Use safe monodisperse benign magnetic standards.","contrary":"Distribution width remains unchanged after field correction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0591","title":"Magnetic field homogeneity bias","question":"Can spatially varying drive fields mimic particle-size polydispersity in relaxation spectra?","prediction":"Correcting measured field maps narrows the inferred distribution.","test":"Use safe monodisperse benign magnetic standards.","contrary_outcome":"Distribution width remains unchanged after field correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0592","id":"S3-0592","volume":"900v3","title":"Dielectric mechanical resonance","prediction":"Loss modulation follows strain phase with negligible temperature change.","test":"Use safe low-voltage porous polymers and independent strain thermometry.","contrary":"All modulation follows temperature.","layers":[1],"categories":["physical","energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0592","title":"Dielectric mechanical resonance","question":"Can weak mechanical oscillation modulate dielectric loss through pore shape rather than heating?","prediction":"Loss modulation follows strain phase with negligible temperature change.","test":"Use safe low-voltage porous polymers and independent strain thermometry.","contrary_outcome":"All modulation follows temperature.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0593","id":"S3-0593","volume":"900v3","title":"Capacitive contact drying front","prediction":"Disconnected liquid islands preserve dielectric loading beyond ionic percolation.","test":"Use safe dilute salt films with current-limited conductance and capacitance imaging.","contrary":"Capacitance and conduction vanish together.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0593","title":"Capacitive contact drying front","question":"Can a drying contact retain high capacitance after electrical conduction stops?","prediction":"Disconnected liquid islands preserve dielectric loading beyond ionic percolation.","test":"Use safe dilute salt films with current-limited conductance and capacitance imaging.","contrary_outcome":"Capacitance and conduction vanish together.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0594","id":"S3-0594","volume":"900v3","title":"Electrical calorimeter lead loss","prediction":"Lead conduction creates a position-dependent uncounted heat leak.","test":"Use safe low-power heaters with traceable heat-flow guards.","contrary":"Heat balance is lead-position independent.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0594","title":"Electrical calorimeter lead loss","question":"Can moving a voltage-sense lead change calorimetric heat balance without changing measured heater power?","prediction":"Lead conduction creates a position-dependent uncounted heat leak.","test":"Use safe low-power heaters with traceable heat-flow guards.","contrary_outcome":"Heat balance is lead-position independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0595","id":"S3-0595","volume":"900v3","title":"Magnetic probe mechanical back-action","prediction":"Repeated scans change both contact topology and apparent susceptibility.","test":"Use safe benign low-coercivity grains with immobilized controls.","contrary":"Topology and response remain scan-independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0595","title":"Magnetic probe mechanical back-action","question":"Can a weak probe field rearrange a fragile grain packing enough to bias susceptibility?","prediction":"Repeated scans change both contact topology and apparent susceptibility.","test":"Use safe benign low-coercivity grains with immobilized controls.","contrary_outcome":"Topology and response remain scan-independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0596","id":"S3-0596","volume":"900v3","title":"Surface-tension aging front","prediction":"Surface elasticity varies with interface creation time at fixed bulk concentration.","test":"Measure benign surfactant interfaces using local weak-wave probes.","contrary":"Only bulk concentration determines elasticity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0596","title":"Surface-tension aging front","question":"Can an interface carry an aging front without bulk composition gradients?","prediction":"Surface elasticity varies with interface creation time at fixed bulk concentration.","test":"Measure benign surfactant interfaces using local weak-wave probes.","contrary_outcome":"Only bulk concentration determines elasticity.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0597","id":"S3-0597","volume":"900v3","title":"Gel compression solvent clock","prediction":"Internal solvent redistribution precedes external drainage.","test":"Measure safe hydrogel force, 3D volume and spatial water distribution.","contrary":"Force relaxation requires external solvent loss.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0597","title":"Gel compression solvent clock","question":"Can a gel's force relax before its solvent mass changes detectably?","prediction":"Internal solvent redistribution precedes external drainage.","test":"Measure safe hydrogel force, 3D volume and spatial water distribution.","contrary_outcome":"Force relaxation requires external solvent loss.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0598","id":"S3-0598","volume":"900v3","title":"Polymer glass optical stress","prediction":"Orientation and load-bearing modes have distinct decay times.","test":"Use safe transparent polymers with simultaneous birefringence and force measurements.","contrary":"Both signals share one normalized relaxation curve.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0598","title":"Polymer glass optical stress","question":"Can optical anisotropy relax faster than mechanical stress after a small strain?","prediction":"Orientation and load-bearing modes have distinct decay times.","test":"Use safe transparent polymers with simultaneous birefringence and force measurements.","contrary_outcome":"Both signals share one normalized relaxation curve.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0599","id":"S3-0599","volume":"900v3","title":"Aging suspension settling inversion","prediction":"Contact aging raises yield stress before compaction.","test":"Measure safe inert slurries with density imaging and controlled gentle shear.","contrary":"Resuspension follows density alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0599","title":"Aging suspension settling inversion","question":"Can a resting suspension become harder to resuspend while its sediment remains less dense?","prediction":"Contact aging raises yield stress before compaction.","test":"Measure safe inert slurries with density imaging and controlled gentle shear.","contrary_outcome":"Resuspension follows density alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0600","id":"S3-0600","volume":"900v3","title":"Interfacial slip localization","prediction":"Wall adsorption immobilizes the layer despite bulk motion.","test":"Use safe transparent shear cells with depth-resolved tracer velocimetry.","contrary":"Velocity changes continuously without a stationary layer.","layers":[1,2],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0600","title":"Interfacial slip localization","question":"Can a lubricating layer remain stationary while adjacent liquid flows?","prediction":"Wall adsorption immobilizes the layer despite bulk motion.","test":"Use safe transparent shear cells with depth-resolved tracer velocimetry.","contrary_outcome":"Velocity changes continuously without a stationary layer.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0600","title":"Interfacial slip localization","question":"Can a lubricating layer remain stationary while adjacent liquid flows?","prediction":"Wall adsorption immobilizes the layer despite bulk motion.","test":"Use safe transparent shear cells with depth-resolved tracer velocimetry.","contrary_outcome":"Velocity changes continuously without a stationary layer.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a lubricating layer remain stationary while adjacent liquid flows experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0601","id":"S3-0601","volume":"900v3","title":"Gel crack osmotic shielding","prediction":"Crack advance slows near the reservoir at equal mechanical load.","test":"Use safe hydrogel coupons with imaged hydration and strain.","contrary":"Reservoir effects follow only geometric stiffening.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0601","title":"Gel crack osmotic shielding","question":"Can a local solvent reservoir shield a crack by relaxing osmotic tension?","prediction":"Crack advance slows near the reservoir at equal mechanical load.","test":"Use safe hydrogel coupons with imaged hydration and strain.","contrary_outcome":"Reservoir effects follow only geometric stiffening.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0602","id":"S3-0602","volume":"900v3","title":"Crystal dissolution heat front","prediction":"Temperature propagates faster than dissolved solute in a benign endothermic salt system.","test":"Measure calibrated temperature and concentration fields in sealed water cells.","contrary":"Both fronts remain coincident after sensor correction.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0602","title":"Crystal dissolution heat front","question":"Can dissolution create a thermal front that outruns the concentration front?","prediction":"Temperature propagates faster than dissolved solute in a benign endothermic salt system.","test":"Measure calibrated temperature and concentration fields in sealed water cells.","contrary_outcome":"Both fronts remain coincident after sensor correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0603","id":"S3-0603","volume":"900v3","title":"Soft particle packing singularity","prediction":"Permeability jumps at a resolved throat-opening event.","test":"Compress safe hydrogel bead packs with tomography and flow tests.","contrary":"Permeability follows bulk porosity smoothly.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0603","title":"Soft particle packing singularity","question":"Can small particle deformation reconnect pores before bulk porosity changes measurably?","prediction":"Permeability jumps at a resolved throat-opening event.","test":"Compress safe hydrogel bead packs with tomography and flow tests.","contrary_outcome":"Permeability follows bulk porosity smoothly.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0604","id":"S3-0604","volume":"900v3","title":"Liquid-crystal boundary memory","prediction":"Domain persistence follows boundary anchoring rather than thermal lag.","test":"Use safe sealed commercial optical materials with low-power polarized imaging.","contrary":"Domains vanish with the perturbation after equilibration.","layers":[1],"categories":["physical","energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0604","title":"Liquid-crystal boundary memory","question":"Can a weak boundary perturbation leave an orientation domain after removal without changing bulk temperature?","prediction":"Domain persistence follows boundary anchoring rather than thermal lag.","test":"Use safe sealed commercial optical materials with low-power polarized imaging.","contrary_outcome":"Domains vanish with the perturbation after equilibration.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0605","id":"S3-0605","volume":"900v3","title":"Colloidal sediment optical echo","prediction":"Delayed decorrelation localizes to the independently prepared layer.","test":"Use safe inert colloidal analogues with depth-resolved imaging.","contrary":"Motion is uniform or follows wall slip.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0605","title":"Colloidal sediment optical echo","question":"Can a brief shear pulse reveal a buried weak layer through delayed speckle motion?","prediction":"Delayed decorrelation localizes to the independently prepared layer.","test":"Use safe inert colloidal analogues with depth-resolved imaging.","contrary_outcome":"Motion is uniform or follows wall slip.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0606","id":"S3-0606","volume":"900v3","title":"Porous gel cavitation precursor","prediction":"Scattering variance rises before resolved bubbles appear.","test":"Use safe water-swollen gels under modest controlled tension.","contrary":"Fluctuations begin only after bubbles resolve.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0606","title":"Porous gel cavitation precursor","question":"Can negative pore pressure produce optical fluctuations before visible cavitation?","prediction":"Scattering variance rises before resolved bubbles appear.","test":"Use safe water-swollen gels under modest controlled tension.","contrary_outcome":"Fluctuations begin only after bubbles resolve.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0607","id":"S3-0607","volume":"900v3","title":"Phase-separation wall preference","prediction":"Connectivity changes with independently measured weak wall affinity.","test":"Use safe benign demixing analogues with 3D morphology measurements.","contrary":"Only phase fractions determine connectivity.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0607","title":"Phase-separation wall preference","question":"Can a neutral-looking wall select domain connectivity without changing volume fractions?","prediction":"Connectivity changes with independently measured weak wall affinity.","test":"Use safe benign demixing analogues with 3D morphology measurements.","contrary_outcome":"Only phase fractions determine connectivity.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0608","id":"S3-0608","volume":"900v3","title":"Granular freezing bond age","prediction":"Bond-neck rearrangement raises failure load at fixed imaged ice fraction.","test":"Use safe ice-bonded inert beads with force and tomography.","contrary":"Strength follows ice volume alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0608","title":"Granular freezing bond age","question":"Can frozen contacts strengthen during a hold without increasing ice volume?","prediction":"Bond-neck rearrangement raises failure load at fixed imaged ice fraction.","test":"Use safe ice-bonded inert beads with force and tomography.","contrary_outcome":"Strength follows ice volume alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0609","id":"S3-0609","volume":"900v3","title":"Viscoelastic wetting ridge","prediction":"Later path bends toward or away from the residual ridge.","test":"Use safe soft substrates with time-resolved topography and drops.","contrary":"Drop paths are independent after surface chemistry matching.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0609","title":"Viscoelastic wetting ridge","question":"Can a moving wetting ridge store a memory that redirects a later droplet?","prediction":"Later path bends toward or away from the residual ridge.","test":"Use safe soft substrates with time-resolved topography and drops.","contrary_outcome":"Drop paths are independent after surface chemistry matching.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0610","id":"S3-0610","volume":"900v3","title":"Polymer relaxation pressure sign","prediction":"Coupled lateral relaxation reverses the measured normal force.","test":"Use safe elastomers with full strain and force accounting.","contrary":"Force remains compressive after instrument correction.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0610","title":"Polymer relaxation pressure sign","question":"Can compressing a constrained soft polymer cause a delayed tensile normal force?","prediction":"Coupled lateral relaxation reverses the measured normal force.","test":"Use safe elastomers with full strain and force accounting.","contrary_outcome":"Force remains compressive after instrument correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0610","title":"Polymer relaxation pressure sign","question":"Can compressing a constrained soft polymer cause a delayed tensile normal force?","prediction":"Coupled lateral relaxation reverses the measured normal force.","test":"Use safe elastomers with full strain and force accounting.","contrary_outcome":"Force remains compressive after instrument correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can compressing a constrained soft polymer cause a delayed tensile normal force experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0611","id":"S3-0611","volume":"900v3","title":"Crystal growth noise causality","prediction":"Transport and attachment dominate different faces.","test":"Image safe salt growth with local concentration and face velocity.","contrary":"All faces show the same causal lag.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0611","title":"Crystal growth noise causality","question":"Can concentration fluctuations lead growth-rate fluctuations at one face but lag them at another?","prediction":"Transport and attachment dominate different faces.","test":"Image safe salt growth with local concentration and face velocity.","contrary_outcome":"All faces show the same causal lag.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0612","id":"S3-0612","volume":"900v3","title":"Hydrogel friction water census","prediction":"Surface depletion tracks friction while bulk gravimetry stays constant.","test":"Use safe hydrogels with surface-sensitive hydration imaging.","contrary":"Friction follows only total water mass.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0612","title":"Hydrogel friction water census","question":"Can friction rise while total water content is unchanged because surface water redistributes?","prediction":"Surface depletion tracks friction while bulk gravimetry stays constant.","test":"Use safe hydrogels with surface-sensitive hydration imaging.","contrary_outcome":"Friction follows only total water mass.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0613","id":"S3-0613","volume":"900v3","title":"Foam coarsening mechanical stop","prediction":"Stressed regions retain bubble-size distributions longer.","test":"Use benign foams with calibrated stress and gas-transfer controls.","contrary":"Coarsening rate is stress-independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0613","title":"Foam coarsening mechanical stop","question":"Can a weak imposed stress arrest coarsening locally without changing gas diffusion properties?","prediction":"Stressed regions retain bubble-size distributions longer.","test":"Use benign foams with calibrated stress and gas-transfer controls.","contrary_outcome":"Coarsening rate is stress-independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0614","id":"S3-0614","volume":"900v3","title":"Polymer thermal-expansion memory","prediction":"Internal mode relaxation produces opposite strain rates.","test":"Use safe polymers with calibrated uniform-temperature holds and dilatometry.","contrary":"Strain rate depends only on current temperature.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0614","title":"Polymer thermal-expansion memory","question":"Can equal average temperature hide opposite expansion transients after different heating histories?","prediction":"Internal mode relaxation produces opposite strain rates.","test":"Use safe polymers with calibrated uniform-temperature holds and dilatometry.","contrary_outcome":"Strain rate depends only on current temperature.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0615","id":"S3-0615","volume":"900v3","title":"Gel deswelling channel birth","prediction":"Localized collapse opens a crack-like solvent path.","test":"Use safe transparent hydrogels with flow and 3D imaging.","contrary":"All local conductance decreases with average conductance.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0615","title":"Gel deswelling channel birth","question":"Can a gel create a temporary high-permeability channel while its average permeability falls?","prediction":"Localized collapse opens a crack-like solvent path.","test":"Use safe transparent hydrogels with flow and 3D imaging.","contrary_outcome":"All local conductance decreases with average conductance.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0616","id":"S3-0616","volume":"900v3","title":"Crystal facet kinetic crossover","prediction":"Velocity ranking changes without a bulk transport change.","test":"Track benign crystal faces and step morphology under controlled solution flow.","contrary":"Rank changes require changing supersaturation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0616","title":"Crystal facet kinetic crossover","question":"Can a face-growth ranking reverse during one constant-supersaturation run because step-source populations evolve?","prediction":"Velocity ranking changes without a bulk transport change.","test":"Track benign crystal faces and step morphology under controlled solution flow.","contrary_outcome":"Rank changes require changing supersaturation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0617","id":"S3-0617","volume":"900v3","title":"Colloidal wall acoustic layer","prediction":"Attenuation tracks layer thickness rather than total solids.","test":"Use safe inert suspensions with depth-resolved concentration imaging.","contrary":"Bulk concentration alone predicts attenuation.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0617","title":"Colloidal wall acoustic layer","question":"Can a near-wall particle layer dominate acoustic attenuation despite negligible bulk concentration change?","prediction":"Attenuation tracks layer thickness rather than total solids.","test":"Use safe inert suspensions with depth-resolved concentration imaging.","contrary_outcome":"Bulk concentration alone predicts attenuation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0618","id":"S3-0618","volume":"900v3","title":"Soft composite thermal warping","prediction":"Warping persists with matched average expansion coefficients.","test":"Use safe patterned bilayers with full thermal and strain maps.","contrary":"Average mismatch predicts all warping.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0618","title":"Soft composite thermal warping","question":"Can one inclusion create a global shape change through elastic incompatibility despite negligible total thermal expansion mismatch?","prediction":"Warping persists with matched average expansion coefficients.","test":"Use safe patterned bilayers with full thermal and strain maps.","contrary_outcome":"Average mismatch predicts all warping.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0619","id":"S3-0619","volume":"900v3","title":"Gel fracture solvent release","prediction":"Local pressure release expels liquid ahead of the visible opening.","test":"Use safe hydrogels with tracer imaging and crack-tip pressure proxies.","contrary":"Solvent flow follows only resolved crack volume.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0619","title":"Gel fracture solvent release","question":"Can a propagating crack emit a solvent pulse before opening enough for bulk drainage?","prediction":"Local pressure release expels liquid ahead of the visible opening.","test":"Use safe hydrogels with tracer imaging and crack-tip pressure proxies.","contrary_outcome":"Solvent flow follows only resolved crack volume.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0620","id":"S3-0620","volume":"900v3","title":"Crystal boundary migration clock","prediction":"Mode damping changes with moving boundary area at fixed mean grain size.","test":"Use benign polycrystalline ice analogues with optical grain maps.","contrary":"Only mean grain size controls the response.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0620","title":"Crystal boundary migration clock","question":"Can low-amplitude acoustic response distinguish boundary migration from ordinary grain growth?","prediction":"Mode damping changes with moving boundary area at fixed mean grain size.","test":"Use benign polycrystalline ice analogues with optical grain maps.","contrary_outcome":"Only mean grain size controls the response.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0620","title":"Crystal boundary migration clock","question":"Can low-amplitude acoustic response distinguish boundary migration from ordinary grain growth?","prediction":"Mode damping changes with moving boundary area at fixed mean grain size.","test":"Use benign polycrystalline ice analogues with optical grain maps.","contrary_outcome":"Only mean grain size controls the response.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can low-amplitude acoustic response distinguish boundary migration from ordinary grain growth experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0621","id":"S3-0621","volume":"900v3","title":"Jammed emulsion stress geography","prediction":"Flow-induced stress maps peak away from geometrically narrow gaps.","test":"Use safe oil-water emulsions with calibrated microflow imaging.","contrary":"Stress maxima always coincide with closest contacts.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0621","title":"Jammed emulsion stress geography","question":"Can stress concentrate in a continuous-phase channel rather than in the closest droplet contacts?","prediction":"Flow-induced stress maps peak away from geometrically narrow gaps.","test":"Use safe oil-water emulsions with calibrated microflow imaging.","contrary_outcome":"Stress maxima always coincide with closest contacts.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0622","id":"S3-0622","volume":"900v3","title":"Polymer solvent exchange neutrality","prediction":"Internal solvent distribution retains hidden strain incompatibility.","test":"Use safe water-compatible polymer gels with spatial composition and stress imaging.","contrary":"Restored mass and dimensions imply zero residual stress.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0622","title":"Polymer solvent exchange neutrality","question":"Can a solvent-exchange cycle leave residual stress despite restored mass and dimensions?","prediction":"Internal solvent distribution retains hidden strain incompatibility.","test":"Use safe water-compatible polymer gels with spatial composition and stress imaging.","contrary_outcome":"Restored mass and dimensions imply zero residual stress.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0623","id":"S3-0623","volume":"900v3","title":"Interfacial rheology sampling bias","prediction":"Bulk drag contamination dominates shallow-versus-deep measurements differently.","test":"Use safe interfaces with independent surface-wave and probe measurements.","contrary":"Corrected contrast sign is depth-independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0623","title":"Interfacial rheology sampling bias","question":"Can a probe's immersion depth reverse the inferred sign of interfacial elastic contrast?","prediction":"Bulk drag contamination dominates shallow-versus-deep measurements differently.","test":"Use safe interfaces with independent surface-wave and probe measurements.","contrary_outcome":"Corrected contrast sign is depth-independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0624","id":"S3-0624","volume":"900v3","title":"Crystal nucleation boundary pulse","prediction":"Adsorbed precursor patches persist and select sites.","test":"Use benign salt microcells with washed-surface and unpulsed controls.","contrary":"Site distributions depend only on final bulk conditions.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0624","title":"Crystal nucleation boundary pulse","question":"Can a short concentration pulse alter later nucleation locations after the bulk has re-equilibrated?","prediction":"Adsorbed precursor patches persist and select sites.","test":"Use benign salt microcells with washed-surface and unpulsed controls.","contrary_outcome":"Site distributions depend only on final bulk conditions.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0625","id":"S3-0625","volume":"900v3","title":"Gel thermal conductivity path","prediction":"Transverse conductivity rises with independently mapped water pathways.","test":"Use safe hydrogels with multiaxis heat transport and water imaging.","contrary":"Conductivity follows polymer alignment alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0625","title":"Gel thermal conductivity path","question":"Can stretching a gel increase heat conduction transversely through expelled-water channels?","prediction":"Transverse conductivity rises with independently mapped water pathways.","test":"Use safe hydrogels with multiaxis heat transport and water imaging.","contrary_outcome":"Conductivity follows polymer alignment alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0626","id":"S3-0626","volume":"900v3","title":"Particle raft fracture healing","prediction":"Capillary bridges reconnect across a fixed gap.","test":"Use inert floating particles with force and topological imaging.","contrary":"Strength recovery requires particle rearrangement.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0626","title":"Particle raft fracture healing","question":"Can a broken particle raft recover tensile strength without particles crossing the former crack?","prediction":"Capillary bridges reconnect across a fixed gap.","test":"Use inert floating particles with force and topological imaging.","contrary_outcome":"Strength recovery requires particle rearrangement.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0627","id":"S3-0627","volume":"900v3","title":"Polymer wrinkle solvent fingerprint","prediction":"Wavelength and amplitude decay respond differently to independently controlled loss paths.","test":"Use safe water-swollen films with sealed and open surfaces.","contrary":"Both mechanisms yield indistinguishable normalized wrinkles.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0627","title":"Polymer wrinkle solvent fingerprint","question":"Can wrinkle relaxation distinguish surface evaporation from internal solvent diffusion?","prediction":"Wavelength and amplitude decay respond differently to independently controlled loss paths.","test":"Use safe water-swollen films with sealed and open surfaces.","contrary_outcome":"Both mechanisms yield indistinguishable normalized wrinkles.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0628","id":"S3-0628","volume":"900v3","title":"Crystal strain source localization","prediction":"Pit anisotropy tracks the independently mapped elastic field.","test":"Use benign transparent crystals with inert inclusions and strain imaging.","contrary":"Pit shapes depend only on surface defects.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0628","title":"Crystal strain source localization","question":"Can a buried inclusion's position be inferred from the angular evolution of dissolution pits?","prediction":"Pit anisotropy tracks the independently mapped elastic field.","test":"Use benign transparent crystals with inert inclusions and strain imaging.","contrary_outcome":"Pit shapes depend only on surface defects.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0629","id":"S3-0629","volume":"900v3","title":"Soft glass rejuvenation boundary","prediction":"Remote relaxation accelerates through stress redistribution.","test":"Use safe dense inert suspensions with particle tracking and local forcing.","contrary":"Changes remain confined to the sheared region.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0629","title":"Soft glass rejuvenation boundary","question":"Can localized shear rejuvenate a remote region without net particle transport between them?","prediction":"Remote relaxation accelerates through stress redistribution.","test":"Use safe dense inert suspensions with particle tracking and local forcing.","contrary_outcome":"Changes remain confined to the sheared region.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0630","id":"S3-0630","volume":"900v3","title":"Gel adhesion hydration phase","prediction":"Surface hydration and bulk compliance relax on different clocks.","test":"Use safe hydrogel contacts with force, water and modulus measurements.","contrary":"Adhesion depends only on instantaneous water content.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0630","title":"Gel adhesion hydration phase","question":"Can adhesion be largest at an intermediate phase of a hydration cycle even at equal contact time?","prediction":"Surface hydration and bulk compliance relax on different clocks.","test":"Use safe hydrogel contacts with force, water and modulus measurements.","contrary_outcome":"Adhesion depends only on instantaneous water content.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0630","title":"Gel adhesion hydration phase","question":"Can adhesion be largest at an intermediate phase of a hydration cycle even at equal contact time?","prediction":"Surface hydration and bulk compliance relax on different clocks.","test":"Use safe hydrogel contacts with force, water and modulus measurements.","contrary_outcome":"Adhesion depends only on instantaneous water content.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can adhesion be largest at an intermediate phase of a hydration cycle even at equal contact time experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0631","id":"S3-0631","volume":"900v3","title":"Crystal wall detachment heating","prediction":"Face velocity shifts with a measured thermal-contact transient.","test":"Use benign crystals with controlled reversible supports and local thermometry.","contrary":"Growth changes only after concentration shifts.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0631","title":"Crystal wall detachment heating","question":"Can detaching a crystal from its wall alter growth through thermal resistance before concentration changes?","prediction":"Face velocity shifts with a measured thermal-contact transient.","test":"Use benign crystals with controlled reversible supports and local thermometry.","contrary_outcome":"Growth changes only after concentration shifts.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0632","id":"S3-0632","volume":"900v3","title":"Colloidal settling acoustic ratio","prediction":"Frequency ratios identify independently imaged aggregate distributions.","test":"Use safe inert slurries and low-power ultrasound.","contrary":"Size and concentration remain degenerate.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0632","title":"Colloidal settling acoustic ratio","question":"Can two acoustic frequencies separate aggregate size from total concentration?","prediction":"Frequency ratios identify independently imaged aggregate distributions.","test":"Use safe inert slurries and low-power ultrasound.","contrary_outcome":"Size and concentration remain degenerate.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0633","id":"S3-0633","volume":"900v3","title":"Polymer relaxation spatial front","prediction":"Local relaxation triggers neighboring strain redistribution.","test":"Use safe heterogeneous-relaxation strips with full-field force/strain imaging.","contrary":"Relaxation occurs independently at each location.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0633","title":"Polymer relaxation spatial front","question":"Can a stress-relaxation front propagate through a uniformly strained strip without a temperature front?","prediction":"Local relaxation triggers neighboring strain redistribution.","test":"Use safe heterogeneous-relaxation strips with full-field force/strain imaging.","contrary_outcome":"Relaxation occurs independently at each location.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0634","id":"S3-0634","volume":"900v3","title":"Gel pore pressure sign","prediction":"Elastic constraint creates opposing local pressure offsets.","test":"Use safe calibrated gel geometries with pressure-sensitive optical probes.","contrary":"All regions share one pressure within uncertainty.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0634","title":"Gel pore pressure sign","question":"Can a swelling gel contain simultaneous positive and negative pore-pressure regions at equilibrium with one bath?","prediction":"Elastic constraint creates opposing local pressure offsets.","test":"Use safe calibrated gel geometries with pressure-sensitive optical probes.","contrary_outcome":"All regions share one pressure within uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0635","id":"S3-0635","volume":"900v3","title":"Crystal dissolution noise floor","prediction":"Fluctuation correlation time rises before a pit-opening event.","test":"Use benign crystal interferometry with drift-controlled imaging.","contrary":"Fluctuations have no predictive lead.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0635","title":"Crystal dissolution noise floor","question":"Can surface fluctuations predict dissolution intermittency before mean retreat accelerates?","prediction":"Fluctuation correlation time rises before a pit-opening event.","test":"Use benign crystal interferometry with drift-controlled imaging.","contrary_outcome":"Fluctuations have no predictive lead.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0636","id":"S3-0636","volume":"900v3","title":"Particle suspension shear echo","prediction":"Contact-state memory survives geometric reversibility.","test":"Use safe dense inert suspensions with particle and force tracking.","contrary":"Stress returns whenever positions return.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0636","title":"Particle suspension shear echo","question":"Can reversing a small shear restore particle positions while failing to restore stress?","prediction":"Contact-state memory survives geometric reversibility.","test":"Use safe dense inert suspensions with particle and force tracking.","contrary_outcome":"Stress returns whenever positions return.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0637","id":"S3-0637","volume":"900v3","title":"Polymer thickness resonance","prediction":"Resonance asymmetry tracks independently imaged depth profiles.","test":"Use safe water-compatible coatings and low-power acoustic probes.","contrary":"Only mean solvent fraction predicts resonance.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0637","title":"Polymer thickness resonance","question":"Can a coating's thickness resonance reveal solvent gradients invisible in average mass uptake?","prediction":"Resonance asymmetry tracks independently imaged depth profiles.","test":"Use safe water-compatible coatings and low-power acoustic probes.","contrary_outcome":"Only mean solvent fraction predicts resonance.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0638","id":"S3-0638","volume":"900v3","title":"Gel freezing stress partition","prediction":"Elastic displacement transfers stress beyond thermal diffusion.","test":"Use safe transparent gels with water freezing and full-field strain.","contrary":"Distant stress begins only upon local freezing.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0638","title":"Gel freezing stress partition","question":"Can freezing one region compress a distant thawed region before an ice front arrives?","prediction":"Elastic displacement transfers stress beyond thermal diffusion.","test":"Use safe transparent gels with water freezing and full-field strain.","contrary_outcome":"Distant stress begins only upon local freezing.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0639","id":"S3-0639","volume":"900v3","title":"Crystal step collision memory","prediction":"Subsequent step velocity stays reduced at the collision line.","test":"Use benign face-growth microscopy under fixed supersaturation.","contrary":"Velocity recovers immediately after merging.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0639","title":"Crystal step collision memory","question":"Can colliding growth steps leave a kinetic slow zone after their visible edges merge?","prediction":"Subsequent step velocity stays reduced at the collision line.","test":"Use benign face-growth microscopy under fixed supersaturation.","contrary_outcome":"Velocity recovers immediately after merging.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0640","id":"S3-0640","volume":"900v3","title":"Soft particle thermal packing","prediction":"Contact topology crosses a rigidity threshold.","test":"Use safe mixed-compliance beads with thermal and contact imaging.","contrary":"Rigidity changes smoothly with material modulus alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0640","title":"Soft particle thermal packing","question":"Can mild differential expansion change a pack's rigidity without changing particle count or boundary volume?","prediction":"Contact topology crosses a rigidity threshold.","test":"Use safe mixed-compliance beads with thermal and contact imaging.","contrary_outcome":"Rigidity changes smoothly with material modulus alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0641","id":"S3-0641","volume":"900v3","title":"Interfacial film fracture clock","prediction":"Age-dependent surface elasticity controls propagation.","test":"Use benign surfactant films with tension, rheology and crack imaging.","contrary":"Tension alone predicts crack speed.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0641","title":"Interfacial film fracture clock","question":"Can a surface film's crack speed depend on age more strongly than on measured surface tension?","prediction":"Age-dependent surface elasticity controls propagation.","test":"Use benign surfactant films with tension, rheology and crack imaging.","contrary_outcome":"Tension alone predicts crack speed.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0642","id":"S3-0642","volume":"900v3","title":"Polymer indentation thermal lag","prediction":"Isothermal contact removes the extra relaxation tail.","test":"Use safe polymers with calibrated probe temperature and optical displacement.","contrary":"The tail remains independent of probe temperature.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0642","title":"Polymer indentation thermal lag","question":"Can indentation recovery appear slower because the probe creates a local temperature gradient?","prediction":"Isothermal contact removes the extra relaxation tail.","test":"Use safe polymers with calibrated probe temperature and optical displacement.","contrary_outcome":"The tail remains independent of probe temperature.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0643","id":"S3-0643","volume":"900v3","title":"Crystal impurity geometric trap","prediction":"Defect paths follow inclusion curvature rather than concentration gradients.","test":"Use benign crystals around inert shaped fibers with strain maps.","contrary":"Defects ignore inclusion geometry after transport correction.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0643","title":"Crystal impurity geometric trap","question":"Can an inert inclusion redirect growth defects without changing dissolved chemistry?","prediction":"Defect paths follow inclusion curvature rather than concentration gradients.","test":"Use benign crystals around inert shaped fibers with strain maps.","contrary_outcome":"Defects ignore inclusion geometry after transport correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0644","id":"S3-0644","volume":"900v3","title":"Gel volume conservation audit","prediction":"3D volume increases while a chosen projected area decreases.","test":"Use safe gels with stereo shape and gravimetric measurements.","contrary":"Projection and true volume always change together.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0644","title":"Gel volume conservation audit","question":"Can apparent negative swelling arise from projection changes rather than actual volume loss?","prediction":"3D volume increases while a chosen projected area decreases.","test":"Use safe gels with stereo shape and gravimetric measurements.","contrary_outcome":"Projection and true volume always change together.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0645","id":"S3-0645","volume":"900v3","title":"Colloidal domain wall memory","prediction":"Domain orientation persists after volume recovery.","test":"Use safe concentrated inert particles with scattering and imaging.","contrary":"Domains randomize once density returns.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0645","title":"Colloidal domain wall memory","question":"Can a transient compression select long-lived orientational domains at restored density?","prediction":"Domain orientation persists after volume recovery.","test":"Use safe concentrated inert particles with scattering and imaging.","contrary_outcome":"Domains randomize once density returns.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0646","id":"S3-0646","volume":"900v3","title":"Polymer surface relaxation split","prediction":"Depth-resolved response shows a surface-specific time scale.","test":"Use safe transparent films with optical strain probes at several depths.","contrary":"One bulk relaxation spectrum fits all depths.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0646","title":"Polymer surface relaxation split","question":"Can a free surface relax strain faster than the same material's interior?","prediction":"Depth-resolved response shows a surface-specific time scale.","test":"Use safe transparent films with optical strain probes at several depths.","contrary_outcome":"One bulk relaxation spectrum fits all depths.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0647","id":"S3-0647","volume":"900v3","title":"Crystal hydrate pore sealing","prediction":"Swelling narrows critical throats to the gas percolation threshold.","test":"Use benign safe hydrates in transparent pore networks with gas flow and imaging.","contrary":"Sealing requires complete solid closure.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0647","title":"Crystal hydrate pore sealing","question":"Can hydration improve gas sealing before creating a continuous solid barrier?","prediction":"Swelling narrows critical throats to the gas percolation threshold.","test":"Use benign safe hydrates in transparent pore networks with gas flow and imaging.","contrary_outcome":"Sealing requires complete solid closure.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0648","id":"S3-0648","volume":"900v3","title":"Gel crack-path steering","prediction":"Path bends opposite a stiffness-only prediction.","test":"Use safe hydrogels with independent modulus and fracture-energy maps.","contrary":"Cracks always follow the softer path.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0648","title":"Gel crack-path steering","question":"Can a hydration gradient steer a crack toward stiffer material because fracture energy changes faster than modulus?","prediction":"Path bends opposite a stiffness-only prediction.","test":"Use safe hydrogels with independent modulus and fracture-energy maps.","contrary_outcome":"Cracks always follow the softer path.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0649","id":"S3-0649","volume":"900v3","title":"Particle raft thermal lens","prediction":"Thermal flow precedes particle redistribution.","test":"Use safe low-power illumination with infrared and particle velocimetry.","contrary":"Reorganization is explained by direct radiation pressure or wind.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0649","title":"Particle raft thermal lens","question":"Can a floating inert raft create a water-temperature pattern through shading that later reorganizes the raft?","prediction":"Thermal flow precedes particle redistribution.","test":"Use safe low-power illumination with infrared and particle velocimetry.","contrary_outcome":"Reorganization is explained by direct radiation pressure or wind.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0650","id":"S3-0650","volume":"900v3","title":"Polymer mechanical color bias","prediction":"Polarization control removes apparent compositional contrast.","test":"Use safe films with independent chemical concentration measurements.","contrary":"Contrast remains concentration-specific under all polarizations.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0650","title":"Polymer mechanical color bias","question":"Can stress-induced optical color imitate a concentration gradient in a swelling film?","prediction":"Polarization control removes apparent compositional contrast.","test":"Use safe films with independent chemical concentration measurements.","contrary_outcome":"Contrast remains concentration-specific under all polarizations.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0650","title":"Polymer mechanical color bias","question":"Can stress-induced optical color imitate a concentration gradient in a swelling film?","prediction":"Polarization control removes apparent compositional contrast.","test":"Use safe films with independent chemical concentration measurements.","contrary_outcome":"Contrast remains concentration-specific under all polarizations.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can stress-induced optical color imitate a concentration gradient in a swelling film experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0651","id":"S3-0651","volume":"900v3","title":"Crystal growth-stop strain","prediction":"Defect relaxation changes birefringence without mass change.","test":"Use benign transparent crystals with sealed equilibrium solution.","contrary":"Strain remains constant once growth ceases.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0651","title":"Crystal growth-stop strain","question":"Can a crystal keep relaxing strain after growth stops at constant temperature and composition?","prediction":"Defect relaxation changes birefringence without mass change.","test":"Use benign transparent crystals with sealed equilibrium solution.","contrary_outcome":"Strain remains constant once growth ceases.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0652","id":"S3-0652","volume":"900v3","title":"Gel microchannel collapse memory","prediction":"Wall adhesion ages during contact.","test":"Use safe water-filled gel channels with pressure and 3D contact imaging.","contrary":"Opening pressure depends only on instantaneous geometry.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0652","title":"Gel microchannel collapse memory","question":"Can a collapsed soft channel reopen at a different pressure after a long hold?","prediction":"Wall adhesion ages during contact.","test":"Use safe water-filled gel channels with pressure and 3D contact imaging.","contrary_outcome":"Opening pressure depends only on instantaneous geometry.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0653","id":"S3-0653","volume":"900v3","title":"Colloidal interfacial trapping","prediction":"Particles migrate with curvature gradient according to measured wetting depth.","test":"Use safe coated particles at benign interfaces with 3D tracking.","contrary":"Sorting follows density or size alone.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0653","title":"Colloidal interfacial trapping","question":"Can interface curvature sort equal-size inert particles by immersion depth rather than density?","prediction":"Particles migrate with curvature gradient according to measured wetting depth.","test":"Use safe coated particles at benign interfaces with 3D tracking.","contrary_outcome":"Sorting follows density or size alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0654","id":"S3-0654","volume":"900v3","title":"Polymer thermal wave orientation","prediction":"Phase reveals anisotropy below amplitude uncertainty.","test":"Use safe oriented films with independent conductivity standards.","contrary":"Phase adds no sensitivity after instrument correction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0654","title":"Polymer thermal wave orientation","question":"Can aligned polymer chains alter thermal phase more than thermal amplitude in a thin-film measurement?","prediction":"Phase reveals anisotropy below amplitude uncertainty.","test":"Use safe oriented films with independent conductivity standards.","contrary_outcome":"Phase adds no sensitivity after instrument correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0655","id":"S3-0655","volume":"900v3","title":"Crystal defect dissolution echo","prediction":"Regrown pits align with defects surviving below the removed layer.","test":"Use benign crystals with mapped defect depths and serial imaging.","contrary":"Surface patterns reset independently after dissolution.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0655","title":"Crystal defect dissolution echo","question":"Can dissolving and regrowing a thin layer preserve buried defect positions in the new surface pattern?","prediction":"Regrown pits align with defects surviving below the removed layer.","test":"Use benign crystals with mapped defect depths and serial imaging.","contrary_outcome":"Surface patterns reset independently after dissolution.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0656","id":"S3-0656","volume":"900v3","title":"Gel osmotic force overshoot","prediction":"Fast surface deswelling and slow core relaxation compete.","test":"Use safe hydrogel blocks with force and depth-resolved water imaging.","contrary":"Force approaches equilibrium monotonically.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0656","title":"Gel osmotic force overshoot","question":"Can a step in bath concentration cause a force overshoot before volume reaches its final value?","prediction":"Fast surface deswelling and slow core relaxation compete.","test":"Use safe hydrogel blocks with force and depth-resolved water imaging.","contrary_outcome":"Force approaches equilibrium monotonically.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0657","id":"S3-0657","volume":"900v3","title":"Particle suspension thermal memory","prediction":"Viscosity differences track independently imaged aggregates.","test":"Use safe inert slurries with matched temperature histories except mixing.","contrary":"Differences vanish when temperature matches, regardless of aggregation.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0657","title":"Particle suspension thermal memory","question":"Can identical final temperatures yield different viscosities because convection altered aggregation history?","prediction":"Viscosity differences track independently imaged aggregates.","test":"Use safe inert slurries with matched temperature histories except mixing.","contrary_outcome":"Differences vanish when temperature matches, regardless of aggregation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0658","id":"S3-0658","volume":"900v3","title":"Polymer interface heat conduction","prediction":"Microscopic contact area remains history-dependent.","test":"Use safe polymer laminates with thermal pulses and contact imaging.","contrary":"Conductance depends only on current pressure.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0658","title":"Polymer interface heat conduction","question":"Can bonding pressure leave a thermal-conductance memory after pressure release without visible delamination?","prediction":"Microscopic contact area remains history-dependent.","test":"Use safe polymer laminates with thermal pulses and contact imaging.","contrary_outcome":"Conductance depends only on current pressure.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0659","id":"S3-0659","volume":"900v3","title":"Crystal coarsening confinement","prediction":"Boundary motion stalls geometrically despite measurable diffusion.","test":"Use benign crystals in transparent confined channels.","contrary":"Coarsening proceeds whenever solute exchange persists.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0659","title":"Crystal coarsening confinement","question":"Can a narrow throat halt grain coarsening while allowing continued solute exchange?","prediction":"Boundary motion stalls geometrically despite measurable diffusion.","test":"Use benign crystals in transparent confined channels.","contrary_outcome":"Coarsening proceeds whenever solute exchange persists.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0660","id":"S3-0660","volume":"900v3","title":"Gel shear-induced dehydration","prediction":"Water migrates to low-stress regions inside the sample.","test":"Use safe transparent gels with local water and strain mapping.","contrary":"Water distribution remains uniform during shear.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0660","title":"Gel shear-induced dehydration","question":"Can a shear pulse expel water locally without changing total sample mass?","prediction":"Water migrates to low-stress regions inside the sample.","test":"Use safe transparent gels with local water and strain mapping.","contrary_outcome":"Water distribution remains uniform during shear.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0661","id":"S3-0661","volume":"900v3","title":"Particle raft bending mode","prediction":"Capillary contact stiffness sets a reversible bending band.","test":"Use safe floating grains with weak excitation and saturation imaging.","contrary":"Only particle mass determines the band.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0661","title":"Particle raft bending mode","question":"Can an inert particle raft support bending oscillations that disappear under slight liquid saturation change?","prediction":"Capillary contact stiffness sets a reversible bending band.","test":"Use safe floating grains with weak excitation and saturation imaging.","contrary_outcome":"Only particle mass determines the band.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0662","id":"S3-0662","volume":"900v3","title":"Polymer crack arrest time","prediction":"Delayed restart aligns with measured viscoelastic stress transfer.","test":"Use safe restrained polymer coupons with force and strain maps.","contrary":"Restart requires added load or temperature change.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0662","title":"Polymer crack arrest time","question":"Can a crack arrest during a hold and restart under unchanged load because stress redistributes slowly?","prediction":"Delayed restart aligns with measured viscoelastic stress transfer.","test":"Use safe restrained polymer coupons with force and strain maps.","contrary_outcome":"Restart requires added load or temperature change.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0663","id":"S3-0663","volume":"900v3","title":"Crystal surface charging artifact","prediction":"Grounding removes particle enrichment without changing growth conditions.","test":"Use benign crystals, safe inert dust and low-voltage field monitoring.","contrary":"Enrichment persists after field neutralization.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0663","title":"Crystal surface charging artifact","question":"Can electrostatic dust attraction imitate preferential crystal-face impurity adsorption?","prediction":"Grounding removes particle enrichment without changing growth conditions.","test":"Use benign crystals, safe inert dust and low-voltage field monitoring.","contrary_outcome":"Enrichment persists after field neutralization.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0664","id":"S3-0664","volume":"900v3","title":"Gel thermal-contact inversion","prediction":"Internal temperature gradients remain constant while interface drops shrink.","test":"Measure safe gels with embedded and surface thermometry.","contrary":"Bulk gradient changes explain the full rise.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0664","title":"Gel thermal-contact inversion","question":"Can a soft gel's apparent conductivity rise under pressure mainly through boundary improvement?","prediction":"Internal temperature gradients remain constant while interface drops shrink.","test":"Measure safe gels with embedded and surface thermometry.","contrary_outcome":"Bulk gradient changes explain the full rise.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0665","id":"S3-0665","volume":"900v3","title":"Colloidal cage escape timing","prediction":"Escape phase locks while long-time displacement variance stays constant.","test":"Use safe dense inert particle suspensions with full trajectories.","contrary":"Synchronization requires increased long-time diffusion.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0665","title":"Colloidal cage escape timing","question":"Can a weak global oscillation synchronize cage escapes without increasing mean diffusion?","prediction":"Escape phase locks while long-time displacement variance stays constant.","test":"Use safe dense inert particle suspensions with full trajectories.","contrary_outcome":"Synchronization requires increased long-time diffusion.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0666","id":"S3-0666","volume":"900v3","title":"Polymer porous skin acoustics","prediction":"Reflection shifts before measurable permeability change.","test":"Use safe porous polymers with calibrated removable skins.","contrary":"Both properties track skin thickness identically.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0666","title":"Polymer porous skin acoustics","question":"Can a thin dense skin dominate acoustic reflection while leaving bulk airflow permeability nearly unchanged?","prediction":"Reflection shifts before measurable permeability change.","test":"Use safe porous polymers with calibrated removable skins.","contrary_outcome":"Both properties track skin thickness identically.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0667","id":"S3-0667","volume":"900v3","title":"Crystal lamella rotation","prediction":"Rotation reverses when the dissolving face is swapped.","test":"Use benign salt crystals with density-matched supports and flow imaging.","contrary":"Rotation follows gravity or external flow only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0667","title":"Crystal lamella rotation","question":"Can dissolving one face rotate a freely suspended crystal through asymmetric solutal flow?","prediction":"Rotation reverses when the dissolving face is swapped.","test":"Use benign salt crystals with density-matched supports and flow imaging.","contrary_outcome":"Rotation follows gravity or external flow only.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0668","id":"S3-0668","volume":"900v3","title":"Gel water activity front","prediction":"Pressure contrasts correlate with strain at matched hydration.","test":"Use safe gels with calibrated optical pressure and water probes.","contrary":"Water content uniquely determines pressure.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0668","title":"Gel water activity front","question":"Can two regions with equal water content have different local osmotic pressure because polymer strain differs?","prediction":"Pressure contrasts correlate with strain at matched hydration.","test":"Use safe gels with calibrated optical pressure and water probes.","contrary_outcome":"Water content uniquely determines pressure.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0669","id":"S3-0669","volume":"900v3","title":"Particle contact melting","prediction":"Interfacial premelting softens the contact first.","test":"Use safe ice-bonded grains with microforce and optical thickness measurements.","contrary":"Strength loss begins only after bulk melt is resolved.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0669","title":"Particle contact melting","question":"Can a tiny ice neck lose load capacity before measurable melt mass appears?","prediction":"Interfacial premelting softens the contact first.","test":"Use safe ice-bonded grains with microforce and optical thickness measurements.","contrary_outcome":"Strength loss begins only after bulk melt is resolved.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0670","id":"S3-0670","volume":"900v3","title":"Polymer optical-mode creep","prediction":"Internal stress shifts mode coupling before shape metrology resolves motion.","test":"Use safe transparent polymer guides under small sustained loads.","contrary":"Mode changes follow only resolved dimensional drift.","layers":[1,2],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0670","title":"Polymer optical-mode creep","question":"Can a waveguide's mode distribution reveal creep before its outer dimensions change?","prediction":"Internal stress shifts mode coupling before shape metrology resolves motion.","test":"Use safe transparent polymer guides under small sustained loads.","contrary_outcome":"Mode changes follow only resolved dimensional drift.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0670","title":"Polymer optical-mode creep","question":"Can a waveguide's mode distribution reveal creep before its outer dimensions change?","prediction":"Internal stress shifts mode coupling before shape metrology resolves motion.","test":"Use safe transparent polymer guides under small sustained loads.","contrary_outcome":"Mode changes follow only resolved dimensional drift.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a waveguide's mode distribution reveal creep before its outer dimensions change experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0671","id":"S3-0671","volume":"900v3","title":"Crystal growth-vibration coupling","prediction":"Boundary-layer redistribution reduces spatial variance at fixed solute flux.","test":"Use benign crystal cells with flow and vibration controls.","contrary":"Uniformity improves only with increased mean growth.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0671","title":"Crystal growth-vibration coupling","question":"Can weak vibration improve growth uniformity without increasing mean growth rate?","prediction":"Boundary-layer redistribution reduces spatial variance at fixed solute flux.","test":"Use benign crystal cells with flow and vibration controls.","contrary_outcome":"Uniformity improves only with increased mean growth.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0672","id":"S3-0672","volume":"900v3","title":"Gel boundary pressure release","prediction":"Pressure equilibration precedes bulk mass loss.","test":"Use safe gels with local drains, force sensors and water imaging.","contrary":"Stress relaxation tracks total expelled mass.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0672","title":"Gel boundary pressure release","question":"Can opening a tiny drain relax stress throughout a gel faster than solvent can leave globally?","prediction":"Pressure equilibration precedes bulk mass loss.","test":"Use safe gels with local drains, force sensors and water imaging.","contrary_outcome":"Stress relaxation tracks total expelled mass.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0673","id":"S3-0673","volume":"900v3","title":"Colloidal settling interface pulse","prediction":"Collective fluid acceleration produces a measurable low-frequency signal.","test":"Use safe inert settling columns with passive acoustic and velocity sensing.","contrary":"Signals arise only from wall impacts.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0673","title":"Colloidal settling interface pulse","question":"Can a concentration front generate an acoustic pulse without particle collisions?","prediction":"Collective fluid acceleration produces a measurable low-frequency signal.","test":"Use safe inert settling columns with passive acoustic and velocity sensing.","contrary_outcome":"Signals arise only from wall impacts.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0674","id":"S3-0674","volume":"900v3","title":"Polymer thermal-stress sign","prediction":"Full-field stress sign differs from a one-dimensional prediction.","test":"Use safe curved laminates with calibrated expansion coefficients.","contrary":"One-dimensional thermal mismatch predicts every local sign.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0674","title":"Polymer thermal-stress sign","question":"Can cooling a constrained laminate put a nominally expanding layer into tension through geometry?","prediction":"Full-field stress sign differs from a one-dimensional prediction.","test":"Use safe curved laminates with calibrated expansion coefficients.","contrary_outcome":"One-dimensional thermal mismatch predicts every local sign.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0675","id":"S3-0675","volume":"900v3","title":"Crystal dislocation transport","prediction":"Pit advance leads the average face.","test":"Use benign crystals with independently mapped strain and face retreat.","contrary":"Local dissolution follows curvature alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0675","title":"Crystal dislocation transport","question":"Can slow dissolution expose a dislocation faster than geometric retreat predicts because strain raises local solubility?","prediction":"Pit advance leads the average face.","test":"Use benign crystals with independently mapped strain and face retreat.","contrary_outcome":"Local dissolution follows curvature alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0676","id":"S3-0676","volume":"900v3","title":"Gel crack hydraulic screening","prediction":"Inflow falls without liquid exchange between cracks.","test":"Use safe transparent gels with isolated channels and pressure sensing.","contrary":"Only direct hydraulic connections affect inflow.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0676","title":"Gel crack hydraulic screening","question":"Can a neighboring sealed crack reduce flow into an opening crack through elastic pressure coupling?","prediction":"Inflow falls without liquid exchange between cracks.","test":"Use safe transparent gels with isolated channels and pressure sensing.","contrary_outcome":"Only direct hydraulic connections affect inflow.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0677","id":"S3-0677","volume":"900v3","title":"Particle raft evaporation edge","prediction":"Capillary attraction overcomes local advection near the rim.","test":"Use safe inert floating particles with surface and bulk velocimetry.","contrary":"Particle velocity always follows local surface flow.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0677","title":"Particle raft evaporation edge","question":"Can edge evaporation create inward particle transport while bulk surface flow is outward?","prediction":"Capillary attraction overcomes local advection near the rim.","test":"Use safe inert floating particles with surface and bulk velocimetry.","contrary_outcome":"Particle velocity always follows local surface flow.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0678","id":"S3-0678","volume":"900v3","title":"Polymer relaxation thermometer","prediction":"Calibration collapses across histories after a fixed reset protocol.","test":"Use safe polymer standards with traceable thermal and force histories.","contrary":"History dependence remains irreducible at fixed temperature.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0678","title":"Polymer relaxation thermometer","question":"Can a known mechanical relaxation time serve as a local thermometer only after stress history is standardized?","prediction":"Calibration collapses across histories after a fixed reset protocol.","test":"Use safe polymer standards with traceable thermal and force histories.","contrary_outcome":"History dependence remains irreducible at fixed temperature.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0679","id":"S3-0679","volume":"900v3","title":"Crystal face acoustic loading","prediction":"Growth modulation remains when measured streaming is suppressed.","test":"Use benign salt growth with safe sound and full flow/pressure calibration.","contrary":"Growth changes vanish with streaming.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0679","title":"Crystal face acoustic loading","question":"Can weak sound alter a face-growth rate through pressure modulation rather than streaming?","prediction":"Growth modulation remains when measured streaming is suppressed.","test":"Use benign salt growth with safe sound and full flow/pressure calibration.","contrary_outcome":"Growth changes vanish with streaming.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0680","id":"S3-0680","volume":"900v3","title":"Gel opacity-strain separation","prediction":"Angular signatures differ for independently controlled perturbations.","test":"Use safe transparent gels with gravimetry and 3D pore imaging.","contrary":"Scattering responds only to total water content.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0680","title":"Gel opacity-strain separation","question":"Can multi-angle scattering separate pore collapse from water loss in a gel?","prediction":"Angular signatures differ for independently controlled perturbations.","test":"Use safe transparent gels with gravimetry and 3D pore imaging.","contrary_outcome":"Scattering responds only to total water content.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0681","id":"S3-0681","volume":"900v3","title":"Colloidal contact thermal bridges","prediction":"Conductivity rises with spanning aggregate probability at constant solids.","test":"Use safe inert slurries with imaging and guarded calorimetry.","contrary":"Volume fraction alone predicts conductivity.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0681","title":"Colloidal contact thermal bridges","question":"Can a minute aggregate fraction dominate heat conduction in an otherwise dilute suspension?","prediction":"Conductivity rises with spanning aggregate probability at constant solids.","test":"Use safe inert slurries with imaging and guarded calorimetry.","contrary_outcome":"Volume fraction alone predicts conductivity.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0682","id":"S3-0682","volume":"900v3","title":"Polymer crease reopening","prediction":"Delayed opening coincides with a local hydration gradient.","test":"Use safe water-compatible films with sealed mass balance and shape imaging.","contrary":"Opening requires external drying or force.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0682","title":"Polymer crease reopening","question":"Can a closed crease reopen at zero external load because solvent redistributes internally?","prediction":"Delayed opening coincides with a local hydration gradient.","test":"Use safe water-compatible films with sealed mass balance and shape imaging.","contrary_outcome":"Opening requires external drying or force.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0683","id":"S3-0683","volume":"900v3","title":"Crystal thin-film stress release","prediction":"Buckling precedes crack onset at matched crystal fraction.","test":"Use benign salt films on compliant supports with strain and topography.","contrary":"Cracks always precede stress-relieving buckles.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0683","title":"Crystal thin-film stress release","question":"Can a crystallizing film relax stress through out-of-plane buckles before cracks form?","prediction":"Buckling precedes crack onset at matched crystal fraction.","test":"Use benign salt films on compliant supports with strain and topography.","contrary_outcome":"Cracks always precede stress-relieving buckles.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0684","id":"S3-0684","volume":"900v3","title":"Gel capillary bridge migration","prediction":"Osmotic uptake shifts bridge volume and centroid.","test":"Use safe hydrogel pairs with independent hydration and geometry controls.","contrary":"Bridge position depends only on gravity and curvature.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0684","title":"Gel capillary bridge migration","question":"Can a liquid bridge between gels move toward the drier gel despite symmetric geometry?","prediction":"Osmotic uptake shifts bridge volume and centroid.","test":"Use safe hydrogel pairs with independent hydration and geometry controls.","contrary_outcome":"Bridge position depends only on gravity and curvature.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0685","id":"S3-0685","volume":"900v3","title":"Particle suspension boundary aging","prediction":"Near-wall particle layering changes slip length independently.","test":"Use safe dense inert suspensions with depth-resolved velocimetry.","contrary":"Slip is fixed whenever bulk viscosity is fixed.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0685","title":"Particle suspension boundary aging","question":"Can wall slip evolve while bulk rheology remains constant?","prediction":"Near-wall particle layering changes slip length independently.","test":"Use safe dense inert suspensions with depth-resolved velocimetry.","contrary_outcome":"Slip is fixed whenever bulk viscosity is fixed.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0686","id":"S3-0686","volume":"900v3","title":"Polymer thermal diffusivity aging","prediction":"Pulse phase drifts beyond the density-based prediction.","test":"Use safe polymer standards with independent density and heat-capacity measurements.","contrary":"Diffusivity changes are fully explained by density.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0686","title":"Polymer thermal diffusivity aging","question":"Can physical aging alter thermal diffusivity before density changes resolve?","prediction":"Pulse phase drifts beyond the density-based prediction.","test":"Use safe polymer standards with independent density and heat-capacity measurements.","contrary_outcome":"Diffusivity changes are fully explained by density.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0687","id":"S3-0687","volume":"900v3","title":"Crystal dissolution facet swap","prediction":"Rate asymmetry decays as step populations equilibrate.","test":"Use benign crystals with matched crystallographic faces and surface topography.","contrary":"Equivalent faces dissolve identically from first exposure.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0687","title":"Crystal dissolution facet swap","question":"Can a newly exposed facet dissolve more slowly than an old equivalent facet because step density differs?","prediction":"Rate asymmetry decays as step populations equilibrate.","test":"Use benign crystals with matched crystallographic faces and surface topography.","contrary_outcome":"Equivalent faces dissolve identically from first exposure.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0688","id":"S3-0688","volume":"900v3","title":"Gel elastic-energy hydration","prediction":"Uptake occurs only in the more strained region.","test":"Use safe gels with independently calibrated osmotic and mechanical potentials.","contrary":"Water follows bath concentration regardless of strain.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0688","title":"Gel elastic-energy hydration","question":"Can stored elastic energy drive local water uptake against a weak bath concentration gradient?","prediction":"Uptake occurs only in the more strained region.","test":"Use safe gels with independently calibrated osmotic and mechanical potentials.","contrary_outcome":"Water follows bath concentration regardless of strain.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0689","id":"S3-0689","volume":"900v3","title":"Particle raft stress echo","prediction":"Slow capillary rearrangement transfers residual stress.","test":"Use safe inert floating rafts with boundary sensors and full imaging.","contrary":"Boundary force decays immediately with wave passage.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0689","title":"Particle raft stress echo","question":"Can a local poke create a delayed force peak at a distant boundary after visible waves pass?","prediction":"Slow capillary rearrangement transfers residual stress.","test":"Use safe inert floating rafts with boundary sensors and full imaging.","contrary_outcome":"Boundary force decays immediately with wave passage.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0690","id":"S3-0690","volume":"900v3","title":"Calorimeter controller alias","prediction":"Peak position shifts with controller gain on an inert standard.","test":"Scan safe heat-capacity standards with several independently calibrated controllers.","contrary":"Peak remains sample-specific after controller deconvolution.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0690","title":"Calorimeter controller alias","question":"Can a controller create a false latent-heat peak?","prediction":"Peak position shifts with controller gain on an inert standard.","test":"Scan safe heat-capacity standards with several independently calibrated controllers.","contrary_outcome":"Peak remains sample-specific after controller deconvolution.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0690","title":"Calorimeter controller alias","question":"Can a controller create a false latent-heat peak?","prediction":"Peak position shifts with controller gain on an inert standard.","test":"Scan safe heat-capacity standards with several independently calibrated controllers.","contrary_outcome":"Peak remains sample-specific after controller deconvolution.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a controller create a false latent-heat peak experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0691","id":"S3-0691","volume":"900v3","title":"Thermal camera pixel mixing","prediction":"Exponent changes with magnification despite unchanged true temperatures.","test":"Image calibrated patterned thermal targets at several resolutions.","contrary":"Exponent is resolution-independent after radiance correction.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0691","title":"Thermal camera pixel mixing","question":"Can subpixel temperature structure reverse a fitted cooling exponent?","prediction":"Exponent changes with magnification despite unchanged true temperatures.","test":"Image calibrated patterned thermal targets at several resolutions.","contrary_outcome":"Exponent is resolution-independent after radiance correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0692","id":"S3-0692","volume":"900v3","title":"Balance convection zero","prediction":"Apparent loss disappears in a matched-temperature enclosure.","test":"Weigh safe sealed references with independent force calibration.","contrary":"Loss persists after air-density and flow correction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0692","title":"Balance convection zero","question":"Can a warm sealed sample appear to lose mass through buoyant airflow forces?","prediction":"Apparent loss disappears in a matched-temperature enclosure.","test":"Weigh safe sealed references with independent force calibration.","contrary_outcome":"Loss persists after air-density and flow correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0693","id":"S3-0693","volume":"900v3","title":"Pressure sensor cavity mode","prediction":"Precursor timing changes with tube length while local optical pressure does not.","test":"Measure safe water cells with multiple calibrated pressure connections.","contrary":"All sensors detect the same local precursor.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0693","title":"Pressure sensor cavity mode","question":"Can a sensor tube create a false pore-pressure precursor?","prediction":"Precursor timing changes with tube length while local optical pressure does not.","test":"Measure safe water cells with multiple calibrated pressure connections.","contrary_outcome":"All sensors detect the same local precursor.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0694","id":"S3-0694","volume":"900v3","title":"Optical timing skew","prediction":"Inferred lead changes sign under imposed timing offsets.","test":"Record safe pulsed-heating standards with a shared timing reference.","contrary":"Lead survives validated synchronization.","layers":[1],"categories":["physical","energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0694","title":"Optical timing skew","question":"Can asynchronous cameras create apparent cause reversal between strain and temperature?","prediction":"Inferred lead changes sign under imposed timing offsets.","test":"Record safe pulsed-heating standards with a shared timing reference.","contrary_outcome":"Lead survives validated synchronization.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0695","id":"S3-0695","volume":"900v3","title":"Heat-loss identifiability gate","prediction":"Joint parameter uncertainty shrinks at equal observation time.","test":"Use safe lumped thermal standards with blinded parameters.","contrary":"Ambient stepping adds no independent information.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0695","title":"Heat-loss identifiability gate","question":"Can one ambient-temperature step distinguish heat capacity from heat-loss coefficient better than another heating pulse?","prediction":"Joint parameter uncertainty shrinks at equal observation time.","test":"Use safe lumped thermal standards with blinded parameters.","contrary_outcome":"Ambient stepping adds no independent information.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0696","id":"S3-0696","volume":"900v3","title":"Acoustic saturation harmonics","prediction":"Harmonics vanish with increased headroom at fixed specimen excitation.","test":"Probe safe linear acoustic standards with calibrated attenuation.","contrary":"Harmonics persist below all saturation limits.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0696","title":"Acoustic saturation harmonics","question":"Can microphone saturation imitate contact nonlinearity?","prediction":"Harmonics vanish with increased headroom at fixed specimen excitation.","test":"Probe safe linear acoustic standards with calibrated attenuation.","contrary_outcome":"Harmonics persist below all saturation limits.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0697","id":"S3-0697","volume":"900v3","title":"Diffusion boundary uncertainty","prediction":"Adding an edge sensor reduces bias more than reducing interior noise.","test":"Use safe tracer-diffusion cells with independently adjustable edge leakage.","contrary":"Bulk estimates remain insensitive to edge information.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0697","title":"Diffusion boundary uncertainty","question":"Can unknown edge exchange dominate an inferred bulk diffusivity even with precise interior data?","prediction":"Adding an edge sensor reduces bias more than reducing interior noise.","test":"Use safe tracer-diffusion cells with independently adjustable edge leakage.","contrary_outcome":"Bulk estimates remain insensitive to edge information.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0698","id":"S3-0698","volume":"900v3","title":"Image registration strain ghosts","prediction":"A rigid reference shows the same inferred deformation.","test":"Measure safe heated specimens with fixed independent fiducials.","contrary":"Shear remains after reference-based registration.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0698","title":"Image registration strain ghosts","question":"Can thermal expansion of the camera mount create apparent specimen shear?","prediction":"A rigid reference shows the same inferred deformation.","test":"Measure safe heated specimens with fixed independent fiducials.","contrary_outcome":"Shear remains after reference-based registration.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0699","id":"S3-0699","volume":"900v3","title":"Conductivity inverse nonuniqueness","prediction":"A second source position separates the maps.","test":"Use safe patterned thermal standards with blinded inverse fitting.","contrary":"The original field uniquely identifies both maps within noise.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0699","title":"Conductivity inverse nonuniqueness","question":"Can two distinct conductivity maps fit the same single-source temperature field?","prediction":"A second source position separates the maps.","test":"Use safe patterned thermal standards with blinded inverse fitting.","contrary_outcome":"The original field uniquely identifies both maps within noise.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0700","id":"S3-0700","volume":"900v3","title":"Calorimetry baseline drift","prediction":"Regular pulses bias recovered heat while randomized pulses do not.","test":"Measure safe inert standards with traceable electrical energy.","contrary":"Both timing schemes yield identical unbiased heat.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0700","title":"Calorimetry baseline drift","question":"Can randomized pulse timing reveal a baseline drift hidden by regular sampling?","prediction":"Regular pulses bias recovered heat while randomized pulses do not.","test":"Measure safe inert standards with traceable electrical energy.","contrary_outcome":"Both timing schemes yield identical unbiased heat.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0701","id":"S3-0701","volume":"900v3","title":"Force-sensor thermal lag","prediction":"A rigid thermal dummy produces the same force tail.","test":"Compare safe swelling tests with matched dummy temperatures.","contrary":"The tail remains only in the gel after correction.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0701","title":"Force-sensor thermal lag","question":"Can a load cell's thermal lag imitate delayed gel swelling force?","prediction":"A rigid thermal dummy produces the same force tail.","test":"Compare safe swelling tests with matched dummy temperatures.","contrary_outcome":"The tail remains only in the gel after correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0702","id":"S3-0702","volume":"900v3","title":"Spectrometer stray-light floor","prediction":"Apparent transmission follows source spectrum outside the measured band.","test":"Use safe optical blockers and calibrated spectral filters.","contrary":"Residual transmission is blocker-specific and filter-independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0702","title":"Spectrometer stray-light floor","question":"Can weak stray light imitate finite transmission through an opaque sample?","prediction":"Apparent transmission follows source spectrum outside the measured band.","test":"Use safe optical blockers and calibrated spectral filters.","contrary_outcome":"Residual transmission is blocker-specific and filter-independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0703","id":"S3-0703","volume":"900v3","title":"Thermal front threshold bias","prediction":"Acceleration changes with threshold while a physical interface remains uniform-speed.","test":"Compare safe phase-front imaging with independent edge metrology.","contrary":"Acceleration is invariant across calibrated thresholds.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0703","title":"Thermal front threshold bias","question":"Can choosing an image threshold create an apparent front acceleration?","prediction":"Acceleration changes with threshold while a physical interface remains uniform-speed.","test":"Compare safe phase-front imaging with independent edge metrology.","contrary_outcome":"Acceleration is invariant across calibrated thresholds.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0704","id":"S3-0704","volume":"900v3","title":"Acoustic windowing delay","prediction":"Late multipath truncation changes the fitted slope's sign.","test":"Measure safe known-delay acoustic standards with full impulse records.","contrary":"Trend sign remains stable across valid windows.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0704","title":"Acoustic windowing delay","question":"Can time-window choice reverse an estimated group-delay trend?","prediction":"Late multipath truncation changes the fitted slope's sign.","test":"Measure safe known-delay acoustic standards with full impulse records.","contrary_outcome":"Trend sign remains stable across valid windows.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0705","id":"S3-0705","volume":"900v3","title":"Balance humidity sorption","prediction":"Blank-pan drift scales with exposed pan area.","test":"Use safe humidity steps and matched empty-pan controls.","contrary":"Blank uptake is negligible relative to sample changes.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0705","title":"Balance humidity sorption","question":"Can a weighing pan's sorption mimic a sample's moisture uptake?","prediction":"Blank-pan drift scales with exposed pan area.","test":"Use safe humidity steps and matched empty-pan controls.","contrary_outcome":"Blank uptake is negligible relative to sample changes.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0706","id":"S3-0706","volume":"900v3","title":"Optical phase unwrap fracture","prediction":"Jump locations follow contrast minima rather than actual cracks.","test":"Image safe calibrated moving gaps with independent displacement sensing.","contrary":"Jumps coincide with physical opening under all contrast levels.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0706","title":"Optical phase unwrap fracture","question":"Can phase unwrapping create a false crack-opening jump at low contrast?","prediction":"Jump locations follow contrast minima rather than actual cracks.","test":"Image safe calibrated moving gaps with independent displacement sensing.","contrary_outcome":"Jumps coincide with physical opening under all contrast levels.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0707","id":"S3-0707","volume":"900v3","title":"Thermal guard power accounting","prediction":"Capacity bias follows guard modulation phase.","test":"Use safe inert standards with separate traceable power channels.","contrary":"Capacity remains guard-phase independent.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0707","title":"Thermal guard power accounting","question":"Can guard-heater power leak into a sample's apparent heat capacity?","prediction":"Capacity bias follows guard modulation phase.","test":"Use safe inert standards with separate traceable power channels.","contrary_outcome":"Capacity remains guard-phase independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0708","id":"S3-0708","volume":"900v3","title":"Acoustic source drift normalization","prediction":"The notch disappears with independently calibrated source-power normalization.","test":"Measure safe ducts with two reference positions and direct source monitoring.","contrary":"Notch survives all source references.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0708","title":"Acoustic source drift normalization","question":"Can normalization by one reference microphone introduce a false transmission notch?","prediction":"The notch disappears with independently calibrated source-power normalization.","test":"Measure safe ducts with two reference positions and direct source monitoring.","contrary_outcome":"Notch survives all source references.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0709","id":"S3-0709","volume":"900v3","title":"Crystallization volume projection","prediction":"3D volume growth remains steady while projected area accelerates.","test":"Track safe suspended crystals with synchronized orthogonal views.","contrary":"Area acceleration matches true volumetric acceleration.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0709","title":"Crystallization volume projection","question":"Can a growing crystal appear to accelerate solely by rotating toward the camera?","prediction":"3D volume growth remains steady while projected area accelerates.","test":"Track safe suspended crystals with synchronized orthogonal views.","contrary_outcome":"Area acceleration matches true volumetric acceleration.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0710","id":"S3-0710","volume":"900v3","title":"Heat-flux spatial averaging","prediction":"Peak bias grows as the hot spot narrows.","test":"Use safe calibrated localized heaters and several sensor footprints.","contrary":"Peak estimates remain footprint-independent.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0710","title":"Heat-flux spatial averaging","question":"Can a broad sensor miss peak flux while accurately measuring total transferred heat?","prediction":"Peak bias grows as the hot spot narrows.","test":"Use safe calibrated localized heaters and several sensor footprints.","contrary_outcome":"Peak estimates remain footprint-independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0710","title":"Heat-flux spatial averaging","question":"Can a broad sensor miss peak flux while accurately measuring total transferred heat?","prediction":"Peak bias grows as the hot spot narrows.","test":"Use safe calibrated localized heaters and several sensor footprints.","contrary_outcome":"Peak estimates remain footprint-independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a broad sensor miss peak flux while accurately measuring total transferred heat experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0711","id":"S3-0711","volume":"900v3","title":"Particle tracking depth bias","prediction":"Stereo tracking restores particle count without physical merging.","test":"Use safe inert suspensions with known 3D trajectories.","contrary":"Count loss persists under validated stereo tracking.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0711","title":"Particle tracking depth bias","question":"Can out-of-plane motion imitate particle disappearance and aggregation?","prediction":"Stereo tracking restores particle count without physical merging.","test":"Use safe inert suspensions with known 3D trajectories.","contrary_outcome":"Count loss persists under validated stereo tracking.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0712","id":"S3-0712","volume":"900v3","title":"Thermal equilibrium stopping rule","prediction":"Longer prespecified equilibrium criteria reverse an initial ranking.","test":"Measure safe standards with complete transient records.","contrary":"Ranking is unchanged after verified equilibration.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0712","title":"Thermal equilibrium stopping rule","question":"Can fixed waiting times bias conductivity comparisons when specimens have different relaxation spectra?","prediction":"Longer prespecified equilibrium criteria reverse an initial ranking.","test":"Measure safe standards with complete transient records.","contrary_outcome":"Ranking is unchanged after verified equilibration.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0713","id":"S3-0713","volume":"900v3","title":"Impedance cable resonance","prediction":"Arc position follows cable geometry on a passive dummy.","test":"Use safe low-voltage cells and traceable RC standards.","contrary":"Arc remains specimen-specific after open-short-load correction.","layers":[1],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0713","title":"Impedance cable resonance","question":"Can cable layout produce an apparent porous-electrode relaxation arc?","prediction":"Arc position follows cable geometry on a passive dummy.","test":"Use safe low-voltage cells and traceable RC standards.","contrary_outcome":"Arc remains specimen-specific after open-short-load correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0714","id":"S3-0714","volume":"900v3","title":"Acoustic distance estimator","prediction":"Arrival threshold shifts with angle at fixed physical distance.","test":"Measure safe calibrated sources with matched signal-to-noise ratios.","contrary":"Distance is angle-independent after source-response correction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0714","title":"Acoustic distance estimator","question":"Can source directivity bias time-of-flight distance despite a clean leading edge?","prediction":"Arrival threshold shifts with angle at fixed physical distance.","test":"Measure safe calibrated sources with matched signal-to-noise ratios.","contrary_outcome":"Distance is angle-independent after source-response correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0715","id":"S3-0715","volume":"900v3","title":"Thermal emissivity-temperature coupling","prediction":"Radiance plateaus while contact thermometry continues changing.","test":"Use safe phase-change standards with simultaneous spectral and contact measurements.","contrary":"True temperature shows the same plateau.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0715","title":"Thermal emissivity-temperature coupling","question":"Can an emissivity change create an apparent temperature plateau during melting?","prediction":"Radiance plateaus while contact thermometry continues changing.","test":"Use safe phase-change standards with simultaneous spectral and contact measurements.","contrary_outcome":"True temperature shows the same plateau.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0716","id":"S3-0716","volume":"900v3","title":"Pressure line condensation","prediction":"Hysteresis disappears when the line is uniformly warmed within safe limits.","test":"Use benign humidity-pressure cycles with local reference sensors.","contrary":"Hysteresis remains independent of line wetting.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0716","title":"Pressure line condensation","question":"Can condensation in a pressure line create false pressure hysteresis?","prediction":"Hysteresis disappears when the line is uniformly warmed within safe limits.","test":"Use benign humidity-pressure cycles with local reference sensors.","contrary_outcome":"Hysteresis remains independent of line wetting.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0717","id":"S3-0717","volume":"900v3","title":"Scattering concentration saturation","prediction":"A second path length restores monotonic concentration estimates.","test":"Use safe inert turbidity standards with traceable dilutions.","contrary":"All path lengths yield the same reversed trend.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0717","title":"Scattering concentration saturation","question":"Can multiple scattering reverse an apparent concentration trend?","prediction":"A second path length restores monotonic concentration estimates.","test":"Use safe inert turbidity standards with traceable dilutions.","contrary_outcome":"All path lengths yield the same reversed trend.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0718","id":"S3-0718","volume":"900v3","title":"Calorimeter sample placement","prediction":"Recovered electrical calibration heat varies with position.","test":"Use safe dummy heaters at known positions.","contrary":"Heat recovery is position-independent within uncertainty.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0718","title":"Calorimeter sample placement","question":"Can moving an inert sample within a cell change apparent reaction heat?","prediction":"Recovered electrical calibration heat varies with position.","test":"Use safe dummy heaters at known positions.","contrary_outcome":"Heat recovery is position-independent within uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0719","id":"S3-0719","volume":"900v3","title":"Force tare contamination","prediction":"Independent displacement-force reconstruction reveals the removed stress.","test":"Use safe gels and traceable spring references.","contrary":"Tare choice has no effect on inferred stress histories.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0719","title":"Force tare contamination","question":"Can taring after preload hide residual stress in a swelling experiment?","prediction":"Independent displacement-force reconstruction reveals the removed stress.","test":"Use safe gels and traceable spring references.","contrary_outcome":"Tare choice has no effect on inferred stress histories.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0720","id":"S3-0720","volume":"900v3","title":"Thermal camera focus drift","prediction":"Optical edge references broaden alongside thermal features.","test":"Measure safe thermal targets with fixed geometric edges.","contrary":"Only thermal fronts broaden after focus correction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0720","title":"Thermal camera focus drift","question":"Can defocus mimic widening of a heat-diffusion front?","prediction":"Optical edge references broaden alongside thermal features.","test":"Measure safe thermal targets with fixed geometric edges.","contrary_outcome":"Only thermal fronts broaden after focus correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0721","id":"S3-0721","volume":"900v3","title":"Acoustic transducer loading","prediction":"Optical readout reveals a mode weakened by transducer mass.","test":"Use safe plates with noncontact vibration measurements.","contrary":"Mode properties remain unchanged after attachment.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0721","title":"Acoustic transducer loading","question":"Can attaching a transducer suppress the defect mode it seeks?","prediction":"Optical readout reveals a mode weakened by transducer mass.","test":"Use safe plates with noncontact vibration measurements.","contrary_outcome":"Mode properties remain unchanged after attachment.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0722","id":"S3-0722","volume":"900v3","title":"Diffusion tracer adsorption","prediction":"A nonadsorbing second tracer follows the solvent independently.","test":"Use safe porous water cells with separately calibrated adsorption.","contrary":"Both tracers yield the same transport after adsorption correction.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0722","title":"Diffusion tracer adsorption","question":"Can a tracer lag falsely imply slower solvent diffusion?","prediction":"A nonadsorbing second tracer follows the solvent independently.","test":"Use safe porous water cells with separately calibrated adsorption.","contrary_outcome":"Both tracers yield the same transport after adsorption correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0723","id":"S3-0723","volume":"900v3","title":"Electrical contact thermometry bias","prediction":"Nucleation frequency varies with wire conductance at equal measured temperature.","test":"Use safe water-freezing cells with optical temperature references.","contrary":"Nucleation is independent of probe heat leakage.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0723","title":"Electrical contact thermometry bias","question":"Can a thermometer wire create a local cold bridge that changes nucleation?","prediction":"Nucleation frequency varies with wire conductance at equal measured temperature.","test":"Use safe water-freezing cells with optical temperature references.","contrary_outcome":"Nucleation is independent of probe heat leakage.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0724","id":"S3-0724","volume":"900v3","title":"Particle image density alias","prediction":"Independent mass balance remains constant as image counts fall.","test":"Use safe inert particles with calibrated index-temperature response.","contrary":"Counts remain stable after focus and contrast correction.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0724","title":"Particle image density alias","question":"Can refractive-index matching make particle concentration appear lower during heating?","prediction":"Independent mass balance remains constant as image counts fall.","test":"Use safe inert particles with calibrated index-temperature response.","contrary_outcome":"Counts remain stable after focus and contrast correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0725","id":"S3-0725","volume":"900v3","title":"Thermal derivative noise","prediction":"Inflection timing shifts with filter width on synthetic and reference data.","test":"Analyze safe measured inert transients with preregistered filters.","contrary":"The inflection survives raw-data uncertainty bounds.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0725","title":"Thermal derivative noise","question":"Can smoothing create an apparent pre-transition temperature inflection?","prediction":"Inflection timing shifts with filter width on synthetic and reference data.","test":"Analyze safe measured inert transients with preregistered filters.","contrary_outcome":"The inflection survives raw-data uncertainty bounds.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0726","id":"S3-0726","volume":"900v3","title":"Acoustic phase wrapping location","prediction":"Time-domain checks recover the correct calibrated location.","test":"Use safe known-defect standards with complex transfer measurements.","contrary":"Wrapped and unwrapped inversions agree.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0726","title":"Acoustic phase wrapping location","question":"Can a phase-wrap error place a defect on the wrong side of a sample?","prediction":"Time-domain checks recover the correct calibrated location.","test":"Use safe known-defect standards with complex transfer measurements.","contrary_outcome":"Wrapped and unwrapped inversions agree.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0727","id":"S3-0727","volume":"900v3","title":"Balance vibration rectification","prediction":"Mean reading changes with vibration amplitude despite constant mass.","test":"Use safe inert weights with independent accelerometry.","contrary":"Mean weight remains amplitude-independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0727","title":"Balance vibration rectification","question":"Can symmetric vibration create a DC weighing bias through nonlinear support response?","prediction":"Mean reading changes with vibration amplitude despite constant mass.","test":"Use safe inert weights with independent accelerometry.","contrary_outcome":"Mean weight remains amplitude-independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0728","id":"S3-0728","volume":"900v3","title":"Optical calibration transfer","prediction":"Gradient fields produce errors absent in uniform controls.","test":"Use safe transparent thermal cells with independent local thermometry.","contrary":"Uniform calibration transfers within propagated uncertainty.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0728","title":"Optical calibration transfer","question":"Can a calibration in uniform temperature fail in a gradient because of lensing?","prediction":"Gradient fields produce errors absent in uniform controls.","test":"Use safe transparent thermal cells with independent local thermometry.","contrary_outcome":"Uniform calibration transfers within propagated uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0729","id":"S3-0729","volume":"900v3","title":"Heat-capacity container correction","prediction":"Empty-container correction leaves a contact-dependent residual.","test":"Use safe inert fillers with traceable electrical heating.","contrary":"One empty-container baseline corrects all contacts.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0729","title":"Heat-capacity container correction","question":"Can container subtraction fail when sample contact changes the container's thermal mode?","prediction":"Empty-container correction leaves a contact-dependent residual.","test":"Use safe inert fillers with traceable electrical heating.","contrary_outcome":"One empty-container baseline corrects all contacts.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0730","id":"S3-0730","volume":"900v3","title":"Pressure uncertainty asymmetry","prediction":"Direct joint fitting differs from averaging pressure-flow ratios.","test":"Measure safe water flow standards with traceable uncertainty.","contrary":"Both estimators agree across the low-pressure range.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0730","title":"Pressure uncertainty asymmetry","question":"Can near-zero differential pressure yield biased flow resistance because ratio estimates are skewed?","prediction":"Direct joint fitting differs from averaging pressure-flow ratios.","test":"Measure safe water flow standards with traceable uncertainty.","contrary_outcome":"Both estimators agree across the low-pressure range.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0731","id":"S3-0731","volume":"900v3","title":"Acoustic background subtraction","prediction":"Echo estimate depends on background phase history.","test":"Use safe known reflectors with randomized reference phases.","contrary":"Recovered echo is phase-history independent.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0731","title":"Acoustic background subtraction","question":"Can coherent background subtraction remove part of a real weak echo?","prediction":"Echo estimate depends on background phase history.","test":"Use safe known reflectors with randomized reference phases.","contrary_outcome":"Recovered echo is phase-history independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0732","id":"S3-0732","volume":"900v3","title":"Thermal reference sticker aging","prediction":"Spectral emissivity drifts while contact temperature remains stable.","test":"Cycle safe low-temperature reference stickers with independent radiometry.","contrary":"Emissivity remains stable within calibration uncertainty.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0732","title":"Thermal reference sticker aging","question":"Can repeated heating alter a reference sticker's emissivity before visible damage?","prediction":"Spectral emissivity drifts while contact temperature remains stable.","test":"Cycle safe low-temperature reference stickers with independent radiometry.","contrary_outcome":"Emissivity remains stable within calibration uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0733","id":"S3-0733","volume":"900v3","title":"Optical particle size inversion","prediction":"Inferred size oscillates with known orientation at fixed volume.","test":"Use safe inert calibrated nonspherical particles.","contrary":"Recovered volume stays orientation-independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0733","title":"Optical particle size inversion","question":"Can nonspherical rotation mimic particle growth in scattering measurements?","prediction":"Inferred size oscillates with known orientation at fixed volume.","test":"Use safe inert calibrated nonspherical particles.","contrary_outcome":"Recovered volume stays orientation-independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0734","id":"S3-0734","volume":"900v3","title":"Calorimetric stirring work","prediction":"Heat scales with measured torque-speed work in crystal-free controls.","test":"Use safe salt solutions with matched viscosity and stirring histories.","contrary":"Residual heat appears only with verified crystallization.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0734","title":"Calorimetric stirring work","question":"Can stirring energy be mistaken for crystallization heat?","prediction":"Heat scales with measured torque-speed work in crystal-free controls.","test":"Use safe salt solutions with matched viscosity and stirring histories.","contrary_outcome":"Residual heat appears only with verified crystallization.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0735","id":"S3-0735","volume":"900v3","title":"Acoustic leakage subtraction","prediction":"Signal persists when the solid path is interrupted and vanishes with shielding.","test":"Use safe low-power probes with independent path blocking.","contrary":"All received energy follows the solid path.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0735","title":"Acoustic leakage subtraction","question":"Can a tiny airborne path dominate a weak solid-transmission measurement?","prediction":"Signal persists when the solid path is interrupted and vanishes with shielding.","test":"Use safe low-power probes with independent path blocking.","contrary_outcome":"All received energy follows the solid path.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0736","id":"S3-0736","volume":"900v3","title":"Thermal sampling cadence","prediction":"Fast calorimetry reveals bursts aliased by slow readings.","test":"Use safe calibrated pulsed heaters as known references.","contrary":"Slow and fast data recover identical burst statistics.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0736","title":"Thermal sampling cadence","question":"Can regular sampling miss intermittent heat-release bursts while preserving mean temperature?","prediction":"Fast calorimetry reveals bursts aliased by slow readings.","test":"Use safe calibrated pulsed heaters as known references.","contrary_outcome":"Slow and fast data recover identical burst statistics.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0737","id":"S3-0737","volume":"900v3","title":"Electrical reference drift causality","prediction":"Interleaved calibrations remove the trend on a stable dummy.","test":"Use safe low-voltage standards with randomized measurement order.","contrary":"Aging persists under interleaved traceable calibration.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0737","title":"Electrical reference drift causality","question":"Can sequential reference calibration create an apparent monotonic aging trend?","prediction":"Interleaved calibrations remove the trend on a stable dummy.","test":"Use safe low-voltage standards with randomized measurement order.","contrary_outcome":"Aging persists under interleaved traceable calibration.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0738","id":"S3-0738","volume":"900v3","title":"Optical wall curvature bias","prediction":"Ray-traced correction restores uniform velocity.","test":"Use safe water cells with known particle trajectories.","contrary":"Convergence persists after validated optical correction.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0738","title":"Optical wall curvature bias","question":"Can a curved container make uniform particle motion appear convergent?","prediction":"Ray-traced correction restores uniform velocity.","test":"Use safe water cells with known particle trajectories.","contrary_outcome":"Convergence persists after validated optical correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0739","id":"S3-0739","volume":"900v3","title":"Thermal source footprint inversion","prediction":"Independent heater imaging collapses false anisotropy.","test":"Use safe isotropic standards with characterized resistive heaters.","contrary":"Anisotropy estimates remain unchanged after footprint correction.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0739","title":"Thermal source footprint inversion","question":"Can uncertain heater footprint bias inferred anisotropy more than sensor noise?","prediction":"Independent heater imaging collapses false anisotropy.","test":"Use safe isotropic standards with characterized resistive heaters.","contrary_outcome":"Anisotropy estimates remain unchanged after footprint correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0740","id":"S3-0740","volume":"900v3","title":"Force camera cross-talk","prediction":"Force drift follows illumination power on a rigid dummy.","test":"Use safe low-power imaging with shuttered thermal controls.","contrary":"No light-correlated drift exceeds uncertainty.","layers":[1,2],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0740","title":"Force camera cross-talk","question":"Can lighting heat shift a force baseline during microscopy?","prediction":"Force drift follows illumination power on a rigid dummy.","test":"Use safe low-power imaging with shuttered thermal controls.","contrary_outcome":"No light-correlated drift exceeds uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0740","title":"Force camera cross-talk","question":"Can lighting heat shift a force baseline during microscopy?","prediction":"Force drift follows illumination power on a rigid dummy.","test":"Use safe low-power imaging with shuttered thermal controls.","contrary_outcome":"No light-correlated drift exceeds uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can lighting heat shift a force baseline during microscopy experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0741","id":"S3-0741","volume":"900v3","title":"Acoustic cavity temperature map","prediction":"Mode shifts disagree with a uniform-temperature model.","test":"Use safe mildly heated cavities with distributed thermometry.","contrary":"One temperature predicts every mode shift.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0741","title":"Acoustic cavity temperature map","question":"Can one average thermometer miss temperature stratification that shifts different modes oppositely?","prediction":"Mode shifts disagree with a uniform-temperature model.","test":"Use safe mildly heated cavities with distributed thermometry.","contrary_outcome":"One temperature predicts every mode shift.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0742","id":"S3-0742","volume":"900v3","title":"Crystal count threshold","prediction":"Higher-resolution imaging shows earlier nuclei without a true event burst.","test":"Use safe salt microcells with nested-resolution imaging.","contrary":"Birth events remain clustered after visibility correction.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0742","title":"Crystal count threshold","question":"Can apparent nucleation bursts arise from many pre-existing crystals crossing a visibility threshold?","prediction":"Higher-resolution imaging shows earlier nuclei without a true event burst.","test":"Use safe salt microcells with nested-resolution imaging.","contrary_outcome":"Birth events remain clustered after visibility correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0743","id":"S3-0743","volume":"900v3","title":"Diffusion cell volume compliance","prediction":"Transport time changes with independently measured reservoir compliance.","test":"Use safe tracer cells with rigid and compliant matched reservoirs.","contrary":"Only molecular diffusivity determines the time scale.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0743","title":"Diffusion cell volume compliance","question":"Can a flexible reservoir alter apparent diffusion time by storing liquid volume?","prediction":"Transport time changes with independently measured reservoir compliance.","test":"Use safe tracer cells with rigid and compliant matched reservoirs.","contrary_outcome":"Only molecular diffusivity determines the time scale.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0744","id":"S3-0744","volume":"900v3","title":"Thermal reciprocity calibration","prediction":"Independent gain calibration restores symmetry in passive standards.","test":"Swap safe heaters and sensors with traceable calibration.","contrary":"Asymmetry survives fixed-state gain correction.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0744","title":"Thermal reciprocity calibration","question":"Can source-detector sensitivity mismatch imitate nonreciprocal heat response?","prediction":"Independent gain calibration restores symmetry in passive standards.","test":"Swap safe heaters and sensors with traceable calibration.","contrary_outcome":"Asymmetry survives fixed-state gain correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0745","id":"S3-0745","volume":"900v3","title":"Acoustic spatial averaging null","prediction":"A smaller calibrated probe recovers the hidden mode.","test":"Measure safe standing-wave fields with several aperture sizes.","contrary":"Mode amplitude is aperture-independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0745","title":"Acoustic spatial averaging null","question":"Can a microphone average over opposite pressure phases and miss a real mode?","prediction":"A smaller calibrated probe recovers the hidden mode.","test":"Measure safe standing-wave fields with several aperture sizes.","contrary_outcome":"Mode amplitude is aperture-independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0746","id":"S3-0746","volume":"900v3","title":"Balance electrostatic shielding","prediction":"Grounded shielding removes drift on sealed inert references.","test":"Use safe water samples and sealed matched controls with low-voltage charge monitoring.","contrary":"Drift remains after verified charge neutralization.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0746","title":"Balance electrostatic shielding","question":"Can static charge mimic slow evaporation mass loss?","prediction":"Grounded shielding removes drift on sealed inert references.","test":"Use safe water samples and sealed matched controls with low-voltage charge monitoring.","contrary_outcome":"Drift remains after verified charge neutralization.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0747","id":"S3-0747","volume":"900v3","title":"Optical thickness-color ambiguity","prediction":"Polarization-resolved correction separates the two effects.","test":"Use safe transparent films with independent profilometry.","contrary":"Color-derived thickness remains accurate without stress correction.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0747","title":"Optical thickness-color ambiguity","question":"Can stress birefringence imitate a changing film thickness in color imaging?","prediction":"Polarization-resolved correction separates the two effects.","test":"Use safe transparent films with independent profilometry.","contrary_outcome":"Color-derived thickness remains accurate without stress correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0748","id":"S3-0748","volume":"900v3","title":"Heat-flow sensor orientation","prediction":"Orientation bias follows interface temperature drops.","test":"Use safe calibrated stacks with independently measured total heat.","contrary":"Flipped readings agree within uncertainty.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0748","title":"Heat-flow sensor orientation","question":"Can flipping a flux sensor change measured heat through asymmetric contact layers?","prediction":"Orientation bias follows interface temperature drops.","test":"Use safe calibrated stacks with independently measured total heat.","contrary_outcome":"Flipped readings agree within uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0749","id":"S3-0749","volume":"900v3","title":"Impedance stationarity test","prediction":"Fast repeated spectra show time-order dependence.","test":"Measure safe low-voltage aqueous cells with sealed controls.","contrary":"Loop persists under verified stationary conditions.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0749","title":"Impedance stationarity test","question":"Can slow drying violate stationarity enough to create an apparent inductive loop?","prediction":"Fast repeated spectra show time-order dependence.","test":"Measure safe low-voltage aqueous cells with sealed controls.","contrary_outcome":"Loop persists under verified stationary conditions.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0750","id":"S3-0750","volume":"900v3","title":"Acoustic inverse regularization","prediction":"Blinded standards reveal resolution-dependent merging.","test":"Use safe known paired defects and preregistered reconstruction settings.","contrary":"Recovered topology remains correct across validated settings.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0750","title":"Acoustic inverse regularization","question":"Can regularization create a false smooth defect instead of two real defects?","prediction":"Blinded standards reveal resolution-dependent merging.","test":"Use safe known paired defects and preregistered reconstruction settings.","contrary_outcome":"Recovered topology remains correct across validated settings.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0751","id":"S3-0751","volume":"900v3","title":"Thermal contact pressure drift","prediction":"Conductance drift tracks measured force at constant temperature.","test":"Use safe interface standards with force feedback.","contrary":"Drift remains after force stabilization.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0751","title":"Thermal contact pressure drift","question":"Can clamp creep mimic a temperature-dependent interface conductance?","prediction":"Conductance drift tracks measured force at constant temperature.","test":"Use safe interface standards with force feedback.","contrary_outcome":"Drift remains after force stabilization.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0752","id":"S3-0752","volume":"900v3","title":"Optical scattered-light heating","prediction":"Rate extrapolates downward as probe duty cycle approaches zero.","test":"Use safe benign droplets with gravimetric reference and low-power illumination.","contrary":"Rate is probe-power independent.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0752","title":"Optical scattered-light heating","question":"Can probe light alter the evaporation rate being measured?","prediction":"Rate extrapolates downward as probe duty cycle approaches zero.","test":"Use safe benign droplets with gravimetric reference and low-power illumination.","contrary_outcome":"Rate is probe-power independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0753","id":"S3-0753","volume":"900v3","title":"Pressure common-mode leakage","prediction":"Signal scales with common-mode pressure on a sealed dummy.","test":"Use safe water networks with independent absolute sensors.","contrary":"Differential output rejects common-mode changes within uncertainty.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0753","title":"Pressure common-mode leakage","question":"Can imperfect differential sensing turn ambient pressure changes into apparent pore flow?","prediction":"Signal scales with common-mode pressure on a sealed dummy.","test":"Use safe water networks with independent absolute sensors.","contrary_outcome":"Differential output rejects common-mode changes within uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0754","id":"S3-0754","volume":"900v3","title":"Acoustic sensor phase aging","prediction":"A stable reference records the same phase evolution.","test":"Use safe passive standards and removable sensor couplants.","contrary":"Only the specimen exhibits the shift.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0754","title":"Acoustic sensor phase aging","question":"Can adhesive curing shift sensor phase and mimic specimen stiffening?","prediction":"A stable reference records the same phase evolution.","test":"Use safe passive standards and removable sensor couplants.","contrary_outcome":"Only the specimen exhibits the shift.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0755","id":"S3-0755","volume":"900v3","title":"Thermal map boundary truncation","prediction":"Unseen low-amplitude tails carry measurable energy.","test":"Use safe calibrated heaters with expanding field-of-view checks.","contrary":"Energy estimates converge before tails enter the image.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0755","title":"Thermal map boundary truncation","question":"Can cropping a thermal image bias stored-energy estimates even when the visible hot spot is contained?","prediction":"Unseen low-amplitude tails carry measurable energy.","test":"Use safe calibrated heaters with expanding field-of-view checks.","contrary_outcome":"Energy estimates converge before tails enter the image.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0756","id":"S3-0756","volume":"900v3","title":"Crystallization detection latency","prediction":"Higher-sensitivity imaging moves detected birth before the thermal signal.","test":"Use safe salt systems with synchronized calibrated detection thresholds.","contrary":"Thermal lead persists beyond all detection-delay bounds.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0756","title":"Crystallization detection latency","question":"Can apparent thermal precursors reflect optical detection delay rather than pre-nucleation physics?","prediction":"Higher-sensitivity imaging moves detected birth before the thermal signal.","test":"Use safe salt systems with synchronized calibrated detection thresholds.","contrary_outcome":"Thermal lead persists beyond all detection-delay bounds.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0757","id":"S3-0757","volume":"900v3","title":"Electrical pulse bandwidth","prediction":"A fast reference shunt reveals the missing early current.","test":"Use safe low-voltage RC standards with independent bandwidth calibration.","contrary":"Delay remains after full transfer-function correction.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0757","title":"Electrical pulse bandwidth","question":"Can limited current bandwidth make a capacitor appear to have an initial charging delay?","prediction":"A fast reference shunt reveals the missing early current.","test":"Use safe low-voltage RC standards with independent bandwidth calibration.","contrary_outcome":"Delay remains after full transfer-function correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0758","id":"S3-0758","volume":"900v3","title":"Optical refractive surface shift","prediction":"Reference reflections and transmission images disagree predictably.","test":"Use safe transparent heated cells with independent interferometric position.","contrary":"Both views report the same real displacement.","layers":[1],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0758","title":"Optical refractive surface shift","question":"Can temperature gradients make a stationary solid surface appear displaced?","prediction":"Reference reflections and transmission images disagree predictably.","test":"Use safe transparent heated cells with independent interferometric position.","contrary_outcome":"Both views report the same real displacement.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0759","id":"S3-0759","volume":"900v3","title":"Heat-transfer area convention","prediction":"Ranking changes between projected and true-area normalization.","test":"Measure safe corrugated coolers with traceable 3D area and total heat.","contrary":"Ranking is invariant under physically justified normalization.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0759","title":"Heat-transfer area convention","question":"Can inconsistent area definitions reverse reported cooling performance rankings?","prediction":"Ranking changes between projected and true-area normalization.","test":"Measure safe corrugated coolers with traceable 3D area and total heat.","contrary_outcome":"Ranking is invariant under physically justified normalization.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0760","id":"S3-0760","volume":"900v3","title":"Acoustic trigger threshold","prediction":"Cross-correlation timing removes the apparent speed trend.","test":"Use safe linear acoustic standards over calibrated amplitudes.","contrary":"Speed trend persists under waveform-based timing.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0760","title":"Acoustic trigger threshold","question":"Can amplitude-dependent triggering create a false wave-speed increase?","prediction":"Cross-correlation timing removes the apparent speed trend.","test":"Use safe linear acoustic standards over calibrated amplitudes.","contrary_outcome":"Speed trend persists under waveform-based timing.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0761","id":"S3-0761","volume":"900v3","title":"Balance vapor force separation","prediction":"Force direction follows vapor-flux orientation at matched mass loss.","test":"Use safe water with controlled symmetric and directed vapor paths.","contrary":"Readings are unchanged after buoyancy correction.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0761","title":"Balance vapor force separation","question":"Can vapor recoil matter in precision evaporation weighing before buoyancy dominates?","prediction":"Force direction follows vapor-flux orientation at matched mass loss.","test":"Use safe water with controlled symmetric and directed vapor paths.","contrary_outcome":"Readings are unchanged after buoyancy correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0762","id":"S3-0762","volume":"900v3","title":"Optical focus concentration coupling","prediction":"Refocusing restores particle-size estimates at fixed true size.","test":"Use safe inert monodisperse suspensions with calibrated index changes.","contrary":"Size estimates remain focus-independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0762","title":"Optical focus concentration coupling","question":"Can a changing refractive index shift focus enough to mimic aggregation?","prediction":"Refocusing restores particle-size estimates at fixed true size.","test":"Use safe inert monodisperse suspensions with calibrated index changes.","contrary_outcome":"Size estimates remain focus-independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0763","id":"S3-0763","volume":"900v3","title":"Thermal sensor self-heating gradient","prediction":"Freeze onset shifts with probe readout current.","test":"Use safe water films with optical temperature reference and bounded current.","contrary":"Onset is readout-current independent.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0763","title":"Thermal sensor self-heating gradient","question":"Can a temperature probe warm a thin film enough to suppress local freezing?","prediction":"Freeze onset shifts with probe readout current.","test":"Use safe water films with optical temperature reference and bounded current.","contrary_outcome":"Onset is readout-current independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0764","id":"S3-0764","volume":"900v3","title":"Acoustic cavity leak drift","prediction":"Damping changes without independently measured gas leakage.","test":"Use safe low-pressure cavities with separate leak and compliance calibration.","contrary":"Resonance damping uniquely tracks leak rate.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0764","title":"Acoustic cavity leak drift","question":"Can changing seal compliance mimic leak growth in resonance monitoring?","prediction":"Damping changes without independently measured gas leakage.","test":"Use safe low-pressure cavities with separate leak and compliance calibration.","contrary_outcome":"Resonance damping uniquely tracks leak rate.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0765","id":"S3-0765","volume":"900v3","title":"Crystal orientation optical bias","prediction":"Rotating illumination restores missing orientation classes.","test":"Use safe salt crystals with independently mapped orientations.","contrary":"Counts remain invariant under polarization rotation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0765","title":"Crystal orientation optical bias","question":"Can polarization selection hide one crystal orientation and bias nucleation statistics?","prediction":"Rotating illumination restores missing orientation classes.","test":"Use safe salt crystals with independently mapped orientations.","contrary_outcome":"Counts remain invariant under polarization rotation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0766","id":"S3-0766","volume":"900v3","title":"Thermal inverse initial condition","prediction":"A reset to uniform temperature removes the apparent layer.","test":"Use safe reference slabs with controlled initial gradients.","contrary":"Layer inference survives verified uniform initialization.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0766","title":"Thermal inverse initial condition","question":"Can an unknown initial temperature gradient imitate a buried low-conductivity layer?","prediction":"A reset to uniform temperature removes the apparent layer.","test":"Use safe reference slabs with controlled initial gradients.","contrary_outcome":"Layer inference survives verified uniform initialization.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0767","id":"S3-0767","volume":"900v3","title":"Force displacement synchronization","prediction":"Loop area changes sign with imposed timestamp offsets.","test":"Use safe elastic reference springs with shared-clock acquisition.","contrary":"Nonzero loss remains after synchronization bounds.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0767","title":"Force displacement synchronization","question":"Can timing mismatch create a false mechanical hysteresis loop?","prediction":"Loop area changes sign with imposed timestamp offsets.","test":"Use safe elastic reference springs with shared-clock acquisition.","contrary_outcome":"Nonzero loss remains after synchronization bounds.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0768","id":"S3-0768","volume":"900v3","title":"Acoustic path humidity correction","prediction":"Distributed humidity measurements improve time-of-flight prediction.","test":"Use safe air ducts with controlled nonreactive humidity gradients.","contrary":"One local sensor predicts the full path within uncertainty.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0768","title":"Acoustic path humidity correction","question":"Can a local humidity sensor fail to correct a spatially stratified sound path?","prediction":"Distributed humidity measurements improve time-of-flight prediction.","test":"Use safe air ducts with controlled nonreactive humidity gradients.","contrary_outcome":"One local sensor predicts the full path within uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0769","id":"S3-0769","volume":"900v3","title":"Optical stray reflection strain","prediction":"Localization moves when the illumination angle changes.","test":"Use safe rigid reference patterns with controlled reflections.","contrary":"Strain localization stays sample-fixed after reflection suppression.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0769","title":"Optical stray reflection strain","question":"Can a weak reflection create apparent strain localization in digital image correlation?","prediction":"Localization moves when the illumination angle changes.","test":"Use safe rigid reference patterns with controlled reflections.","contrary_outcome":"Strain localization stays sample-fixed after reflection suppression.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0770","id":"S3-0770","volume":"900v3","title":"Heat storage end effects","prediction":"Length scaling separates bulk diffusion from cap resistance.","test":"Use safe rods with identical material and calibrated caps.","contrary":"One bulk diffusivity fits all lengths without end corrections.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0770","title":"Heat storage end effects","question":"Can end caps dominate apparent thermal diffusivity of a short rod?","prediction":"Length scaling separates bulk diffusion from cap resistance.","test":"Use safe rods with identical material and calibrated caps.","contrary_outcome":"One bulk diffusivity fits all lengths without end corrections.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0771","id":"S3-0771","volume":"900v3","title":"Electrical wetting noise audit","prediction":"A dry dummy reproduces events when the cable moves.","test":"Use safe low-voltage cells with immobilized shielded leads.","contrary":"Noise remains only during independently observed wetting.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0771","title":"Electrical wetting noise audit","question":"Can a changing cable capacitance imitate pore-wetting noise?","prediction":"A dry dummy reproduces events when the cable moves.","test":"Use safe low-voltage cells with immobilized shielded leads.","contrary_outcome":"Noise remains only during independently observed wetting.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0772","id":"S3-0772","volume":"900v3","title":"Acoustic power normalization","prediction":"Direct acoustic power correction removes the trend.","test":"Use safe low-power ducts with pressure-velocity input measurements.","contrary":"Absorption trend survives input-power calibration.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0772","title":"Acoustic power normalization","question":"Can equal electrical speaker power yield unequal acoustic input and false absorption changes?","prediction":"Direct acoustic power correction removes the trend.","test":"Use safe low-power ducts with pressure-velocity input measurements.","contrary_outcome":"Absorption trend survives input-power calibration.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0773","id":"S3-0773","volume":"900v3","title":"Thermal calibration extrapolation","prediction":"Expanded traceable calibration removes the kink.","test":"Use safe inert standards spanning the experimental temperatures.","contrary":"Kink remains within calibration-independent uncertainty.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0773","title":"Thermal calibration extrapolation","question":"Can a narrow-range calibration create an apparent conductivity transition outside its range?","prediction":"Expanded traceable calibration removes the kink.","test":"Use safe inert standards spanning the experimental temperatures.","contrary_outcome":"Kink remains within calibration-independent uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0774","id":"S3-0774","volume":"900v3","title":"Particle tracking selection bias","prediction":"3D tracking restores the missing fast population.","test":"Use safe inert tracer standards with known flow and diffusion.","contrary":"Corrected diffusion still decreases.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0774","title":"Particle tracking selection bias","question":"Can preferentially losing fast particles make measured diffusion decrease over time?","prediction":"3D tracking restores the missing fast population.","test":"Use safe inert tracer standards with known flow and diffusion.","contrary_outcome":"Corrected diffusion still decreases.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0775","id":"S3-0775","volume":"900v3","title":"Pressure zero migration","prediction":"A sealed fixed-volume control shows the same pressure trend.","test":"Use safe air-water cells with independent optical bubble volume.","contrary":"Pressure trend remains coupled to measured dissolution only.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0775","title":"Pressure zero migration","question":"Can a pressure sensor's zero drift mimic slow gas dissolution?","prediction":"A sealed fixed-volume control shows the same pressure trend.","test":"Use safe air-water cells with independent optical bubble volume.","contrary_outcome":"Pressure trend remains coupled to measured dissolution only.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0776","id":"S3-0776","volume":"900v3","title":"Optical path temperature lag","prediction":"Enclosing the beam path suppresses motion without changing sample strain.","test":"Use safe heated references with independent contact displacement.","contrary":"Motion persists after refractive air-path stabilization.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0776","title":"Optical path temperature lag","question":"Can air above a hot sample dominate apparent optical surface motion?","prediction":"Enclosing the beam path suppresses motion without changing sample strain.","test":"Use safe heated references with independent contact displacement.","contrary_outcome":"Motion persists after refractive air-path stabilization.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0777","id":"S3-0777","volume":"900v3","title":"Thermal boundary radiation fit","prediction":"Adding independently measured radiation restores constant conductivity.","test":"Use safe isotropic standards with calibrated emissivity.","contrary":"Conductivity remains temperature-dependent after full heat balance.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0777","title":"Thermal boundary radiation fit","question":"Can fitting convection alone force a false temperature-dependent conductivity?","prediction":"Adding independently measured radiation restores constant conductivity.","test":"Use safe isotropic standards with calibrated emissivity.","contrary_outcome":"Conductivity remains temperature-dependent after full heat balance.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0778","id":"S3-0778","volume":"900v3","title":"Acoustic echo censoring","prediction":"Known injected echoes reveal amplitude-dependent detection loss.","test":"Use safe calibrated impulse responses and blinded recovery.","contrary":"Attenuation is unchanged after detection-probability correction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0778","title":"Acoustic echo censoring","question":"Can rejecting low-amplitude echoes bias attenuation downward?","prediction":"Known injected echoes reveal amplitude-dependent detection loss.","test":"Use safe calibrated impulse responses and blinded recovery.","contrary_outcome":"Attenuation is unchanged after detection-probability correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0779","id":"S3-0779","volume":"900v3","title":"Balance condensation contamination","prediction":"Separate support weighing closes the missing mass.","test":"Use safe water samples with humidity and temperature monitoring.","contrary":"Support mass remains constant within uncertainty.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0779","title":"Balance condensation contamination","question":"Can a cool support gain water while the sample loses it, hiding evaporation?","prediction":"Separate support weighing closes the missing mass.","test":"Use safe water samples with humidity and temperature monitoring.","contrary_outcome":"Support mass remains constant within uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0780","id":"S3-0780","volume":"900v3","title":"Optical exposure motion blur","prediction":"Short exposures recover higher curvature and speed.","test":"Use safe water fronts with synchronized stroboscopic references.","contrary":"Geometry and speed are exposure-independent.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0780","title":"Optical exposure motion blur","question":"Can blur make a capillary front appear smoother and slower simultaneously?","prediction":"Short exposures recover higher curvature and speed.","test":"Use safe water fronts with synchronized stroboscopic references.","contrary_outcome":"Geometry and speed are exposure-independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0780","title":"Optical exposure motion blur","question":"Can blur make a capillary front appear smoother and slower simultaneously?","prediction":"Short exposures recover higher curvature and speed.","test":"Use safe water fronts with synchronized stroboscopic references.","contrary_outcome":"Geometry and speed are exposure-independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can blur make a capillary front appear smoother and slower simultaneously experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0781","id":"S3-0781","volume":"900v3","title":"Heat-capacity uncertainty coupling","prediction":"Joint covariance propagation gives wider validated intervals.","test":"Use safe electrical standards with shared and independent calibration chains.","contrary":"Intervals remain unchanged and maintain nominal coverage.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0781","title":"Heat-capacity uncertainty coupling","question":"Can correlated power and temperature calibration errors falsely shrink heat-capacity uncertainty?","prediction":"Joint covariance propagation gives wider validated intervals.","test":"Use safe electrical standards with shared and independent calibration chains.","contrary_outcome":"Intervals remain unchanged and maintain nominal coverage.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0782","id":"S3-0782","volume":"900v3","title":"Acoustic phase reference choice","prediction":"Removing known propagation phase restores causal delay.","test":"Use safe passive acoustic filters with traceable distances.","contrary":"Negative delay persists under the physical reference plane.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0782","title":"Acoustic phase reference choice","question":"Can changing the reference plane create a negative apparent group delay?","prediction":"Removing known propagation phase restores causal delay.","test":"Use safe passive acoustic filters with traceable distances.","contrary_outcome":"Negative delay persists under the physical reference plane.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0783","id":"S3-0783","volume":"900v3","title":"Thermal asymptotic fit trap","prediction":"The extra mode vanishes as the valid asymptotic window moves later.","test":"Use safe known single-mode thermal standards.","contrary":"A second mode remains supported by independent measurements.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0783","title":"Thermal asymptotic fit trap","question":"Can fitting too early create a false second cooling time constant?","prediction":"The extra mode vanishes as the valid asymptotic window moves later.","test":"Use safe known single-mode thermal standards.","contrary_outcome":"A second mode remains supported by independent measurements.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0784","id":"S3-0784","volume":"900v3","title":"Crystal microscopy heating","prediction":"Site preference rotates with the illumination pattern.","test":"Use safe salt cells with low-power patterned light and thermometry.","contrary":"Preference remains fixed after thermal equalization.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0784","title":"Crystal microscopy heating","question":"Can microscope illumination select nucleation sites by local heating?","prediction":"Site preference rotates with the illumination pattern.","test":"Use safe salt cells with low-power patterned light and thermometry.","contrary_outcome":"Preference remains fixed after thermal equalization.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0785","id":"S3-0785","volume":"900v3","title":"Force averaging metastability","prediction":"Resolved events predict rate-dependent deviations from the averaged law.","test":"Use safe snap networks with full-bandwidth force records.","contrary":"Averaged law predicts all ramp rates.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0785","title":"Force averaging metastability","question":"Can averaging intermittent force jumps create an apparently smooth constitutive law that fails under slow ramps?","prediction":"Resolved events predict rate-dependent deviations from the averaged law.","test":"Use safe snap networks with full-bandwidth force records.","contrary_outcome":"Averaged law predicts all ramp rates.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0786","id":"S3-0786","volume":"900v3","title":"Thermal topological dead end","prediction":"Transient delay increases with branch heat capacity at unchanged DC conductance.","test":"Measure safe patterned plates with detachable insulated branches.","contrary":"Delay follows steady conductance alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0786","title":"Thermal topological dead end","question":"Can a dead-end conductive branch delay a pulse without altering steady through-conductance?","prediction":"Transient delay increases with branch heat capacity at unchanged DC conductance.","test":"Measure safe patterned plates with detachable insulated branches.","contrary_outcome":"Delay follows steady conductance alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0787","id":"S3-0787","volume":"900v3","title":"Sound-vapor relaxation","prediction":"Attenuation changes more strongly than transit time across a calibrated humidity step.","test":"Use safe air columns with independent thermal and humidity mapping.","contrary":"Attenuation follows temperature or viscous losses alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0787","title":"Sound-vapor relaxation","question":"Can humidity relaxation absorb sound measurably without changing the mean sound speed?","prediction":"Attenuation changes more strongly than transit time across a calibrated humidity step.","test":"Use safe air columns with independent thermal and humidity mapping.","contrary_outcome":"Attenuation follows temperature or viscous losses alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0788","id":"S3-0788","volume":"900v3","title":"Optical liquid pressure lens","prediction":"Shape metrology accounts for most focus shift.","test":"Use safe low-pressure water cells with independent wall displacement.","contrary":"Focus shifts persist after geometry correction.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0788","title":"Optical liquid pressure lens","question":"Can modest pressure bend a transparent vessel enough to dominate its apparent liquid-index change?","prediction":"Shape metrology accounts for most focus shift.","test":"Use safe low-pressure water cells with independent wall displacement.","contrary_outcome":"Focus shifts persist after geometry correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0789","id":"S3-0789","volume":"900v3","title":"Granular negative compressibility artifact","prediction":"Apparent expansion vanishes when all occupied volume is counted.","test":"Use safe transparent bead cells with full 3D volume tracking.","contrary":"Total occupied volume truly rises under increasing pressure.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0789","title":"Granular negative compressibility artifact","question":"Can grain escape into a side pocket mimic negative compressibility of a closed specimen?","prediction":"Apparent expansion vanishes when all occupied volume is counted.","test":"Use safe transparent bead cells with full 3D volume tracking.","contrary_outcome":"Total occupied volume truly rises under increasing pressure.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0790","id":"S3-0790","volume":"900v3","title":"Crystal capillary alignment","prediction":"Angular drift follows meniscus curvature and reverses with its geometry.","test":"Use benign floating seeds with low-flow controls.","contrary":"Rotation requires crystal contact or external flow.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0790","title":"Crystal capillary alignment","question":"Can two growing crystals rotate toward each other through a shared meniscus before contact?","prediction":"Angular drift follows meniscus curvature and reverses with its geometry.","test":"Use benign floating seeds with low-flow controls.","contrary_outcome":"Rotation requires crystal contact or external flow.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0791","id":"S3-0791","volume":"900v3","title":"Gel thermal-pressure reciprocity","prediction":"Independent small-signal measurements satisfy the calibrated cross-response relation.","test":"Use safe water gels under equilibrium conditions.","contrary":"Cross-responses disagree beyond uncertainty and linearity limits.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0791","title":"Gel thermal-pressure reciprocity","question":"Can mild local heating create a pressure response that predicts deformation under pressure through a shared coupling coefficient?","prediction":"Independent small-signal measurements satisfy the calibrated cross-response relation.","test":"Use safe water gels under equilibrium conditions.","contrary_outcome":"Cross-responses disagree beyond uncertainty and linearity limits.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0792","id":"S3-0792","volume":"900v3","title":"Droplet neck diffusion clock","prediction":"Solvent motion precedes concentration homogenization.","test":"Use safe dyed water drops with 3D flow and concentration imaging.","contrary":"Dye exchange tracks volume transfer instantaneously.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0792","title":"Droplet neck diffusion clock","question":"Can dissolved dye exchange across a newly merged neck lag liquid volume exchange?","prediction":"Solvent motion precedes concentration homogenization.","test":"Use safe dyed water drops with 3D flow and concentration imaging.","contrary_outcome":"Dye exchange tracks volume transfer instantaneously.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0793","id":"S3-0793","volume":"900v3","title":"Elastic joint contact multiplicity","prediction":"Lever arms increase rotational stiffness at matched normal stiffness.","test":"Use safe transparent contacts with force and torque calibration.","contrary":"Area alone predicts both stiffnesses.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0793","title":"Elastic joint contact multiplicity","question":"Can two small contact patches transmit torsion better than one equal-area central patch?","prediction":"Lever arms increase rotational stiffness at matched normal stiffness.","test":"Use safe transparent contacts with force and torque calibration.","contrary_outcome":"Area alone predicts both stiffnesses.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0794","id":"S3-0794","volume":"900v3","title":"Thermal radiation angular storage","prediction":"Early and late cooling trends differ with reflector thermal mass.","test":"Use safe low-temperature calorimetry and measured view factors.","contrary":"Only static view factor controls cooldown.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0794","title":"Thermal radiation angular storage","question":"Can a folded reflector delay an absorber's cooldown by warming before it redirects radiation?","prediction":"Early and late cooling trends differ with reflector thermal mass.","test":"Use safe low-temperature calorimetry and measured view factors.","contrary_outcome":"Only static view factor controls cooldown.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0795","id":"S3-0795","volume":"900v3","title":"Bubble pore compliance screening","prediction":"Dominant compliance suppresses small-bubble response in the measured band.","test":"Use safe water networks with imaged air volumes.","contrary":"Each bubble contributes independently to measured pressure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0795","title":"Bubble pore compliance screening","question":"Can one large bubble hide the pressure signature of many smaller bubbles?","prediction":"Dominant compliance suppresses small-bubble response in the measured band.","test":"Use safe water networks with imaged air volumes.","contrary_outcome":"Each bubble contributes independently to measured pressure.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0796","id":"S3-0796","volume":"900v3","title":"Crystal dissolution orientation lag","prediction":"Transport adjusts before step populations reorganize.","test":"Use benign salt crystals with flow and surface-step imaging.","contrary":"Flow and retreat respond on one common time scale.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0796","title":"Crystal dissolution orientation lag","question":"Can rotating a dissolving crystal change flow faster than face-retreat anisotropy?","prediction":"Transport adjusts before step populations reorganize.","test":"Use benign salt crystals with flow and surface-step imaging.","contrary_outcome":"Flow and retreat respond on one common time scale.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0797","id":"S3-0797","volume":"900v3","title":"Granular light attenuation topology","prediction":"Transmission peaks align with imaged corridor directions.","test":"Use safe transparent bead packs and low-power collimated light.","contrary":"Porosity alone predicts directional transmission.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0797","title":"Granular light attenuation topology","question":"Can connected void corridors transmit more ballistic light than isolated equal-volume pores?","prediction":"Transmission peaks align with imaged corridor directions.","test":"Use safe transparent bead packs and low-power collimated light.","contrary_outcome":"Porosity alone predicts directional transmission.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0798","id":"S3-0798","volume":"900v3","title":"Soft seal pressure memory","prediction":"Leak rate peaks during recovery rather than maximum pressure.","test":"Use safe low-pressure air seals with contact imaging.","contrary":"Leakage is maximal only at peak pressure.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0798","title":"Soft seal pressure memory","question":"Can a gasket leak after pressure removal because delayed recovery opens a temporary channel?","prediction":"Leak rate peaks during recovery rather than maximum pressure.","test":"Use safe low-pressure air seals with contact imaging.","contrary_outcome":"Leakage is maximal only at peak pressure.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0799","id":"S3-0799","volume":"900v3","title":"Water-wave paired obstacles","prediction":"Reflection maxima follow measured inter-obstacle phase.","test":"Use safe shallow-water obstacles with full complex wave mapping.","contrary":"Pair reflection equals incoherent single-obstacle addition.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0799","title":"Water-wave paired obstacles","question":"Can two individually weak scatterers create a strong narrow-band reflection through spacing alone?","prediction":"Reflection maxima follow measured inter-obstacle phase.","test":"Use safe shallow-water obstacles with full complex wave mapping.","contrary_outcome":"Pair reflection equals incoherent single-obstacle addition.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0800","id":"S3-0800","volume":"900v3","title":"Thermal front branching cost","prediction":"Stored enthalpy differs through the measured temperature field.","test":"Use safe phase-change cells with calorimetry and 3D phase imaging.","contrary":"Latent volume alone explains total enthalpy.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0800","title":"Thermal front branching cost","question":"Can a branched melt front absorb more heat than a planar front at equal melted volume because it traps sensible heat?","prediction":"Stored enthalpy differs through the measured temperature field.","test":"Use safe phase-change cells with calorimetry and 3D phase imaging.","contrary_outcome":"Latent volume alone explains total enthalpy.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0801","id":"S3-0801","volume":"900v3","title":"Capillary suction force delay","prediction":"Bridge curvature evolves after pore filling slows.","test":"Use safe water-wet porous contacts with force, mass and meniscus imaging.","contrary":"Force peaks synchronously with uptake rate.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0801","title":"Capillary suction force delay","question":"Can an absorbent support experience peak adhesion after liquid uptake rate has already fallen?","prediction":"Bridge curvature evolves after pore filling slows.","test":"Use safe water-wet porous contacts with force, mass and meniscus imaging.","contrary_outcome":"Force peaks synchronously with uptake rate.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0802","id":"S3-0802","volume":"900v3","title":"Acoustic granular wall mode","prediction":"Mode disappears when wall coupling is softened while internal contacts stay fixed.","test":"Use safe inert packs with full-field vibration and force maps.","contrary":"Apparent rigidity survives wall decoupling.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0802","title":"Acoustic granular wall mode","question":"Can a wall-supported mode make a loose pack appear rigid in one measurement direction?","prediction":"Mode disappears when wall coupling is softened while internal contacts stay fixed.","test":"Use safe inert packs with full-field vibration and force maps.","contrary_outcome":"Apparent rigidity survives wall decoupling.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0803","id":"S3-0803","volume":"900v3","title":"Optical dispersive thermal lens","prediction":"Temperature and concentration dispersion compete differently by wavelength.","test":"Use safe water mixtures with independent thermal/concentration calibration.","contrary":"Deflection sign remains the same after dispersion correction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0803","title":"Optical dispersive thermal lens","question":"Can two probe colors see opposite deflection from one benign solution gradient?","prediction":"Temperature and concentration dispersion compete differently by wavelength.","test":"Use safe water mixtures with independent thermal/concentration calibration.","contrary_outcome":"Deflection sign remains the same after dispersion correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0804","id":"S3-0804","volume":"900v3","title":"Crystal inclusion pressure release","prediction":"A sudden pit-growth change coincides with pressure release.","test":"Use benign transparent crystals with mapped inclusions and safe pressure proxies.","contrary":"Pit growth evolves smoothly through connection.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0804","title":"Crystal inclusion pressure release","question":"Can a sealed fluid inclusion alter local dissolution when it first connects to the surface?","prediction":"A sudden pit-growth change coincides with pressure release.","test":"Use benign transparent crystals with mapped inclusions and safe pressure proxies.","contrary_outcome":"Pit growth evolves smoothly through connection.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0805","id":"S3-0805","volume":"900v3","title":"Granular spin transport","prediction":"Rotational correlations exceed translational correlation length.","test":"Use marked inert disks with synchronized force and motion imaging.","contrary":"Both correlations decay over the same length.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0805","title":"Granular spin transport","question":"Can grain spin propagate farther than translational displacement in a low-load packing?","prediction":"Rotational correlations exceed translational correlation length.","test":"Use marked inert disks with synchronized force and motion imaging.","contrary_outcome":"Both correlations decay over the same length.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0806","id":"S3-0806","volume":"900v3","title":"Thermal interface area paradox","prediction":"Conductance falls over a calibrated area interval at fixed total load.","test":"Use safe rough contacts with optical real-area mapping.","contrary":"Conductance increases monotonically with nominal area.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0806","title":"Thermal interface area paradox","question":"Can increasing nominal contact area reduce conductance by lowering local pressure enough to lose real contact?","prediction":"Conductance falls over a calibrated area interval at fixed total load.","test":"Use safe rough contacts with optical real-area mapping.","contrary_outcome":"Conductance increases monotonically with nominal area.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0807","id":"S3-0807","volume":"900v3","title":"Foam squeeze-film clock","prediction":"Shortest drainage time identifies the eventual topological event.","test":"Use benign foams with interferometric film thickness and blinded event scoring.","contrary":"Film lifetime provides no predictive advantage.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0807","title":"Foam squeeze-film clock","question":"Can the lifetime of a thin film predict the next rearrangement location in a foam?","prediction":"Shortest drainage time identifies the eventual topological event.","test":"Use benign foams with interferometric film thickness and blinded event scoring.","contrary_outcome":"Film lifetime provides no predictive advantage.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0808","id":"S3-0808","volume":"900v3","title":"Elastic buckling heat signature","prediction":"Heat localizes at independently measured slip regions.","test":"Use safe low-energy shells with sensitive thermography and work balance.","contrary":"Thermal signal follows uniform bulk damping only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0808","title":"Elastic buckling heat signature","question":"Can snap-through convert enough stored energy into a transient temperature pattern to locate dissipation?","prediction":"Heat localizes at independently measured slip regions.","test":"Use safe low-energy shells with sensitive thermography and work balance.","contrary_outcome":"Thermal signal follows uniform bulk damping only.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0809","id":"S3-0809","volume":"900v3","title":"Liquid pore acoustic transparency","prediction":"Impedance matching passes through a reflection minimum.","test":"Use safe transparent porous standards with saturation and complex acoustic measurements.","contrary":"Reflection rises monotonically with gas fraction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0809","title":"Liquid pore acoustic transparency","question":"Can partial drainage reduce acoustic reflection despite increasing gas volume?","prediction":"Impedance matching passes through a reflection minimum.","test":"Use safe transparent porous standards with saturation and complex acoustic measurements.","contrary_outcome":"Reflection rises monotonically with gas fraction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0810","id":"S3-0810","volume":"900v3","title":"Crystal boundary wetting gate","prediction":"Boundary opening follows a reversible load threshold.","test":"Use benign polycrystalline analogues with safe water and strain imaging.","contrary":"Wetting depends only on chemistry and temperature.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0810","title":"Crystal boundary wetting gate","question":"Can a liquid film invade a grain boundary only after elastic stress is relieved?","prediction":"Boundary opening follows a reversible load threshold.","test":"Use benign polycrystalline analogues with safe water and strain imaging.","contrary_outcome":"Wetting depends only on chemistry and temperature.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0811","id":"S3-0811","volume":"900v3","title":"Thermal tether radiation competition","prediction":"Cooldown approaches a radiative floor predicted independently.","test":"Use safe suspended calorimeter standards with varied tether geometry.","contrary":"Isolation continues scaling with conductive resistance.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0811","title":"Thermal tether radiation competition","question":"Can reducing tether conductance stop improving isolation because tether radiation then dominates?","prediction":"Cooldown approaches a radiative floor predicted independently.","test":"Use safe suspended calorimeter standards with varied tether geometry.","contrary_outcome":"Isolation continues scaling with conductive resistance.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0812","id":"S3-0812","volume":"900v3","title":"Droplet rebound gas memory","prediction":"Second-impact contact timing depends on the first-impact delay.","test":"Use safe water drops and calibrated soft cavities with pressure sensing.","contrary":"Impacts are independent after droplet properties match.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0812","title":"Droplet rebound gas memory","question":"Can a trapped gas layer retain pressure memory between successive impacts?","prediction":"Second-impact contact timing depends on the first-impact delay.","test":"Use safe water drops and calibrated soft cavities with pressure sensing.","contrary_outcome":"Impacts are independent after droplet properties match.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0813","id":"S3-0813","volume":"900v3","title":"Granular shear-wave polarization","prediction":"Polarization angle follows imaged fabric orientation.","test":"Use inert photoelastic packs with vector vibration probes.","contrary":"Polarization remains fixed to transducer axes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0813","title":"Granular shear-wave polarization","question":"Can rotating contact fabric rotate wave polarization without changing wave speed appreciably?","prediction":"Polarization angle follows imaged fabric orientation.","test":"Use inert photoelastic packs with vector vibration probes.","contrary_outcome":"Polarization remains fixed to transducer axes.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0814","id":"S3-0814","volume":"900v3","title":"Optical evaporation contour","prediction":"Refractive concentration changes outweigh geometric thinning.","test":"Use safe benign solutions with independent profilometry.","contrary":"Phase contours always follow physical surface motion.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0814","title":"Optical evaporation contour","question":"Can an equal-phase contour move opposite to a true liquid surface during evaporation?","prediction":"Refractive concentration changes outweigh geometric thinning.","test":"Use safe benign solutions with independent profilometry.","contrary_outcome":"Phase contours always follow physical surface motion.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0815","id":"S3-0815","volume":"900v3","title":"Hydrogel contact thermal lock","prediction":"Interfacial hydration changes dominate the modulus trend.","test":"Use safe gels with independent adhesion, hydration and rheology measurements.","contrary":"Adhesion follows bulk modulus monotonically.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0815","title":"Hydrogel contact thermal lock","question":"Can cooling a hydrogel contact increase adhesion while lowering its bulk modulus?","prediction":"Interfacial hydration changes dominate the modulus trend.","test":"Use safe gels with independent adhesion, hydration and rheology measurements.","contrary_outcome":"Adhesion follows bulk modulus monotonically.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0816","id":"S3-0816","volume":"900v3","title":"Crystal growth projection recoil","prediction":"Unequal density or trapped-liquid redistribution changes mass weighting.","test":"Use benign crystals with 3D morphology and inclusion imaging.","contrary":"Centroid motion follows geometric growth alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0816","title":"Crystal growth projection recoil","question":"Can a crystal's center of mass shift opposite its fastest-growing face?","prediction":"Unequal density or trapped-liquid redistribution changes mass weighting.","test":"Use benign crystals with 3D morphology and inclusion imaging.","contrary_outcome":"Centroid motion follows geometric growth alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0817","id":"S3-0817","volume":"900v3","title":"Acoustic cavity neck wetting","prediction":"Frequency/damping changes exceed a measured mass-only model.","test":"Use safe low-power cavities with controlled films and thermal properties.","contrary":"Film mass alone explains the response.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0817","title":"Acoustic cavity neck wetting","question":"Can a thin water film shift a cavity resonance more through thermal exchange than added mass?","prediction":"Frequency/damping changes exceed a measured mass-only model.","test":"Use safe low-power cavities with controlled films and thermal properties.","contrary_outcome":"Film mass alone explains the response.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0818","id":"S3-0818","volume":"900v3","title":"Thermal insulation compaction path","prediction":"Conductivity anisotropy follows loading history.","test":"Use safe inert fibrous insulation with tomography and guarded heat flow.","contrary":"Density uniquely predicts conductivity.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0818","title":"Thermal insulation compaction path","question":"Can two packs with equal final density retain different heat conductivity because their contact fabric differs?","prediction":"Conductivity anisotropy follows loading history.","test":"Use safe inert fibrous insulation with tomography and guarded heat flow.","contrary_outcome":"Density uniquely predicts conductivity.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0819","id":"S3-0819","volume":"900v3","title":"Liquid crystal-front suction","prediction":"Growing porous crystal contacts provide capillary suction.","test":"Use benign brine growth with safe pressure control and imaging.","contrary":"Flow requires a pre-existing liquid wick.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0819","title":"Liquid crystal-front suction","question":"Can crystallization draw liquid against a small adverse pressure gradient without a continuous wick?","prediction":"Growing porous crystal contacts provide capillary suction.","test":"Use benign brine growth with safe pressure control and imaging.","contrary_outcome":"Flow requires a pre-existing liquid wick.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0820","id":"S3-0820","volume":"900v3","title":"Elastic discontinuity mode hiding","prediction":"Mode-selective shifts locate the defect.","test":"Use safe beams with calibrated notches and full strain fields.","contrary":"All mode shifts scale with frequency alone.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0820","title":"Elastic discontinuity mode hiding","question":"Can a defect lie at one mode's strain node yet strongly affect a neighboring mode?","prediction":"Mode-selective shifts locate the defect.","test":"Use safe beams with calibrated notches and full strain fields.","contrary_outcome":"All mode shifts scale with frequency alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0820","title":"Elastic discontinuity mode hiding","question":"Can a defect lie at one mode's strain node yet strongly affect a neighboring mode?","prediction":"Mode-selective shifts locate the defect.","test":"Use safe beams with calibrated notches and full strain fields.","contrary_outcome":"All mode shifts scale with frequency alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a defect lie at one mode's strain node yet strongly affect a neighboring mode experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0821","id":"S3-0821","volume":"900v3","title":"Bubble thermal oscillation","prediction":"Mass-transfer lag adds a distinct low-frequency phase shift.","test":"Use safe water-air bubbles under mild calibrated temperature modulation.","contrary":"Thermal expansion alone explains phase and amplitude.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0821","title":"Bubble thermal oscillation","question":"Can weak cyclic heating drive radius oscillations with a phase that identifies gas exchange?","prediction":"Mass-transfer lag adds a distinct low-frequency phase shift.","test":"Use safe water-air bubbles under mild calibrated temperature modulation.","contrary_outcome":"Thermal expansion alone explains phase and amplitude.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0822","id":"S3-0822","volume":"900v3","title":"Porous fracture leak priority","prediction":"Breakthrough order differs from aperture ranking.","test":"Use safe transparent water-wet fractures with contact-angle mapping.","contrary":"Largest aperture always leaks first.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0822","title":"Porous fracture leak priority","question":"Can the first gas leak occur through a narrower path because it has lower liquid pinning barriers?","prediction":"Breakthrough order differs from aperture ranking.","test":"Use safe transparent water-wet fractures with contact-angle mapping.","contrary_outcome":"Largest aperture always leaks first.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0823","id":"S3-0823","volume":"900v3","title":"Optical stress heat disentangling","prediction":"Joint observables recover independently imposed perturbations.","test":"Use safe calibrated polymer standards with low-power optics.","contrary":"The two effects remain degenerate.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0823","title":"Optical stress heat disentangling","question":"Can crossed-polarization phase and ordinary phase separate stress from temperature in one transparent solid?","prediction":"Joint observables recover independently imposed perturbations.","test":"Use safe calibrated polymer standards with low-power optics.","contrary_outcome":"The two effects remain degenerate.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0824","id":"S3-0824","volume":"900v3","title":"Thermal front obstacle attraction","prediction":"Conductive preheating changes curvature and speed upstream.","test":"Use safe wax cells with calibrated inert inserts and temperature maps.","contrary":"Acceleration begins only at contact.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0824","title":"Thermal front obstacle attraction","question":"Can a melt front accelerate toward a conductive obstacle before touching it?","prediction":"Conductive preheating changes curvature and speed upstream.","test":"Use safe wax cells with calibrated inert inserts and temperature maps.","contrary_outcome":"Acceleration begins only at contact.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0825","id":"S3-0825","volume":"900v3","title":"Granular cyclic load dissipation","prediction":"Many small reversible events replace fewer large irreversible events.","test":"Use safe photoelastic grains with full force-displacement work accounting.","contrary":"Dissipation scales monotonically with event count.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0825","title":"Granular cyclic load dissipation","question":"Can dissipation decrease while contact rearrangement count increases?","prediction":"Many small reversible events replace fewer large irreversible events.","test":"Use safe photoelastic grains with full force-displacement work accounting.","contrary_outcome":"Dissipation scales monotonically with event count.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0826","id":"S3-0826","volume":"900v3","title":"Capillary surface crack suction","prediction":"Closure increases capillary pressure before viscous resistance dominates.","test":"Use safe soft transparent channels with shape and flow imaging.","contrary":"Flow follows fixed-geometry groove predictions.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0826","title":"Capillary surface crack suction","question":"Can a surface crack wick water faster than an equal-area open groove because compliant walls narrow under suction?","prediction":"Closure increases capillary pressure before viscous resistance dominates.","test":"Use safe soft transparent channels with shape and flow imaging.","contrary_outcome":"Flow follows fixed-geometry groove predictions.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0827","id":"S3-0827","volume":"900v3","title":"Crystal boundary optical delay","prediction":"Pulse broadening rises while calorimetric absorption stays fixed.","test":"Use low-power light and benign polycrystalline transparent standards.","contrary":"Delay tracks absorption alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0827","title":"Crystal boundary optical delay","question":"Can a grain boundary delay a transmitted optical pulse through scattering without increasing absorption?","prediction":"Pulse broadening rises while calorimetric absorption stays fixed.","test":"Use low-power light and benign polycrystalline transparent standards.","contrary_outcome":"Delay tracks absorption alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0828","id":"S3-0828","volume":"900v3","title":"Thermal convection symmetry breaking","prediction":"Run-specific plume direction persists but randomizes across independent starts.","test":"Use safe small water convection cells with symmetry calibration.","contrary":"Direction is fixed by a measured apparatus asymmetry.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0828","title":"Thermal convection symmetry breaking","question":"Can a centered heater generate a persistent off-center plume in an otherwise symmetric cell?","prediction":"Run-specific plume direction persists but randomizes across independent starts.","test":"Use safe small water convection cells with symmetry calibration.","contrary_outcome":"Direction is fixed by a measured apparatus asymmetry.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0829","id":"S3-0829","volume":"900v3","title":"Liquid film pressure recovery","prediction":"In-plane flow redistributes pressure ahead of vertical shape recovery.","test":"Use safe squeeze films with pressure and interferometric thickness maps.","contrary":"Pressure is uniquely determined by instantaneous thickness.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0829","title":"Liquid film pressure recovery","question":"Can a film regain pressure faster than thickness after a brief load release?","prediction":"In-plane flow redistributes pressure ahead of vertical shape recovery.","test":"Use safe squeeze films with pressure and interferometric thickness maps.","contrary_outcome":"Pressure is uniquely determined by instantaneous thickness.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0830","id":"S3-0830","volume":"900v3","title":"Elastic edge wave leakage","prediction":"Resonant mode conversion reverses geometric expectations.","test":"Use safe plates with matched bends and vector wave mapping.","contrary":"Leakage decreases monotonically with corner smoothness.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0830","title":"Elastic edge wave leakage","question":"Can a smooth edge bend leak more elastic-wave energy than a sharp corner at one frequency?","prediction":"Resonant mode conversion reverses geometric expectations.","test":"Use safe plates with matched bends and vector wave mapping.","contrary_outcome":"Leakage decreases monotonically with corner smoothness.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0831","id":"S3-0831","volume":"900v3","title":"Bubble pair dissolution exchange","prediction":"Growth coincides with faster shrinkage of the nearby small bubble.","test":"Use safe sealed water cells with two-bubble radius and gas mass balance.","contrary":"Both bubbles only shrink independently.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0831","title":"Bubble pair dissolution exchange","question":"Can one bubble grow while total gas volume shrinks because dissolved gas transfers from its smaller neighbor?","prediction":"Growth coincides with faster shrinkage of the nearby small bubble.","test":"Use safe sealed water cells with two-bubble radius and gas mass balance.","contrary_outcome":"Both bubbles only shrink independently.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0832","id":"S3-0832","volume":"900v3","title":"Thermal coating thickness degeneracy","prediction":"Angle dependence identifies calibrated pairs with equal normal-incidence response.","test":"Use safe low-power optical heating and independent thickness standards.","contrary":"The inverse remains degenerate.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0832","title":"Thermal coating thickness degeneracy","question":"Can a second heating angle separate coating absorption from thickness?","prediction":"Angle dependence identifies calibrated pairs with equal normal-incidence response.","test":"Use safe low-power optical heating and independent thickness standards.","contrary_outcome":"The inverse remains degenerate.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0833","id":"S3-0833","volume":"900v3","title":"Granular pore air cushion","prediction":"Pressure buildup precedes force peak and disappears after venting.","test":"Use safe low-energy impacts with pressure, force and imaging.","contrary":"Venting does not alter dynamics after density matching.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0833","title":"Granular pore air cushion","question":"Can trapped air reduce peak impact force while increasing total contact time in an inert powder bed?","prediction":"Pressure buildup precedes force peak and disappears after venting.","test":"Use safe low-energy impacts with pressure, force and imaging.","contrary_outcome":"Venting does not alter dynamics after density matching.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0834","id":"S3-0834","volume":"900v3","title":"Crystal growth gravitational neutrality","prediction":"Transport modifies spatial uniformity but not local attachment law.","test":"Use benign slow-growth cells with measured flow and face speeds.","contrary":"Local kinetic parameters change after transport correction.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0834","title":"Crystal growth gravitational neutrality","question":"Can reversing gravity relative to a growing face leave kinetics unchanged while altering morphology?","prediction":"Transport modifies spatial uniformity but not local attachment law.","test":"Use benign slow-growth cells with measured flow and face speeds.","contrary_outcome":"Local kinetic parameters change after transport correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0835","id":"S3-0835","volume":"900v3","title":"Foam contact network thermal lag","prediction":"Heat transport changes after topology changes rather than simultaneously.","test":"Use benign foam with synchronized topology and guarded thermal measurement.","contrary":"Conductivity follows instantaneous liquid fraction only.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0835","title":"Foam contact network thermal lag","question":"Can contact-network rearrangement leave a delayed thermal-conductivity response at fixed liquid mass?","prediction":"Heat transport changes after topology changes rather than simultaneously.","test":"Use benign foam with synchronized topology and guarded thermal measurement.","contrary_outcome":"Conductivity follows instantaneous liquid fraction only.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0836","id":"S3-0836","volume":"900v3","title":"Capillary valve acoustic triggering","prediction":"Depinning probability peaks at a meniscus resonance.","test":"Use safe water valves with low-power sound and pressure calibration.","contrary":"Only peak pressure determines triggering.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0836","title":"Capillary valve acoustic triggering","question":"Can a weak pressure oscillation trigger a capillary valve below its static threshold without net mean flow?","prediction":"Depinning probability peaks at a meniscus resonance.","test":"Use safe water valves with low-power sound and pressure calibration.","contrary_outcome":"Only peak pressure determines triggering.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0837","id":"S3-0837","volume":"900v3","title":"Elastic fluid-backed mode splitting","prediction":"Added-fluid inertia couples nominally degenerate modes.","test":"Use safe water-backed plates with reversible fill and full-field vibrations.","contrary":"Splitting remains unchanged after fluid removal.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0837","title":"Elastic fluid-backed mode splitting","question":"Can a fluid-backed plate show split modes without a structural defect?","prediction":"Added-fluid inertia couples nominally degenerate modes.","test":"Use safe water-backed plates with reversible fill and full-field vibrations.","contrary_outcome":"Splitting remains unchanged after fluid removal.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0838","id":"S3-0838","volume":"900v3","title":"Thermal radiation cavity calibration","prediction":"Nonuniform wall temperatures defeat an isothermal emissivity calibration.","test":"Use safe low-temperature cavities with distributed thermometry and radiometry.","contrary":"One emissivity value predicts all heating placements.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0838","title":"Thermal radiation cavity calibration","question":"Can a cavity's effective emissivity depend measurably on where it is heated?","prediction":"Nonuniform wall temperatures defeat an isothermal emissivity calibration.","test":"Use safe low-temperature cavities with distributed thermometry and radiometry.","contrary_outcome":"One emissivity value predicts all heating placements.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0839","id":"S3-0839","volume":"900v3","title":"Liquid pore front recoil","prediction":"Network redistribution causes local reversal despite rising inlet pressure.","test":"Use safe transparent pore networks with multiple pressure taps.","contrary":"Every local front advances monotonically.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0839","title":"Liquid pore front recoil","question":"Can a wetting front retreat briefly after a pressure increase because trapped gas compresses elsewhere?","prediction":"Network redistribution causes local reversal despite rising inlet pressure.","test":"Use safe transparent pore networks with multiple pressure taps.","contrary_outcome":"Every local front advances monotonically.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0840","id":"S3-0840","volume":"900v3","title":"Crystal capillary drying fracture","prediction":"Crack onset tracks meniscus curvature and disappears under wet storage.","test":"Use benign fragile crystals with strain and humidity controls.","contrary":"Cracks require hydration changes or thermal stress.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0840","title":"Crystal capillary drying fracture","question":"Can a crystal crack during drying from surface-tension stress even without a phase transition?","prediction":"Crack onset tracks meniscus curvature and disappears under wet storage.","test":"Use benign fragile crystals with strain and humidity controls.","contrary_outcome":"Cracks require hydration changes or thermal stress.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0841","id":"S3-0841","volume":"900v3","title":"Granular wave impedance gradient","prediction":"Distributed resonant trapping outweighs impedance smoothing.","test":"Use safe bead chains with calibrated contact loads and full pulse mapping.","contrary":"Reflection always falls with gradient smoothness.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0841","title":"Granular wave impedance gradient","question":"Can a gentle stiffness gradient reflect more energy than an abrupt interface near a local resonance?","prediction":"Distributed resonant trapping outweighs impedance smoothing.","test":"Use safe bead chains with calibrated contact loads and full pulse mapping.","contrary_outcome":"Reflection always falls with gradient smoothness.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0842","id":"S3-0842","volume":"900v3","title":"Thermal gel swelling-front order","prediction":"Different thermal and hydraulic relaxation times reorder the fronts.","test":"Use safe hydrogels with spatial water and temperature imaging.","contrary":"Front order is fixed by geometry alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0842","title":"Thermal gel swelling-front order","question":"Can a temperature pulse reverse the order in which two gel regions swell without changing final water content?","prediction":"Different thermal and hydraulic relaxation times reorder the fronts.","test":"Use safe hydrogels with spatial water and temperature imaging.","contrary_outcome":"Front order is fixed by geometry alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0843","id":"S3-0843","volume":"900v3","title":"Optical surface-wave vorticity","prediction":"Path symmetry separates independently imposed perturbations.","test":"Use safe water cells with low-power probes and velocimetry.","contrary":"Tilt and bulk flow remain observationally identical.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0843","title":"Optical surface-wave vorticity","question":"Can crossed optical paths distinguish surface tilt from subsurface flow-induced index gradients?","prediction":"Path symmetry separates independently imposed perturbations.","test":"Use safe water cells with low-power probes and velocimetry.","contrary_outcome":"Tilt and bulk flow remain observationally identical.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0844","id":"S3-0844","volume":"900v3","title":"Bubble adhesion thermal gradient","prediction":"Detachment correlates with interfacial concentration redistribution.","test":"Use safe water-air bubbles with benign surfactant markers.","contrary":"Detachment follows buoyancy or gas expansion alone.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0844","title":"Bubble adhesion thermal gradient","question":"Can a small thermal gradient detach a pinned bubble by shifting surface contamination rather than buoyancy?","prediction":"Detachment correlates with interfacial concentration redistribution.","test":"Use safe water-air bubbles with benign surfactant markers.","contrary_outcome":"Detachment follows buoyancy or gas expansion alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0845","id":"S3-0845","volume":"900v3","title":"Elastic granular rotational resonance","prediction":"Rotational coupling adds a soft dynamical branch.","test":"Use safe marked grain arrays with constrained/free rotation controls.","contrary":"Resonance follows translational stiffness alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0845","title":"Elastic granular rotational resonance","question":"Can adding rotational freedom lower a packing's resonance while increasing translational stiffness?","prediction":"Rotational coupling adds a soft dynamical branch.","test":"Use safe marked grain arrays with constrained/free rotation controls.","contrary_outcome":"Resonance follows translational stiffness alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0846","id":"S3-0846","volume":"900v3","title":"Thermal sensor placement tradeoff","prediction":"Reduced heater cross-talk improves calibrated information content.","test":"Use safe layered thermal standards with blinded parameter recovery.","contrary":"Estimation worsens monotonically with separation.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0846","title":"Thermal sensor placement tradeoff","question":"Can moving a sensor farther from a heater improve interface parameter estimation despite lower signal?","prediction":"Reduced heater cross-talk improves calibrated information content.","test":"Use safe layered thermal standards with blinded parameter recovery.","contrary_outcome":"Estimation worsens monotonically with separation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0847","id":"S3-0847","volume":"900v3","title":"Liquid bridge shape instability","prediction":"A lateral mode softens first under a calibrated confinement geometry.","test":"Use safe water bridges with 3D perturbation and force measurements.","contrary":"Axial necking always precedes lateral instability.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0847","title":"Liquid bridge shape instability","question":"Can a bridge become unstable to lateral motion before axial necking?","prediction":"A lateral mode softens first under a calibrated confinement geometry.","test":"Use safe water bridges with 3D perturbation and force measurements.","contrary_outcome":"Axial necking always precedes lateral instability.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0848","id":"S3-0848","volume":"900v3","title":"Crystal acoustic strain mapping","prediction":"Mode-shape changes correlate with independent optical strain maps.","test":"Use benign transparent crystals with low-power acoustic probes.","contrary":"Only mean lattice strain predicts response.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0848","title":"Crystal acoustic strain mapping","question":"Can weak resonant ultrasound localize a strained region invisible in average lattice spacing?","prediction":"Mode-shape changes correlate with independent optical strain maps.","test":"Use benign transparent crystals with low-power acoustic probes.","contrary_outcome":"Only mean lattice strain predicts response.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0849","id":"S3-0849","volume":"900v3","title":"Porous evaporation crust breach","prediction":"Remote vapor flux rises before local temperatures change.","test":"Use safe salt crust analogues with spatial humidity and pressure sensing.","contrary":"Only the puncture neighborhood changes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0849","title":"Porous evaporation crust breach","question":"Can puncturing one crust pore increase evaporation far away by relieving gas pressure?","prediction":"Remote vapor flux rises before local temperatures change.","test":"Use safe salt crust analogues with spatial humidity and pressure sensing.","contrary_outcome":"Only the puncture neighborhood changes.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0850","id":"S3-0850","volume":"900v3","title":"Elastic film wrinkle phase","prediction":"Junction phase controls localized curvature energy.","test":"Use safe compressed films with 3D topography and force measurements.","contrary":"Wavelength and amplitude alone determine energy.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0850","title":"Elastic film wrinkle phase","question":"Can two wrinkle patterns share wavelength but differ in stored energy because their phases meet differently?","prediction":"Junction phase controls localized curvature energy.","test":"Use safe compressed films with 3D topography and force measurements.","contrary_outcome":"Wavelength and amplitude alone determine energy.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0851","id":"S3-0851","volume":"900v3","title":"Thermal granular orientation switch","prediction":"Angle-resolved radiance changes dominate the measured heat balance.","test":"Use safe inert grains with matched density and guarded conduction.","contrary":"Conduction accounts for the full orientation effect.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0851","title":"Thermal granular orientation switch","question":"Can rotating elongated grains change radiation loss more than solid conduction?","prediction":"Angle-resolved radiance changes dominate the measured heat balance.","test":"Use safe inert grains with matched density and guarded conduction.","contrary_outcome":"Conduction accounts for the full orientation effect.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0852","id":"S3-0852","volume":"900v3","title":"Liquid vortex heat extraction","prediction":"Local flux rises but calorimetric total falls.","test":"Use safe heated water cells with velocity and distributed heat-flux maps.","contrary":"Local enhancement always raises total removal.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0852","title":"Liquid vortex heat extraction","question":"Can a vortex increase local cooling while decreasing total heat removal by recirculating warmed fluid?","prediction":"Local flux rises but calorimetric total falls.","test":"Use safe heated water cells with velocity and distributed heat-flux maps.","contrary_outcome":"Local enhancement always raises total removal.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0853","id":"S3-0853","volume":"900v3","title":"Bubble contact-angle history","prediction":"Force differences persist after shape matching but vanish after surface reset.","test":"Use safe water-air bubbles with controlled contact preparation.","contrary":"Shape uniquely determines detachment force.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0853","title":"Bubble contact-angle history","question":"Can two equal-shaped bubbles detach at different forces because microscopic pinning histories differ?","prediction":"Force differences persist after shape matching but vanish after surface reset.","test":"Use safe water-air bubbles with controlled contact preparation.","contrary_outcome":"Shape uniquely determines detachment force.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0854","id":"S3-0854","volume":"900v3","title":"Crystal growth fluid compliance","prediction":"Pressure-flow oscillations modulate local solute transport.","test":"Use benign crystal cells with rigid/compliant reservoir controls.","contrary":"Oscillations persist with identical measured local flow.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0854","title":"Crystal growth fluid compliance","question":"Can reservoir compliance create growth oscillations under constant nominal supply concentration?","prediction":"Pressure-flow oscillations modulate local solute transport.","test":"Use benign crystal cells with rigid/compliant reservoir controls.","contrary_outcome":"Oscillations persist with identical measured local flow.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0855","id":"S3-0855","volume":"900v3","title":"Acoustic thermal modal crossing","prediction":"An avoided crossing transfers mode localization.","test":"Use safe low-power acoustics with controlled mild wall heating.","contrary":"Modes cross without exchanging shape.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0855","title":"Acoustic thermal modal crossing","question":"Can two cavity resonances exchange spatial character as one wall warms?","prediction":"An avoided crossing transfers mode localization.","test":"Use safe low-power acoustics with controlled mild wall heating.","contrary_outcome":"Modes cross without exchanging shape.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0856","id":"S3-0856","volume":"900v3","title":"Capillary membrane pressure atlas","prediction":"Calibrated tension and shape predict independent pressure taps.","test":"Use safe water-loaded films with 3D shape metrology.","contrary":"Curvature-derived pressure fails outside uncertainty.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0856","title":"Capillary membrane pressure atlas","question":"Can distributed curvature reconstruct a pressure field under a flexible wet membrane?","prediction":"Calibrated tension and shape predict independent pressure taps.","test":"Use safe water-loaded films with 3D shape metrology.","contrary_outcome":"Curvature-derived pressure fails outside uncertainty.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0857","id":"S3-0857","volume":"900v3","title":"Thermal crystal strain release","prediction":"Defect removal changes directional heat transport.","test":"Use safe low-temperature-compatible crystals with strain and thermal maps.","contrary":"Anisotropy remains fixed after verified strain relaxation.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0857","title":"Thermal crystal strain release","question":"Can annealing a benign crystal change cooling anisotropy without changing its visible shape?","prediction":"Defect removal changes directional heat transport.","test":"Use safe low-temperature-compatible crystals with strain and thermal maps.","contrary_outcome":"Anisotropy remains fixed after verified strain relaxation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0858","id":"S3-0858","volume":"900v3","title":"Granular liquid bridge torque","prediction":"Rotation precedes centroid motion at a measured threshold.","test":"Use safe water bridges and marked inert grains.","contrary":"Translation always precedes resolved rotation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0858","title":"Granular liquid bridge torque","question":"Can an off-center capillary bridge transmit enough torque to rotate a grain before translating it?","prediction":"Rotation precedes centroid motion at a measured threshold.","test":"Use safe water bridges and marked inert grains.","contrary_outcome":"Translation always precedes resolved rotation.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0859","id":"S3-0859","volume":"900v3","title":"Optical transient scattering ledger","prediction":"Full angular and calorimetric balance resolves the apparent contradiction.","test":"Use safe low-power light and benign variable-absorption standards.","contrary":"Forward intensity uniquely tracks total scattering.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0859","title":"Optical transient scattering ledger","question":"Can decreasing forward intensity coincide with decreasing total scattering because absorption rises?","prediction":"Full angular and calorimetric balance resolves the apparent contradiction.","test":"Use safe low-power light and benign variable-absorption standards.","contrary_outcome":"Forward intensity uniquely tracks total scattering.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0860","id":"S3-0860","volume":"900v3","title":"Thermal void gas exchange","prediction":"Late thermal response changes when gas permeability is blocked.","test":"Use safe inert gas cavities with matched conduction controls.","contrary":"Blocking gas exchange leaves all thermal modes unchanged.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0860","title":"Thermal void gas exchange","question":"Can gas exchange through a porous wall alter a void's effective heat capacity on long time scales?","prediction":"Late thermal response changes when gas permeability is blocked.","test":"Use safe inert gas cavities with matched conduction controls.","contrary_outcome":"Blocking gas exchange leaves all thermal modes unchanged.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0861","id":"S3-0861","volume":"900v3","title":"Liquid meniscus force-chain coupling","prediction":"Capillary force propagates through preloaded solid contacts.","test":"Use safe transparent granular models with wetting and force imaging.","contrary":"Rearrangements remain confined to wet contacts.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0861","title":"Liquid meniscus force-chain coupling","question":"Can a meniscus jump reorganize a dry contact network outside the wetted region?","prediction":"Capillary force propagates through preloaded solid contacts.","test":"Use safe transparent granular models with wetting and force imaging.","contrary_outcome":"Rearrangements remain confined to wet contacts.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0862","id":"S3-0862","volume":"900v3","title":"Elastic acoustic localization reset","prediction":"Localization length changes with boundary phase.","test":"Use safe disordered beam networks with full-field modes.","contrary":"Localization depends only on internal disorder.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0862","title":"Elastic acoustic localization reset","question":"Can a reversible boundary displacement destroy localized vibration without altering disorder inside?","prediction":"Localization length changes with boundary phase.","test":"Use safe disordered beam networks with full-field modes.","contrary_outcome":"Localization depends only on internal disorder.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0863","id":"S3-0863","volume":"900v3","title":"Crystal front solute borrowing","prediction":"Local growth exceeds through-flow supply while pocket concentration falls.","test":"Use benign transparent channels with complete solute balance.","contrary":"Growth never exceeds instantaneous external supply.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0863","title":"Crystal front solute borrowing","question":"Can one advancing crystal temporarily grow faster than incoming solute flux by depleting a neighboring stagnant pocket?","prediction":"Local growth exceeds through-flow supply while pocket concentration falls.","test":"Use benign transparent channels with complete solute balance.","contrary_outcome":"Growth never exceeds instantaneous external supply.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0864","id":"S3-0864","volume":"900v3","title":"Thermal surface-film rupture","prediction":"Radiative change explains the transient when mass loss is negligible.","test":"Use safe films with spectral radiometry and gravimetric bounds.","contrary":"Evaporative heat accounts for the entire transient.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0864","title":"Thermal surface-film rupture","question":"Can an ultrathin water film's rupture change cooling mainly through emissivity rather than evaporation?","prediction":"Radiative change explains the transient when mass loss is negligible.","test":"Use safe films with spectral radiometry and gravimetric bounds.","contrary_outcome":"Evaporative heat accounts for the entire transient.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0865","id":"S3-0865","volume":"900v3","title":"Granular bridge vibration shielding","prediction":"Broadband transmission falls but a narrow resonance grows.","test":"Use safe bead bridges with calibrated weak excitation.","contrary":"Isolation reduces response at every frequency.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0865","title":"Granular bridge vibration shielding","question":"Can a soft boundary isolate a grain bridge from ambient vibration while increasing its internal resonant response?","prediction":"Broadband transmission falls but a narrow resonance grows.","test":"Use safe bead bridges with calibrated weak excitation.","contrary_outcome":"Isolation reduces response at every frequency.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0866","id":"S3-0866","volume":"900v3","title":"Liquid reservoir thermal siphon","prediction":"Density and capillary changes overcome the original pressure head.","test":"Use safe water reservoirs with complete temperature and pressure mapping.","contrary":"Flow direction follows height alone.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0866","title":"Liquid reservoir thermal siphon","question":"Can a temperature gradient reverse flow in a capillary-connected pair without changing reservoir heights?","prediction":"Density and capillary changes overcome the original pressure head.","test":"Use safe water reservoirs with complete temperature and pressure mapping.","contrary_outcome":"Flow direction follows height alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0867","id":"S3-0867","volume":"900v3","title":"Bubble dissolution wall shadow","prediction":"Diffusive shielding persists after shape matching.","test":"Use safe water-air bubbles with calibrated wall distances.","contrary":"Shape-corrected lifetimes are wall-independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0867","title":"Bubble dissolution wall shadow","question":"Can a nearby impermeable wall slow bubble dissolution beyond the effect of changed shape?","prediction":"Diffusive shielding persists after shape matching.","test":"Use safe water-air bubbles with calibrated wall distances.","contrary_outcome":"Shape-corrected lifetimes are wall-independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0868","id":"S3-0868","volume":"900v3","title":"Elastic crease network frustration","prediction":"Residual stress appears only after loop closure.","test":"Use safe paper-like elastic sheets with full strain maps.","contrary":"Closed loops remain stress-free whenever each crease is compatible.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0868","title":"Elastic crease network frustration","question":"Can two individually compatible creases become incompatible when joined into a closed loop?","prediction":"Residual stress appears only after loop closure.","test":"Use safe paper-like elastic sheets with full strain maps.","contrary_outcome":"Closed loops remain stress-free whenever each crease is compatible.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0869","id":"S3-0869","volume":"900v3","title":"Thermal acoustic source separation","prediction":"Signal survives evacuation of the gas path but follows support motion.","test":"Use safe low-energy heating, modest pressure variation and vibrometry.","contrary":"Sound disappears with gas while support motion remains.","layers":[1],"categories":["physical","energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0869","title":"Thermal acoustic source separation","question":"Can sound from a heat pulse arise from support expansion rather than gas heating?","prediction":"Signal survives evacuation of the gas path but follows support motion.","test":"Use safe low-energy heating, modest pressure variation and vibrometry.","contrary_outcome":"Sound disappears with gas while support motion remains.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0870","id":"S3-0870","volume":"900v3","title":"Crystal pore osmotic gate","prediction":"One critical throat controls hydraulic percolation.","test":"Use benign salt plugs with tomography and pressure-flow measurements.","contrary":"Flow scales smoothly with total remaining mass.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0870","title":"Crystal pore osmotic gate","question":"Can a dissolving plug reopen a channel abruptly before losing most of its mass?","prediction":"One critical throat controls hydraulic percolation.","test":"Use benign salt plugs with tomography and pressure-flow measurements.","contrary_outcome":"Flow scales smoothly with total remaining mass.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0871","id":"S3-0871","volume":"900v3","title":"Granular contact polarization","prediction":"Temperature cross-correlations align with contacts.","test":"Use safe inert packs with sensitive multi-point thermometry.","contrary":"Correlations are isotropic after sensor correction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0871","title":"Granular contact polarization","question":"Can directional force chains make thermal fluctuations spatially anisotropic without anisotropic mean temperature?","prediction":"Temperature cross-correlations align with contacts.","test":"Use safe inert packs with sensitive multi-point thermometry.","contrary_outcome":"Correlations are isotropic after sensor correction.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0872","id":"S3-0872","volume":"900v3","title":"Liquid film elastic-wave guide","prediction":"Guided mode appears without a stiffness change.","test":"Use safe water stripes, low-amplitude excitation and full-field imaging.","contrary":"Guidance requires altered stiffness or edge tension.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0872","title":"Liquid film elastic-wave guide","question":"Can a narrow wet stripe guide a bending wave on a flexible film through added mass alone?","prediction":"Guided mode appears without a stiffness change.","test":"Use safe water stripes, low-amplitude excitation and full-field imaging.","contrary_outcome":"Guidance requires altered stiffness or edge tension.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0873","id":"S3-0873","volume":"900v3","title":"Thermal capillary reset timing","prediction":"History selects retained liquid near the heat source.","test":"Use safe water wicks with equal-energy pulses and saturation imaging.","contrary":"Cooling depends only on total retained water.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0873","title":"Thermal capillary reset timing","question":"Can a heat pulse applied during drainage yield more later cooling than the same pulse after drainage?","prediction":"History selects retained liquid near the heat source.","test":"Use safe water wicks with equal-energy pulses and saturation imaging.","contrary_outcome":"Cooling depends only on total retained water.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0874","id":"S3-0874","volume":"900v3","title":"Bubble raft defect migration","prediction":"Neighbor exchanges carry the defect oppositely.","test":"Use benign foams with complete topological tracking.","contrary":"Defect motion follows bulk advection only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0874","title":"Bubble raft defect migration","question":"Can a vacancy in a bubble raft move against the mean bubble drift?","prediction":"Neighbor exchanges carry the defect oppositely.","test":"Use benign foams with complete topological tracking.","contrary_outcome":"Defect motion follows bulk advection only.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0875","id":"S3-0875","volume":"900v3","title":"Crystal optical stress inversion","prediction":"Angular signatures separate calibrated defects.","test":"Use benign transparent crystals with independent microscopy.","contrary":"Both defects remain optically degenerate.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0875","title":"Crystal optical stress inversion","question":"Can multi-angle birefringence distinguish a buried stress source from a surface scratch?","prediction":"Angular signatures separate calibrated defects.","test":"Use benign transparent crystals with independent microscopy.","contrary_outcome":"Both defects remain optically degenerate.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0876","id":"S3-0876","volume":"900v3","title":"Elastic thermal bridge cancellation","prediction":"Surface alignment improves as support forces rise.","test":"Use safe small platforms with force, temperature and tilt sensors.","contrary":"Tilt cancellation also minimizes internal force.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0876","title":"Elastic thermal bridge cancellation","question":"Can two supports' expansion cancel tilt while increasing internal stress?","prediction":"Surface alignment improves as support forces rise.","test":"Use safe small platforms with force, temperature and tilt sensors.","contrary_outcome":"Tilt cancellation also minimizes internal force.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0877","id":"S3-0877","volume":"900v3","title":"Porous liquid concentration rebound","prediction":"A rebound peak follows independently measured dead-pore inventory.","test":"Use safe salt-water transparent networks with full mass balance.","contrary":"Concentration decays monotonically after flushing.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0877","title":"Porous liquid concentration rebound","question":"Can local concentration rise after clean-water flushing stops because stagnant pores release solute?","prediction":"A rebound peak follows independently measured dead-pore inventory.","test":"Use safe salt-water transparent networks with full mass balance.","contrary_outcome":"Concentration decays monotonically after flushing.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0878","id":"S3-0878","volume":"900v3","title":"Thermal wave conductive ring","prediction":"First arrival follows the loop despite greater distance.","test":"Use safe patterned plates with calibrated conductivity and thermal imaging.","contrary":"Arrival time follows geometric distance alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0878","title":"Thermal wave conductive ring","question":"Can a closed conductive loop carry a temperature perturbation around an insulating region faster than a straight shorter path?","prediction":"First arrival follows the loop despite greater distance.","test":"Use safe patterned plates with calibrated conductivity and thermal imaging.","contrary_outcome":"Arrival time follows geometric distance alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0879","id":"S3-0879","volume":"900v3","title":"Acoustic grain-size blindness","prediction":"Multiple scattering reveals distribution width.","test":"Use safe inert packs with matched porosity and low-power pulses.","contrary":"Coda depends only on mean grain size.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0879","title":"Acoustic grain-size blindness","question":"Can two grain-size distributions share first-arrival speed but differ strongly in coda statistics?","prediction":"Multiple scattering reveals distribution width.","test":"Use safe inert packs with matched porosity and low-power pulses.","contrary_outcome":"Coda depends only on mean grain size.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0880","id":"S3-0880","volume":"900v3","title":"Liquid bridge stored-charge audit","prediction":"Integrated guarded charge returns to zero despite peak voltage.","test":"Use safe water and high-impedance low-voltage measurement with full-cycle accounting.","contrary":"A persistent net charge remains after the cycle.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0880","title":"Liquid bridge stored-charge audit","question":"Can a breaking liquid bridge produce a voltage pulse through contact-area change without net charge separation?","prediction":"Integrated guarded charge returns to zero despite peak voltage.","test":"Use safe water and high-impedance low-voltage measurement with full-cycle accounting.","contrary_outcome":"A persistent net charge remains after the cycle.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0881","id":"S3-0881","volume":"900v3","title":"Crystal growth shear interruption","prediction":"Post-stop growth variance falls at unchanged mean solute supply.","test":"Use benign crystal cells with local concentration mapping.","contrary":"Uniformity depends only on current flow rate.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0881","title":"Crystal growth shear interruption","question":"Can stopping flow briefly improve later growth uniformity by relaxing an asymmetric boundary layer?","prediction":"Post-stop growth variance falls at unchanged mean solute supply.","test":"Use benign crystal cells with local concentration mapping.","contrary_outcome":"Uniformity depends only on current flow rate.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0882","id":"S3-0882","volume":"900v3","title":"Thermal pore radiative coupling","prediction":"Conductivity-like contribution scales with measured wall emissivity.","test":"Use safe porous standards with controlled radiative coatings and contact geometry.","contrary":"Solid contacts alone explain transport.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0882","title":"Thermal pore radiative coupling","question":"Can two noncontact pore walls exchange enough radiation to change the apparent solid conductivity at modest temperature?","prediction":"Conductivity-like contribution scales with measured wall emissivity.","test":"Use safe porous standards with controlled radiative coatings and contact geometry.","contrary_outcome":"Solid contacts alone explain transport.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0883","id":"S3-0883","volume":"900v3","title":"Elastic membrane liquid ballast","prediction":"Mode shape responds more strongly than eigenvalue.","test":"Use safe liquid-loaded membranes with full-field vibration.","contrary":"Node shifts require proportional frequency changes.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0883","title":"Elastic membrane liquid ballast","question":"Can redistributing fixed liquid mass shift a membrane node without appreciably shifting frequency?","prediction":"Mode shape responds more strongly than eigenvalue.","test":"Use safe liquid-loaded membranes with full-field vibration.","contrary_outcome":"Node shifts require proportional frequency changes.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0884","id":"S3-0884","volume":"900v3","title":"Granular capillary unloading","prediction":"Stiffness rises while capillary cohesion falls.","test":"Use safe water-wet inert grains with contact and force mapping.","contrary":"Drying always lowers stiffness after density matching.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0884","title":"Granular capillary unloading","question":"Can removing water increase compressive stiffness by allowing contacts to seat more firmly?","prediction":"Stiffness rises while capillary cohesion falls.","test":"Use safe water-wet inert grains with contact and force mapping.","contrary_outcome":"Drying always lowers stiffness after density matching.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0885","id":"S3-0885","volume":"900v3","title":"Liquid front sound coupling","prediction":"Frequency shifts with column length at fixed pore geometry.","test":"Use safe transparent capillary systems with passive sound sensing.","contrary":"Spectrum depends only on local throat size.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0885","title":"Liquid front sound coupling","question":"Can a capillary jump radiate a reproducible acoustic frequency set by the connected liquid column?","prediction":"Frequency shifts with column length at fixed pore geometry.","test":"Use safe transparent capillary systems with passive sound sensing.","contrary_outcome":"Spectrum depends only on local throat size.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0886","id":"S3-0886","volume":"900v3","title":"Thermal ice interface slip","prediction":"Interfacial lubrication precedes normal contact collapse.","test":"Use safe restrained ice contacts with independent shear and normal probes.","contrary":"Both stiffnesses vanish together.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0886","title":"Thermal ice interface slip","question":"Can a warming ice contact lose shear resistance before losing normal stiffness?","prediction":"Interfacial lubrication precedes normal contact collapse.","test":"Use safe restrained ice contacts with independent shear and normal probes.","contrary_outcome":"Both stiffnesses vanish together.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0887","id":"S3-0887","volume":"900v3","title":"Crystal dissolution trapped-gas release","prediction":"Pit growth rises after bubble emergence with resolved flow.","test":"Use benign transparent crystals with mapped inclusions.","contrary":"Rate change is fully explained by new surface area.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0887","title":"Crystal dissolution trapped-gas release","question":"Can gas release from an inclusion accelerate nearby dissolution through local mixing?","prediction":"Pit growth rises after bubble emergence with resolved flow.","test":"Use benign transparent crystals with mapped inclusions.","contrary_outcome":"Rate change is fully explained by new surface area.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0888","id":"S3-0888","volume":"900v3","title":"Elastic pulse capillary damping","prediction":"Loss changes with pinning at fixed liquid viscosity.","test":"Use safe beams and water bridges with contact-line imaging.","contrary":"Viscosity alone predicts damping.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0888","title":"Elastic pulse capillary damping","question":"Can a tiny liquid bridge damp a beam mode mainly through moving contact lines rather than bulk viscosity?","prediction":"Loss changes with pinning at fixed liquid viscosity.","test":"Use safe beams and water bridges with contact-line imaging.","contrary_outcome":"Viscosity alone predicts damping.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0889","id":"S3-0889","volume":"900v3","title":"Granular pressure thermal drift","prediction":"Base load drifts with contact temperature while total support force remains constant.","test":"Use safe inert columns with distributed load and temperature sensors.","contrary":"Load partition is temperature-independent.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0889","title":"Granular pressure thermal drift","question":"Can slow grain-temperature equilibration alter base pressure through wall friction without changing total weight?","prediction":"Base load drifts with contact temperature while total support force remains constant.","test":"Use safe inert columns with distributed load and temperature sensors.","contrary_outcome":"Load partition is temperature-independent.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0890","id":"S3-0890","volume":"900v3","title":"Liquid foam gas-pressure memory","prediction":"Stiffness correlates with independently measured pressure heterogeneity.","test":"Use benign sealed foams with curvature and force measurements.","contrary":"Bubble size distribution alone determines stiffness.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0890","title":"Liquid foam gas-pressure memory","question":"Can foam retain different mechanical stiffness at equal bubble sizes because gas exchange history changes internal pressure distribution?","prediction":"Stiffness correlates with independently measured pressure heterogeneity.","test":"Use benign sealed foams with curvature and force measurements.","contrary_outcome":"Bubble size distribution alone determines stiffness.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0891","id":"S3-0891","volume":"900v3","title":"Thermal crystal contact healing","prediction":"Recontact restores heat paths without restoring cohesive bonds.","test":"Use benign fractured crystals under safe closing loads with heat and force tests.","contrary":"Thermal and mechanical recovery track together.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0891","title":"Thermal crystal contact healing","question":"Can a fractured crystal's thermal conductance recover before its tensile strength?","prediction":"Recontact restores heat paths without restoring cohesive bonds.","test":"Use benign fractured crystals under safe closing loads with heat and force tests.","contrary_outcome":"Thermal and mechanical recovery track together.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0892","id":"S3-0892","volume":"900v3","title":"Optical liquid wall roughness","prediction":"Scattering falls but pressure loss remains elevated.","test":"Use safe transparent rough channels with index matching and flow calibration.","contrary":"Optical and hydraulic roughness vanish together.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0892","title":"Optical liquid wall roughness","question":"Can a wetted rough wall become optically smooth while remaining hydrodynamically rough?","prediction":"Scattering falls but pressure loss remains elevated.","test":"Use safe transparent rough channels with index matching and flow calibration.","contrary_outcome":"Optical and hydraulic roughness vanish together.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0893","id":"S3-0893","volume":"900v3","title":"Granular layer acoustic echo","prediction":"Coherent periodic scattering creates a band-specific echo.","test":"Use safe bead assemblies with calibrated contact loads.","contrary":"Only stiffness contrast produces an echo.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0893","title":"Granular layer acoustic echo","question":"Can an ordered layer embedded in disorder reflect a pulse despite matched average stiffness?","prediction":"Coherent periodic scattering creates a band-specific echo.","test":"Use safe bead assemblies with calibrated contact loads.","contrary_outcome":"Only stiffness contrast produces an echo.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0894","id":"S3-0894","volume":"900v3","title":"Liquid capillary thermal bifurcation","prediction":"Stable branches appear under opposite ramp histories.","test":"Use safe water capillaries below hazardous temperatures with full heat and mass balance.","contrary":"Branches disappear after verified equilibration.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0894","title":"Liquid capillary thermal bifurcation","question":"Can a heated capillary sustain two flow rates at equal power because evaporation and refill couple nonlinearly?","prediction":"Stable branches appear under opposite ramp histories.","test":"Use safe water capillaries below hazardous temperatures with full heat and mass balance.","contrary_outcome":"Branches disappear after verified equilibration.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0895","id":"S3-0895","volume":"900v3","title":"Elastic contact network repair","prediction":"Geometric reconfiguration outweighs added local stiffness.","test":"Use safe reconfigurable lattices with full force-displacement tracking.","contrary":"Every added positive spring increases measured stiffness.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0895","title":"Elastic contact network repair","question":"Can adding a weak spring reduce overall stiffness by changing the equilibrium geometry?","prediction":"Geometric reconfiguration outweighs added local stiffness.","test":"Use safe reconfigurable lattices with full force-displacement tracking.","contrary_outcome":"Every added positive spring increases measured stiffness.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0896","id":"S3-0896","volume":"900v3","title":"Crystal surface-energy accounting","prediction":"Heat residual scales with lost surface area after dissolution calibration.","test":"Use benign crystals with calorimetry and 3D surface metrology.","contrary":"All heat follows dissolved mass alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0896","title":"Crystal surface-energy accounting","question":"Can smoothing a rough dissolving crystal release measurable interfacial energy distinct from solution enthalpy?","prediction":"Heat residual scales with lost surface area after dissolution calibration.","test":"Use benign crystals with calorimetry and 3D surface metrology.","contrary_outcome":"All heat follows dissolved mass alone.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0897","id":"S3-0897","volume":"900v3","title":"Thermal granular surface inversion","prediction":"Heat redistribution outweighs local environmental loss.","test":"Use safe layered grain beds with full temperature and calorimetric records.","contrary":"Every layer cools monotonically during total energy loss.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0897","title":"Thermal granular surface inversion","question":"Can a cold top layer warm while the column's total energy decreases?","prediction":"Heat redistribution outweighs local environmental loss.","test":"Use safe layered grain beds with full temperature and calorimetric records.","contrary_outcome":"Every layer cools monotonically during total energy loss.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0898","id":"S3-0898","volume":"900v3","title":"Liquid pressure impulse reciprocity","prediction":"Matching endpoint impedances restores equal reciprocal transfer.","test":"Use safe water channels with independently calibrated reservoirs.","contrary":"Asymmetry persists with matched states and endpoints.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0898","title":"Liquid pressure impulse reciprocity","question":"Can unequal reservoir compliance create apparent directional pulse transmission in a reciprocal channel?","prediction":"Matching endpoint impedances restores equal reciprocal transfer.","test":"Use safe water channels with independently calibrated reservoirs.","contrary_outcome":"Asymmetry persists with matched states and endpoints.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0899","id":"S3-0899","volume":"900v3","title":"Thermal crystal-growth clock","prediction":"Pauses align with local temperature peaks rather than concentration minima.","test":"Grow benign salt crystals with synchronized local thermometry and concentration imaging.","contrary":"Growth pauses track concentration alone or lack reproducible thermal coupling.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0899","title":"Thermal crystal-growth clock","question":"Can latent-heat release make a growth front pause periodically under constant bulk supersaturation?","prediction":"Pauses align with local temperature peaks rather than concentration minima.","test":"Grow benign salt crystals with synchronized local thermometry and concentration imaging.","contrary_outcome":"Growth pauses track concentration alone or lack reproducible thermal coupling.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v3--S3-0900","id":"S3-0900","volume":"900v3","title":"Acoustic capillary-force witness","prediction":"Resonance phase steps coincide with optically confirmed capillary events.","test":"Use a safe water pore mounted on a calibrated elastic resonator with pump-noise controls.","contrary":"Phase steps occur independently of meniscus motion or only after measurable bulk flow.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v3/Hypotheses.json","original":{"id":"S3-0900","title":"Acoustic capillary-force witness","question":"Can a passive resonator detect a single meniscus jump before bulk liquid flow is measurable?","prediction":"Resonance phase steps coincide with optically confirmed capillary events.","test":"Use a safe water pore mounted on a calibrated elastic resonator with pump-noise controls.","contrary_outcome":"Phase steps occur independently of meniscus motion or only after measurable bulk flow.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion"},"lead":{"id":"S3-0900","title":"Acoustic capillary-force witness","question":"Can a passive resonator detect a single meniscus jump before bulk liquid flow is measurable?","prediction":"Resonance phase steps coincide with optically confirmed capillary events.","test":"Use a safe water pore mounted on a calibrated elastic resonator with pump-noise controls.","contrary_outcome":"Phase steps occur independently of meniscus motion or only after measurable bulk flow.","status":"Speculative; no experimental data or proof supplied","originality":"Worldwide originality unverified; related literature is not an exact-novelty certificate","composition":"Individually authored mechanism-specific record; no Cartesian expansion","selection_basis":"Subjective shortlist: observable physical contrast, reversible comparison possible, and a bench-scale primary measurement described. No truth probability assigned; worldwide novelty unverified.","feasibility":"Provisional bench-scale feasibility; apparatus availability, resolution and safety require local pilot review.","plausibility":"Conditional mechanism consistency only; empirical direction untested.","literature_query":"Can a passive resonator detect a single meniscus jump before bulk liquid flow is measurable experimental physical mechanism"},"dossier":null,"selection_source":"sources/90v3/Selections.json","dossier_source":"sources/9v3/Dossiers.json"},{"uid":"900v4--S4-0001","id":"S4-0001","volume":"900v4","title":"A rotating shutter with logarithmic openings should turn constant-speed rotation into an exponential illumination ramp.","prediction":"A rotating shutter with logarithmic openings should turn constant-speed rotation into an exponential illumination ramp.","test":"Measure transmitted power versus angle.","contrary":"Ramp deviates from the calculated profile.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0001","hypothesis":"A rotating shutter with logarithmic openings should turn constant-speed rotation into an exponential illumination ramp.","prediction":"A rotating shutter with logarithmic openings should turn constant-speed rotation into an exponential illumination ramp.","test":"Measure transmitted power versus angle.","contrary_outcome":"Ramp deviates from the calculated profile.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0001","hypothesis":"A rotating shutter with logarithmic openings should turn constant-speed rotation into an exponential illumination ramp.","prediction":"A rotating shutter with logarithmic openings should turn constant-speed rotation into an exponential illumination ramp.","test":"Measure transmitted power versus angle.","contrary_outcome":"Ramp deviates from the calculated profile.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":10,"query":"A rotating shutter with logarithmic openings turn constant-speed rotation into an exponential illumination ramp. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure transmitted power versus angle."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0002","id":"S4-0002","volume":"900v4","title":"A mechanically dithered slit should improve subpixel edge localization without increasing camera resolution.","prediction":"A mechanically dithered slit should improve subpixel edge localization without increasing camera resolution.","test":"Compare calibrated edge estimates with dithering disabled.","contrary":"Localization error does not improve.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0002","hypothesis":"A mechanically dithered slit should improve subpixel edge localization without increasing camera resolution.","prediction":"A mechanically dithered slit should improve subpixel edge localization without increasing camera resolution.","test":"Compare calibrated edge estimates with dithering disabled.","contrary_outcome":"Localization error does not improve.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0003","id":"S4-0003","volume":"900v4","title":"A shallow capillary chessboard should store a binary image as trapped liquid occupancy after supply removal.","prediction":"A shallow capillary chessboard should store a binary image as trapped liquid occupancy after supply removal.","test":"Write patterns and image retention.","contrary":"Neighboring cells spontaneously change state.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0003","hypothesis":"A shallow capillary chessboard should store a binary image as trapped liquid occupancy after supply removal.","prediction":"A shallow capillary chessboard should store a binary image as trapped liquid occupancy after supply removal.","test":"Write patterns and image retention.","contrary_outcome":"Neighboring cells spontaneously change state.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0004","id":"S4-0004","volume":"900v4","title":"A pair of unequal flywheels should smooth torque reversals by exchanging angular momentum through a differential.","prediction":"A pair of unequal flywheels should smooth torque reversals by exchanging angular momentum through a differential.","test":"Measure shaft torque pulses.","contrary":"Peak reversal torque remains unchanged.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0004","hypothesis":"A pair of unequal flywheels should smooth torque reversals by exchanging angular momentum through a differential.","prediction":"A pair of unequal flywheels should smooth torque reversals by exchanging angular momentum through a differential.","test":"Measure shaft torque pulses.","contrary_outcome":"Peak reversal torque remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0005","id":"S4-0005","volume":"900v4","title":"A pinwheel of hinged mirrors should encode incident-light direction into a unique reflected spot constellation.","prediction":"A pinwheel of hinged mirrors should encode incident-light direction into a unique reflected spot constellation.","test":"Calibrate source directions.","contrary":"Constellations remain ambiguous.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0005","hypothesis":"A pinwheel of hinged mirrors should encode incident-light direction into a unique reflected spot constellation.","prediction":"A pinwheel of hinged mirrors should encode incident-light direction into a unique reflected spot constellation.","test":"Calibrate source directions.","contrary_outcome":"Constellations remain ambiguous.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0006","id":"S4-0006","volume":"900v4","title":"A gravitational escapement should generate equal energy pulses despite changing drive weight over a bounded range.","prediction":"A gravitational escapement should generate equal energy pulses despite changing drive weight over a bounded range.","test":"Measure pulse work.","contrary":"Energy scales with drive weight.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0006","hypothesis":"A gravitational escapement should generate equal energy pulses despite changing drive weight over a bounded range.","prediction":"A gravitational escapement should generate equal energy pulses despite changing drive weight over a bounded range.","test":"Measure pulse work.","contrary_outcome":"Energy scales with drive weight.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0007","id":"S4-0007","volume":"900v4","title":"A buckling strip should perform a mechanical exclusive-or operation when opposing inputs cancel its snap trigger.","prediction":"A buckling strip should perform a mechanical exclusive-or operation when opposing inputs cancel its snap trigger.","test":"Apply all input pairs.","contrary":"The truth table fails.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0007","hypothesis":"A buckling strip should perform a mechanical exclusive-or operation when opposing inputs cancel its snap trigger.","prediction":"A buckling strip should perform a mechanical exclusive-or operation when opposing inputs cancel its snap trigger.","test":"Apply all input pairs.","contrary_outcome":"The truth table fails.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0007","hypothesis":"A buckling strip should perform a mechanical exclusive-or operation when opposing inputs cancel its snap trigger.","prediction":"A buckling strip should perform a mechanical exclusive-or operation when opposing inputs cancel its snap trigger.","test":"Apply all input pairs.","contrary_outcome":"The truth table fails.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":11,"query":"A buckling strip perform a mechanical exclusive-or operation when opposing inputs cancel its snap trigger. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Apply all input pairs."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0008","id":"S4-0008","volume":"900v4","title":"A passive optical cavity with a replaceable porous insert should distinguish gas adsorption from mirror drift through relaxation times.","prediction":"A passive optical cavity with a replaceable porous insert should distinguish gas adsorption from mirror drift through relaxation times.","test":"Apply controlled inert gas steps.","contrary":"Relaxations remain inseparable.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0008","hypothesis":"A passive optical cavity with a replaceable porous insert should distinguish gas adsorption from mirror drift through relaxation times.","prediction":"A passive optical cavity with a replaceable porous insert should distinguish gas adsorption from mirror drift through relaxation times.","test":"Apply controlled inert gas steps.","contrary_outcome":"Relaxations remain inseparable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0009","id":"S4-0009","volume":"900v4","title":"A sliding support under a vibrating beam should converge toward a nodal position without external sensing.","prediction":"A sliding support under a vibrating beam should converge toward a nodal position without external sensing.","test":"Track support position.","contrary":"It stalls away from nodes.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0009","hypothesis":"A sliding support under a vibrating beam should converge toward a nodal position without external sensing.","prediction":"A sliding support under a vibrating beam should converge toward a nodal position without external sensing.","test":"Track support position.","contrary_outcome":"It stalls away from nodes.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0010","id":"S4-0010","volume":"900v4","title":"A mechanically constrained growing crystal should rotate its growth front rather than accumulating one large bending defect.","prediction":"A mechanically constrained growing crystal should rotate its growth front rather than accumulating one large bending defect.","test":"Image benign salt crystallization.","contrary":"Defects accumulate without reorientation.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0010","hypothesis":"A mechanically constrained growing crystal should rotate its growth front rather than accumulating one large bending defect.","prediction":"A mechanically constrained growing crystal should rotate its growth front rather than accumulating one large bending defect.","test":"Image benign salt crystallization.","contrary_outcome":"Defects accumulate without reorientation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0011","id":"S4-0011","volume":"900v4","title":"A free liquid-metal-free conducting ring should brake translational motion less than rotation near a magnet array.","prediction":"A free liquid-metal-free conducting ring should brake translational motion less than rotation near a magnet array.","test":"Measure both drag coefficients.","contrary":"Selectivity is absent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0011","hypothesis":"A free liquid-metal-free conducting ring should brake translational motion less than rotation near a magnet array.","prediction":"A free liquid-metal-free conducting ring should brake translational motion less than rotation near a magnet array.","test":"Measure both drag coefficients.","contrary_outcome":"Selectivity is absent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0012","id":"S4-0012","volume":"900v4","title":"A shaped pulley should transform a sinusoidal input into a nearly triangular displacement waveform.","prediction":"A shaped pulley should transform a sinusoidal input into a nearly triangular displacement waveform.","test":"Measure output against the kinematic design.","contrary":"Waveform distortion remains large.","layers":[1,2,3],"categories":["physical","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0012","hypothesis":"A shaped pulley should transform a sinusoidal input into a nearly triangular displacement waveform.","prediction":"A shaped pulley should transform a sinusoidal input into a nearly triangular displacement waveform.","test":"Measure output against the kinematic design.","contrary_outcome":"Waveform distortion remains large.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0012","hypothesis":"A shaped pulley should transform a sinusoidal input into a nearly triangular displacement waveform.","prediction":"A shaped pulley should transform a sinusoidal input into a nearly triangular displacement waveform.","test":"Measure output against the kinematic design.","contrary_outcome":"Waveform distortion remains large.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":9,"query":"A shaped pulley transform a sinusoidal input into a nearly triangular displacement waveform. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure output against the kinematic design."},"dossier":{"id":"S4-0012","title":"Pulley shaping of a sinusoidal input","why_selected":"Kinematic waveform shaping permits a direct mathematical target, while finite acceleration and cable mechanics supply decisive practical limits.","sources":[{"title":"Investigation of a laboratory mechanical system with fibre and pulley","url":"https://doi.org/10.1007/s40435-014-0064-y","access":"Research-registry description of primary work read","finding":"The described study measures and models a driven fibre/pulley system under several waveforms. It supports attention to cable dynamics, not the proposed triangular-output pulley profile."}],"design":"Drive a shaped pulley with a measured sinusoidal input angle and read cable displacement with an encoder. Choose a smoothed triangular target to avoid an ideal corner's infinite acceleration. Compare with a circular pulley under equal amplitude and speed. Build independent profiles and measure cable tension, slip, and output over several frequencies.","endpoints":"Primary: waveform root-mean-square error relative to the declared smoothed triangle. Secondary: harmonic distortion, peak tension, phase lag, and wear drift. Proposed benefit is lower waveform error than a circular pulley without loss of cable contact.","controls":"Quasistatic angle-position scan; circular pulley; direct displacement-stage target; reversed travel; tension variation; cable stretch calibration. Include motor tracking error in measured input rather than attributing it to the pulley.","conditional_analysis":"For normalized sinusoidal input x=sin(theta), the function y=(2/pi)*arcsin(x) yields a triangular periodic waveform when evaluated over full theta. However dy/dx=2/(pi*sqrt(1-x^2)) diverges at x=+/-1, so a finite, smooth physical transmission cannot implement the ideal mapping exactly at turning points. A bounded-slope approximation is required. This is a conditional kinematic identity and a realizability limitation, not proof of a manufacturable pulley.","analysis_plan":"Publish the designed bounded-slope mapping before tests, compare measured quasistatic and dynamic errors, and quantify how smoothing trades corner sharpness for tension. Reject the device claim if slip or cable elasticity dominates or if no useful waveform improvement survives at finite speed.","limitations":"Unproved implementation; standard waveform transformations and pulley mechanics have extensive prior art. No new theorem or experimental success claimed.","rank":9,"hypothesis":"A shaped pulley should transform a sinusoidal input into a nearly triangular displacement waveform.","status":"speculative; no physical data or proof"},"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0013","id":"S4-0013","volume":"900v4","title":"A granular hourglass should reduce timing drift when humidity changes through a freely breathing side chamber.","prediction":"A granular hourglass should reduce timing drift when humidity changes through a freely breathing side chamber.","test":"Measure discharge times.","contrary":"Humidity sensitivity remains unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0013","hypothesis":"A granular hourglass should reduce timing drift when humidity changes through a freely breathing side chamber.","prediction":"A granular hourglass should reduce timing drift when humidity changes through a freely breathing side chamber.","test":"Measure discharge times.","contrary_outcome":"Humidity sensitivity remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0014","id":"S4-0014","volume":"900v4","title":"A spring-loaded diffraction plate should select one of several optical paths at discrete pressure thresholds.","prediction":"A spring-loaded diffraction plate should select one of several optical paths at discrete pressure thresholds.","test":"Measure beam route versus pressure.","contrary":"Paths overlap or skip unpredictably.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0014","hypothesis":"A spring-loaded diffraction plate should select one of several optical paths at discrete pressure thresholds.","prediction":"A spring-loaded diffraction plate should select one of several optical paths at discrete pressure thresholds.","test":"Measure beam route versus pressure.","contrary_outcome":"Paths overlap or skip unpredictably.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0015","id":"S4-0015","volume":"900v4","title":"A braided ribbon should convert local damage into a remotely visible twist discontinuity.","prediction":"A braided ribbon should convert local damage into a remotely visible twist discontinuity.","test":"Cut controlled strands and map twist.","contrary":"Damage remains mechanically invisible.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0015","hypothesis":"A braided ribbon should convert local damage into a remotely visible twist discontinuity.","prediction":"A braided ribbon should convert local damage into a remotely visible twist discontinuity.","test":"Cut controlled strands and map twist.","contrary_outcome":"Damage remains mechanically invisible.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0016","id":"S4-0016","volume":"900v4","title":"A passive evaporative mask should produce a stable cold pattern under uniform heating.","prediction":"A passive evaporative mask should produce a stable cold pattern under uniform heating.","test":"Map temperature over time.","contrary":"The pattern homogenizes rapidly.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0016","hypothesis":"A passive evaporative mask should produce a stable cold pattern under uniform heating.","prediction":"A passive evaporative mask should produce a stable cold pattern under uniform heating.","test":"Map temperature over time.","contrary_outcome":"The pattern homogenizes rapidly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0017","id":"S4-0017","volume":"900v4","title":"A rotating transparent wedge should separate refractive-index drift from sample tilt through twice-per-turn harmonics.","prediction":"A rotating transparent wedge should separate refractive-index drift from sample tilt through twice-per-turn harmonics.","test":"Vary both independently.","contrary":"Harmonics do not separate perturbations.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0017","hypothesis":"A rotating transparent wedge should separate refractive-index drift from sample tilt through twice-per-turn harmonics.","prediction":"A rotating transparent wedge should separate refractive-index drift from sample tilt through twice-per-turn harmonics.","test":"Vary both independently.","contrary_outcome":"Harmonics do not separate perturbations.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0018","id":"S4-0018","volume":"900v4","title":"A two-track mechanical integrator should estimate the product of applied force and displacement without electronic sensing.","prediction":"A two-track mechanical integrator should estimate the product of applied force and displacement without electronic sensing.","test":"Compare indicated work with calibrated loading.","contrary":"Output follows force or displacement alone.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0018","hypothesis":"A two-track mechanical integrator should estimate the product of applied force and displacement without electronic sensing.","prediction":"A two-track mechanical integrator should estimate the product of applied force and displacement without electronic sensing.","test":"Compare indicated work with calibrated loading.","contrary_outcome":"Output follows force or displacement alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0018","hypothesis":"A two-track mechanical integrator should estimate the product of applied force and displacement without electronic sensing.","prediction":"A two-track mechanical integrator should estimate the product of applied force and displacement without electronic sensing.","test":"Compare indicated work with calibrated loading.","contrary_outcome":"Output follows force or displacement alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":12,"query":"A two-track mechanical integrator estimate the product of applied force and displacement without electronic sensing. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Compare indicated work with calibrated loading."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0019","id":"S4-0019","volume":"900v4","title":"A hinged collector should orient itself to maximize rainfall analogue capture under oblique droplets.","prediction":"A hinged collector should orient itself to maximize rainfall analogue capture under oblique droplets.","test":"Apply controlled spray angles.","contrary":"Orientation reduces captured volume.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0019","hypothesis":"A hinged collector should orient itself to maximize rainfall analogue capture under oblique droplets.","prediction":"A hinged collector should orient itself to maximize rainfall analogue capture under oblique droplets.","test":"Apply controlled spray angles.","contrary_outcome":"Orientation reduces captured volume.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0020","id":"S4-0020","volume":"900v4","title":"A geometric stop should make a torsion oscillator's period less amplitude-dependent.","prediction":"A geometric stop should make a torsion oscillator's period less amplitude-dependent.","test":"Measure period across initial angles.","contrary":"Amplitude dependence remains equal.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0020","hypothesis":"A geometric stop should make a torsion oscillator's period less amplitude-dependent.","prediction":"A geometric stop should make a torsion oscillator's period less amplitude-dependent.","test":"Measure period across initial angles.","contrary_outcome":"Amplitude dependence remains equal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0021","id":"S4-0021","volume":"900v4","title":"A circular arrangement of communicating liquid cells should encode the spatial average of local pressure.","prediction":"A circular arrangement of communicating liquid cells should encode the spatial average of local pressure.","test":"Apply known cell pressures.","contrary":"One cell dominates the output.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0021","hypothesis":"A circular arrangement of communicating liquid cells should encode the spatial average of local pressure.","prediction":"A circular arrangement of communicating liquid cells should encode the spatial average of local pressure.","test":"Apply known cell pressures.","contrary_outcome":"One cell dominates the output.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0022","id":"S4-0022","volume":"900v4","title":"A mechanical minority gate should suppress isolated state errors in a three-cell bistable array.","prediction":"A mechanical minority gate should suppress isolated state errors in a three-cell bistable array.","test":"Flip one cell and release.","contrary":"The array amplifies the error.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0022","hypothesis":"A mechanical minority gate should suppress isolated state errors in a three-cell bistable array.","prediction":"A mechanical minority gate should suppress isolated state errors in a three-cell bistable array.","test":"Flip one cell and release.","contrary_outcome":"The array amplifies the error.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0023","id":"S4-0023","volume":"900v4","title":"A slowly rotating porous disk should measure evaporation rate from the angular boundary between wet and dry sectors.","prediction":"A slowly rotating porous disk should measure evaporation rate from the angular boundary between wet and dry sectors.","test":"Compare boundary angle with gravimetry.","contrary":"Boundary is not rate-specific.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0023","hypothesis":"A slowly rotating porous disk should measure evaporation rate from the angular boundary between wet and dry sectors.","prediction":"A slowly rotating porous disk should measure evaporation rate from the angular boundary between wet and dry sectors.","test":"Compare boundary angle with gravimetry.","contrary_outcome":"Boundary is not rate-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0024","id":"S4-0024","volume":"900v4","title":"A passive optical sorter should route equal-size particles by refractive index through calibrated radiation pressure.","prediction":"A passive optical sorter should route equal-size particles by refractive index through calibrated radiation pressure.","test":"Track inert calibration particles.","contrary":"Routing follows size or convection alone.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0024","hypothesis":"A passive optical sorter should route equal-size particles by refractive index through calibrated radiation pressure.","prediction":"A passive optical sorter should route equal-size particles by refractive index through calibrated radiation pressure.","test":"Track inert calibration particles.","contrary_outcome":"Routing follows size or convection alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0024","hypothesis":"A passive optical sorter should route equal-size particles by refractive index through calibrated radiation pressure.","prediction":"A passive optical sorter should route equal-size particles by refractive index through calibrated radiation pressure.","test":"Track inert calibration particles.","contrary_outcome":"Routing follows size or convection alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":13,"query":"A passive optical sorter route equal-size particles by refractive index through calibrated radiation pressure. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Track inert calibration particles."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0025","id":"S4-0025","volume":"900v4","title":"A slack cable network should find a low-energy routing around an obstacle after repeated gentle shaking.","prediction":"A slack cable network should find a low-energy routing around an obstacle after repeated gentle shaking.","test":"Compare final paths with geometric constraints.","contrary":"Paths remain history-dominated.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0025","hypothesis":"A slack cable network should find a low-energy routing around an obstacle after repeated gentle shaking.","prediction":"A slack cable network should find a low-energy routing around an obstacle after repeated gentle shaking.","test":"Compare final paths with geometric constraints.","contrary_outcome":"Paths remain history-dominated.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0026","id":"S4-0026","volume":"900v4","title":"A flexible crystal-growth mold should reduce inclusions by retreating from the solidification front.","prediction":"A flexible crystal-growth mold should reduce inclusions by retreating from the solidification front.","test":"Image transparent solidification analogues.","contrary":"Retreat traps more liquid pockets.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0026","hypothesis":"A flexible crystal-growth mold should reduce inclusions by retreating from the solidification front.","prediction":"A flexible crystal-growth mold should reduce inclusions by retreating from the solidification front.","test":"Image transparent solidification analogues.","contrary_outcome":"Retreat traps more liquid pockets.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0027","id":"S4-0027","volume":"900v4","title":"A mechanical delay should reverse the order of two closely spaced displacement pulses through separate path lengths.","prediction":"A mechanical delay should reverse the order of two closely spaced displacement pulses through separate path lengths.","test":"Measure output pulse ordering.","contrary":"Pulses merge or retain order.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0027","hypothesis":"A mechanical delay should reverse the order of two closely spaced displacement pulses through separate path lengths.","prediction":"A mechanical delay should reverse the order of two closely spaced displacement pulses through separate path lengths.","test":"Measure output pulse ordering.","contrary_outcome":"Pulses merge or retain order.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0028","id":"S4-0028","volume":"900v4","title":"A differential capillary scale should compare two liquid masses while rejecting uniform acceleration.","prediction":"A differential capillary scale should compare two liquid masses while rejecting uniform acceleration.","test":"Apply calibrated masses and base acceleration.","contrary":"Acceleration bias remains dominant.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0028","hypothesis":"A differential capillary scale should compare two liquid masses while rejecting uniform acceleration.","prediction":"A differential capillary scale should compare two liquid masses while rejecting uniform acceleration.","test":"Apply calibrated masses and base acceleration.","contrary_outcome":"Acceleration bias remains dominant.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0029","id":"S4-0029","volume":"900v4","title":"A rotating bristle cage should separate particles by rolling resistance at matched diameter.","prediction":"A rotating bristle cage should separate particles by rolling resistance at matched diameter.","test":"Measure exit-angle distributions.","contrary":"Distributions overlap.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0029","hypothesis":"A rotating bristle cage should separate particles by rolling resistance at matched diameter.","prediction":"A rotating bristle cage should separate particles by rolling resistance at matched diameter.","test":"Measure exit-angle distributions.","contrary_outcome":"Distributions overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0030","id":"S4-0030","volume":"900v4","title":"A soft reflective membrane should approximate a parabolic profile under a distributed magnetic-free pressure load.","prediction":"A soft reflective membrane should approximate a parabolic profile under a distributed magnetic-free pressure load.","test":"Measure surface shape.","contrary":"Profile errors exceed a flat-membrane control.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0030","hypothesis":"A soft reflective membrane should approximate a parabolic profile under a distributed magnetic-free pressure load.","prediction":"A soft reflective membrane should approximate a parabolic profile under a distributed magnetic-free pressure load.","test":"Measure surface shape.","contrary_outcome":"Profile errors exceed a flat-membrane control.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0031","id":"S4-0031","volume":"900v4","title":"A cam-driven shade should produce a prescribed daily thermal cycle under constant lamp power.","prediction":"A cam-driven shade should produce a prescribed daily thermal cycle under constant lamp power.","test":"Measure sample temperature history.","contrary":"Thermal inertia defeats the target waveform.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0031","hypothesis":"A cam-driven shade should produce a prescribed daily thermal cycle under constant lamp power.","prediction":"A cam-driven shade should produce a prescribed daily thermal cycle under constant lamp power.","test":"Measure sample temperature history.","contrary_outcome":"Thermal inertia defeats the target waveform.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0032","id":"S4-0032","volume":"900v4","title":"A folded cable guide should route tension around an obstacle with less cross-talk between adjacent tendons.","prediction":"A folded cable guide should route tension around an obstacle with less cross-talk between adjacent tendons.","test":"Measure induced neighbor motion.","contrary":"Cross-talk remains equal.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0032","hypothesis":"A folded cable guide should route tension around an obstacle with less cross-talk between adjacent tendons.","prediction":"A folded cable guide should route tension around an obstacle with less cross-talk between adjacent tendons.","test":"Measure induced neighbor motion.","contrary_outcome":"Cross-talk remains equal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0032","hypothesis":"A folded cable guide should route tension around an obstacle with less cross-talk between adjacent tendons.","prediction":"A folded cable guide should route tension around an obstacle with less cross-talk between adjacent tendons.","test":"Measure induced neighbor motion.","contrary_outcome":"Cross-talk remains equal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":14,"query":"A folded cable guide route tension around an obstacle with less cross-talk between adjacent tendons. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure induced neighbor motion."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0033","id":"S4-0033","volume":"900v4","title":"A passive mechanical comparator should select the larger of two displacements through a floating wedge.","prediction":"A passive mechanical comparator should select the larger of two displacements through a floating wedge.","test":"Apply input pairs.","contrary":"Output depends on input order.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0033","hypothesis":"A passive mechanical comparator should select the larger of two displacements through a floating wedge.","prediction":"A passive mechanical comparator should select the larger of two displacements through a floating wedge.","test":"Apply input pairs.","contrary_outcome":"Output depends on input order.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0034","id":"S4-0034","volume":"900v4","title":"A droplet-covered resonator should distinguish evaporation from lateral droplet motion through mode-shift ratios.","prediction":"A droplet-covered resonator should distinguish evaporation from lateral droplet motion through mode-shift ratios.","test":"Track known droplets.","contrary":"Both perturbations yield identical ratios.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0034","hypothesis":"A droplet-covered resonator should distinguish evaporation from lateral droplet motion through mode-shift ratios.","prediction":"A droplet-covered resonator should distinguish evaporation from lateral droplet motion through mode-shift ratios.","test":"Track known droplets.","contrary_outcome":"Both perturbations yield identical ratios.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0035","id":"S4-0035","volume":"900v4","title":"A loosely supported thin plate should damp torsion through support sliding while retaining low bending loss.","prediction":"A loosely supported thin plate should damp torsion through support sliding while retaining low bending loss.","test":"Measure modal quality factors.","contrary":"Both losses rise equally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0035","hypothesis":"A loosely supported thin plate should damp torsion through support sliding while retaining low bending loss.","prediction":"A loosely supported thin plate should damp torsion through support sliding while retaining low bending loss.","test":"Measure modal quality factors.","contrary_outcome":"Both losses rise equally.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0036","id":"S4-0036","volume":"900v4","title":"A shaped buoy should linearize displaced volume with immersion depth despite a constrained footprint.","prediction":"A shaped buoy should linearize displaced volume with immersion depth despite a constrained footprint.","test":"Measure buoyancy curve.","contrary":"Linearity does not improve.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0036","hypothesis":"A shaped buoy should linearize displaced volume with immersion depth despite a constrained footprint.","prediction":"A shaped buoy should linearize displaced volume with immersion depth despite a constrained footprint.","test":"Measure buoyancy curve.","contrary_outcome":"Linearity does not improve.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0037","id":"S4-0037","volume":"900v4","title":"A mechanically indexed prism should reconstruct a spectrum using one intensity sensor.","prediction":"A mechanically indexed prism should reconstruct a spectrum using one intensity sensor.","test":"Measure calibrated spectral sources.","contrary":"Reconstruction remains nonunique.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0037","hypothesis":"A mechanically indexed prism should reconstruct a spectrum using one intensity sensor.","prediction":"A mechanically indexed prism should reconstruct a spectrum using one intensity sensor.","test":"Measure calibrated spectral sources.","contrary_outcome":"Reconstruction remains nonunique.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0038","id":"S4-0038","volume":"900v4","title":"A rotating capillary array should concentrate nonvolatile solute at a selected radial band through timed evaporation.","prediction":"A rotating capillary array should concentrate nonvolatile solute at a selected radial band through timed evaporation.","test":"Map benign dye concentration.","contrary":"Solute deposits broadly.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0038","hypothesis":"A rotating capillary array should concentrate nonvolatile solute at a selected radial band through timed evaporation.","prediction":"A rotating capillary array should concentrate nonvolatile solute at a selected radial band through timed evaporation.","test":"Map benign dye concentration.","contrary_outcome":"Solute deposits broadly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0039","id":"S4-0039","volume":"900v4","title":"A spring-coupled pair of sliders should compute a weighted average position under quasistatic loading.","prediction":"A spring-coupled pair of sliders should compute a weighted average position under quasistatic loading.","test":"Compare equilibrium with input positions.","contrary":"Friction prevents the predicted average.","layers":[1,2,3],"categories":["physical"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0039","hypothesis":"A spring-coupled pair of sliders should compute a weighted average position under quasistatic loading.","prediction":"A spring-coupled pair of sliders should compute a weighted average position under quasistatic loading.","test":"Compare equilibrium with input positions.","contrary_outcome":"Friction prevents the predicted average.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0039","hypothesis":"A spring-coupled pair of sliders should compute a weighted average position under quasistatic loading.","prediction":"A spring-coupled pair of sliders should compute a weighted average position under quasistatic loading.","test":"Compare equilibrium with input positions.","contrary_outcome":"Friction prevents the predicted average.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":1,"query":"A spring-coupled pair of sliders compute a weighted average position under quasistatic loading. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Compare equilibrium with input positions."},"dossier":{"id":"S4-0039","title":"Spring-network weighted averaging","why_selected":"A low-cost static test has a closed conditional solution, so friction and manufacturing deviations can be quantified directly rather than hidden inside a complex simulation.","sources":[{"title":"The quasi-static approximation of the spring-slider motion","url":"https://npg.copernicus.org/articles/3/143/1996/npg-3-143-1996.html","access":"Primary abstract read","finding":"The paper studies limits of neglecting inertia in a frictional spring-slider. It is a caution about quasistatic assumptions, not evidence that this proposed averaging fixture performs accurately."}],"design":"Connect a low-friction output slider to two input sliders with independently calibrated linear springs. Measure spring constants over the intended stroke. Set input positions on a two-dimensional grid and read output after settling. Use at least five independent spring/slider assemblies, randomize approach direction, and reserve mixed input pairs for validation. The initial replicate count is a planning choice; a variance pilot must set final precision requirements.","endpoints":"Primary: error between measured output and the calibrated stiffness-weighted mean. Secondary: approach-direction hysteresis, settling time, and useful stroke. Proposed criterion: output error below 2% of full-scale stroke for held-out positions, specified before validation.","controls":"Single-spring calibration, swapped springs, output load perturbations, reversed approach direction, and a deliberately high-friction slider. Measure output loading explicitly; an attached pointer or sensor is not force-free.","conditional_analysis":"Assume positive linear spring constants k1,k2, collinear motion, no friction, and no external output force. U(x)=k1*(x-a)^2/2+k2*(x-b)^2/2. Its derivative vanishes only at x=(k1*a+k2*b)/(k1+k2), and U''=k1+k2>0 proves a unique energy minimum. An external load F shifts the result by F/(k1+k2), with sign set by convention. This is an exact conditional statics result, not an original theorem or proof of hardware accuracy.","analysis_plan":"Fit no free averaging weights after independent spring calibration. Report held-out residuals, hysteresis loops, and sensitivity to output load. Reject the useful device claim if error or hysteresis exceeds the predefined tolerance or if weights drift between assemblies.","limitations":"Unproved physical implementation; standard spring equilibrium already establishes the broad principle. No physical data or novelty certified.","rank":1,"hypothesis":"A spring-coupled pair of sliders should compute a weighted average position under quasistatic loading.","status":"speculative; no physical data or proof"},"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0040","id":"S4-0040","volume":"900v4","title":"A roughened thermal contact should show reversible conductance changes when lateral vibration alters true contact area.","prediction":"A roughened thermal contact should show reversible conductance changes when lateral vibration alters true contact area.","test":"Measure conductance and contact motion.","contrary":"Changes are irreversible or unrelated to vibration.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0040","hypothesis":"A roughened thermal contact should show reversible conductance changes when lateral vibration alters true contact area.","prediction":"A roughened thermal contact should show reversible conductance changes when lateral vibration alters true contact area.","test":"Measure conductance and contact motion.","contrary_outcome":"Changes are irreversible or unrelated to vibration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0041","id":"S4-0041","volume":"900v4","title":"A passive light funnel should reduce sensitivity to source angle through multiple internal reflections.","prediction":"A passive light funnel should reduce sensitivity to source angle through multiple internal reflections.","test":"Measure collected power versus angle.","contrary":"Angular sensitivity remains equal.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0041","hypothesis":"A passive light funnel should reduce sensitivity to source angle through multiple internal reflections.","prediction":"A passive light funnel should reduce sensitivity to source angle through multiple internal reflections.","test":"Measure collected power versus angle.","contrary_outcome":"Angular sensitivity remains equal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0042","id":"S4-0042","volume":"900v4","title":"A hinged granular bed should register peak lateral acceleration through a retained avalanche angle.","prediction":"A hinged granular bed should register peak lateral acceleration through a retained avalanche angle.","test":"Apply calibrated pulses.","contrary":"Angle depends mostly on pulse duration.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0042","hypothesis":"A hinged granular bed should register peak lateral acceleration through a retained avalanche angle.","prediction":"A hinged granular bed should register peak lateral acceleration through a retained avalanche angle.","test":"Apply calibrated pulses.","contrary_outcome":"Angle depends mostly on pulse duration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0043","id":"S4-0043","volume":"900v4","title":"A mechanically biased pendulum should estimate the skewness of a vibration waveform from its mean displacement.","prediction":"A mechanically biased pendulum should estimate the skewness of a vibration waveform from its mean displacement.","test":"Apply zero-mean waveforms.","contrary":"Mean displacement follows energy alone.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0043","hypothesis":"A mechanically biased pendulum should estimate the skewness of a vibration waveform from its mean displacement.","prediction":"A mechanically biased pendulum should estimate the skewness of a vibration waveform from its mean displacement.","test":"Apply zero-mean waveforms.","contrary_outcome":"Mean displacement follows energy alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0044","id":"S4-0044","volume":"900v4","title":"A fluidic bridge should compute a pressure difference using free-surface heights without net through-flow.","prediction":"A fluidic bridge should compute a pressure difference using free-surface heights without net through-flow.","test":"Apply controlled pressures.","contrary":"Capillary bias prevents differential calibration.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0044","hypothesis":"A fluidic bridge should compute a pressure difference using free-surface heights without net through-flow.","prediction":"A fluidic bridge should compute a pressure difference using free-surface heights without net through-flow.","test":"Apply controlled pressures.","contrary_outcome":"Capillary bias prevents differential calibration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0044","hypothesis":"A fluidic bridge should compute a pressure difference using free-surface heights without net through-flow.","prediction":"A fluidic bridge should compute a pressure difference using free-surface heights without net through-flow.","test":"Apply controlled pressures.","contrary_outcome":"Capillary bias prevents differential calibration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":15,"query":"A fluidic bridge compute a pressure difference using free-surface heights without net through-flow. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Apply controlled pressures."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0045","id":"S4-0045","volume":"900v4","title":"A perforated rolling pin should imprint a repeatable thickness map into a soft calibration film.","prediction":"A perforated rolling pin should imprint a repeatable thickness map into a soft calibration film.","test":"Measure final thickness.","contrary":"Slip destroys pattern repeatability.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0045","hypothesis":"A perforated rolling pin should imprint a repeatable thickness map into a soft calibration film.","prediction":"A perforated rolling pin should imprint a repeatable thickness map into a soft calibration film.","test":"Measure final thickness.","contrary_outcome":"Slip destroys pattern repeatability.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0046","id":"S4-0046","volume":"900v4","title":"A free optical mask should align to a beam's intensity centroid through low-power thermal recoil.","prediction":"A free optical mask should align to a beam's intensity centroid through low-power thermal recoil.","test":"Measure alignment in controlled conditions.","contrary":"Ambient airflow determines position.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0046","hypothesis":"A free optical mask should align to a beam's intensity centroid through low-power thermal recoil.","prediction":"A free optical mask should align to a beam's intensity centroid through low-power thermal recoil.","test":"Measure alignment in controlled conditions.","contrary_outcome":"Ambient airflow determines position.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0047","id":"S4-0047","volume":"900v4","title":"A compliant strain transformer should convert hydrostatic compression into measurable shear.","prediction":"A compliant strain transformer should convert hydrostatic compression into measurable shear.","test":"Apply isotropic pressure.","contrary":"Output is dominated by mounting asymmetry.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0047","hypothesis":"A compliant strain transformer should convert hydrostatic compression into measurable shear.","prediction":"A compliant strain transformer should convert hydrostatic compression into measurable shear.","test":"Apply isotropic pressure.","contrary_outcome":"Output is dominated by mounting asymmetry.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0048","id":"S4-0048","volume":"900v4","title":"A floating index wheel should count discrete liquid aliquots through buoyancy-triggered advancement.","prediction":"A floating index wheel should count discrete liquid aliquots through buoyancy-triggered advancement.","test":"Deliver calibrated drops.","contrary":"Counts vary with aliquot spacing.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0048","hypothesis":"A floating index wheel should count discrete liquid aliquots through buoyancy-triggered advancement.","prediction":"A floating index wheel should count discrete liquid aliquots through buoyancy-triggered advancement.","test":"Deliver calibrated drops.","contrary_outcome":"Counts vary with aliquot spacing.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0049","id":"S4-0049","volume":"900v4","title":"A passive geometric filter should pass long slender particles only when they approach aligned with flow.","prediction":"A passive geometric filter should pass long slender particles only when they approach aligned with flow.","test":"Track inert rods.","contrary":"Tumbling defeats orientation selection.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0049","hypothesis":"A passive geometric filter should pass long slender particles only when they approach aligned with flow.","prediction":"A passive geometric filter should pass long slender particles only when they approach aligned with flow.","test":"Track inert rods.","contrary_outcome":"Tumbling defeats orientation selection.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0050","id":"S4-0050","volume":"900v4","title":"A thermal memory element should distinguish heating order through two coupled expansion latches.","prediction":"A thermal memory element should distinguish heating order through two coupled expansion latches.","test":"Reverse the order of equal heat pulses.","contrary":"Final states remain identical.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0050","hypothesis":"A thermal memory element should distinguish heating order through two coupled expansion latches.","prediction":"A thermal memory element should distinguish heating order through two coupled expansion latches.","test":"Reverse the order of equal heat pulses.","contrary_outcome":"Final states remain identical.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0051","id":"S4-0051","volume":"900v4","title":"A suspended optical grid should report uniform pressure from an isotropic change in projected spacing.","prediction":"A suspended optical grid should report uniform pressure from an isotropic change in projected spacing.","test":"Apply calibrated pressure.","contrary":"Spacing changes anisotropically from supports.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0051","hypothesis":"A suspended optical grid should report uniform pressure from an isotropic change in projected spacing.","prediction":"A suspended optical grid should report uniform pressure from an isotropic change in projected spacing.","test":"Apply calibrated pressure.","contrary_outcome":"Spacing changes anisotropically from supports.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0052","id":"S4-0052","volume":"900v4","title":"A mechanical amplifier should preserve force-displacement work while exchanging sensitivity for travel.","prediction":"A mechanical amplifier should preserve force-displacement work while exchanging sensitivity for travel.","test":"Measure both input and output work.","contrary":"Apparent gain requires unaccounted energy.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0052","hypothesis":"A mechanical amplifier should preserve force-displacement work while exchanging sensitivity for travel.","prediction":"A mechanical amplifier should preserve force-displacement work while exchanging sensitivity for travel.","test":"Measure both input and output work.","contrary_outcome":"Apparent gain requires unaccounted energy.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0053","id":"S4-0053","volume":"900v4","title":"A recirculating droplet path should narrow arrival-time dispersion through speed-dependent path selection.","prediction":"A recirculating droplet path should narrow arrival-time dispersion through speed-dependent path selection.","test":"Measure transit distributions.","contrary":"Dispersion increases.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0053","hypothesis":"A recirculating droplet path should narrow arrival-time dispersion through speed-dependent path selection.","prediction":"A recirculating droplet path should narrow arrival-time dispersion through speed-dependent path selection.","test":"Measure transit distributions.","contrary_outcome":"Dispersion increases.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0054","id":"S4-0054","volume":"900v4","title":"A passive friction balancer should equalize tension across two ropes by rocking between their contact patches.","prediction":"A passive friction balancer should equalize tension across two ropes by rocking between their contact patches.","test":"Measure paired tensions.","contrary":"Rocking amplifies imbalance.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0054","hypothesis":"A passive friction balancer should equalize tension across two ropes by rocking between their contact patches.","prediction":"A passive friction balancer should equalize tension across two ropes by rocking between their contact patches.","test":"Measure paired tensions.","contrary_outcome":"Rocking amplifies imbalance.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0055","id":"S4-0055","volume":"900v4","title":"A rotating acoustic mirror should encode sound arrival direction as a modulation phase.","prediction":"A rotating acoustic mirror should encode sound arrival direction as a modulation phase.","test":"Apply known source directions.","contrary":"Phase is ambiguous under reflections.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0055","hypothesis":"A rotating acoustic mirror should encode sound arrival direction as a modulation phase.","prediction":"A rotating acoustic mirror should encode sound arrival direction as a modulation phase.","test":"Apply known source directions.","contrary_outcome":"Phase is ambiguous under reflections.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0055","hypothesis":"A rotating acoustic mirror should encode sound arrival direction as a modulation phase.","prediction":"A rotating acoustic mirror should encode sound arrival direction as a modulation phase.","test":"Apply known source directions.","contrary_outcome":"Phase is ambiguous under reflections.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":16,"query":"A rotating acoustic mirror encode sound arrival direction as a modulation phase. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Apply known source directions."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0056","id":"S4-0056","volume":"900v4","title":"A compliant thread guide should suppress sudden knot tightening through local length storage.","prediction":"A compliant thread guide should suppress sudden knot tightening through local length storage.","test":"Measure force during standardized entanglement.","contrary":"Stored length does not lower peak force.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0056","hypothesis":"A compliant thread guide should suppress sudden knot tightening through local length storage.","prediction":"A compliant thread guide should suppress sudden knot tightening through local length storage.","test":"Measure force during standardized entanglement.","contrary_outcome":"Stored length does not lower peak force.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0057","id":"S4-0057","volume":"900v4","title":"A low-pressure pneumatic abacus should retain multiple count states through independent trapped volumes.","prediction":"A low-pressure pneumatic abacus should retain multiple count states through independent trapped volumes.","test":"Write and read states.","contrary":"Leakage couples neighboring states.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0057","hypothesis":"A low-pressure pneumatic abacus should retain multiple count states through independent trapped volumes.","prediction":"A low-pressure pneumatic abacus should retain multiple count states through independent trapped volumes.","test":"Write and read states.","contrary_outcome":"Leakage couples neighboring states.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0058","id":"S4-0058","volume":"900v4","title":"A hinged reflective surface should make thermal loading self-limiting by rotating toward edge-on incidence.","prediction":"A hinged reflective surface should make thermal loading self-limiting by rotating toward edge-on incidence.","test":"Measure absorbed power.","contrary":"Rotation increases absorbed power.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0058","hypothesis":"A hinged reflective surface should make thermal loading self-limiting by rotating toward edge-on incidence.","prediction":"A hinged reflective surface should make thermal loading self-limiting by rotating toward edge-on incidence.","test":"Measure absorbed power.","contrary_outcome":"Rotation increases absorbed power.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0059","id":"S4-0059","volume":"900v4","title":"A passive porous sampler should collect equal time-weighted aliquots despite moderate flow-rate changes.","prediction":"A passive porous sampler should collect equal time-weighted aliquots despite moderate flow-rate changes.","test":"Measure tracer averages.","contrary":"Samples remain flow-weighted.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0059","hypothesis":"A passive porous sampler should collect equal time-weighted aliquots despite moderate flow-rate changes.","prediction":"A passive porous sampler should collect equal time-weighted aliquots despite moderate flow-rate changes.","test":"Measure tracer averages.","contrary_outcome":"Samples remain flow-weighted.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0060","id":"S4-0060","volume":"900v4","title":"A mechanically stretched aperture should generate a known polarization-independent attenuation sequence.","prediction":"A mechanically stretched aperture should generate a known polarization-independent attenuation sequence.","test":"Measure transmission for orthogonal polarizations.","contrary":"Attenuation depends strongly on polarization.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0060","hypothesis":"A mechanically stretched aperture should generate a known polarization-independent attenuation sequence.","prediction":"A mechanically stretched aperture should generate a known polarization-independent attenuation sequence.","test":"Measure transmission for orthogonal polarizations.","contrary_outcome":"Attenuation depends strongly on polarization.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0061","id":"S4-0061","volume":"900v4","title":"A shallow granular bowl should estimate vibration frequency from the radius of a stable particle orbit.","prediction":"A shallow granular bowl should estimate vibration frequency from the radius of a stable particle orbit.","test":"Apply calibrated excitation.","contrary":"Orbit radius is not frequency-specific.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0061","hypothesis":"A shallow granular bowl should estimate vibration frequency from the radius of a stable particle orbit.","prediction":"A shallow granular bowl should estimate vibration frequency from the radius of a stable particle orbit.","test":"Apply calibrated excitation.","contrary_outcome":"Orbit radius is not frequency-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0062","id":"S4-0062","volume":"900v4","title":"A two-stage compliant lever should reject a common support displacement while amplifying differential motion.","prediction":"A two-stage compliant lever should reject a common support displacement while amplifying differential motion.","test":"Move supports independently.","contrary":"Common-mode leakage dominates.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0062","hypothesis":"A two-stage compliant lever should reject a common support displacement while amplifying differential motion.","prediction":"A two-stage compliant lever should reject a common support displacement while amplifying differential motion.","test":"Move supports independently.","contrary_outcome":"Common-mode leakage dominates.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0063","id":"S4-0063","volume":"900v4","title":"A liquid-filled balance should integrate acceleration over short intervals through inertial redistribution.","prediction":"A liquid-filled balance should integrate acceleration over short intervals through inertial redistribution.","test":"Compare output with known velocity changes.","contrary":"Output follows peak acceleration alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0063","hypothesis":"A liquid-filled balance should integrate acceleration over short intervals through inertial redistribution.","prediction":"A liquid-filled balance should integrate acceleration over short intervals through inertial redistribution.","test":"Compare output with known velocity changes.","contrary_outcome":"Output follows peak acceleration alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0064","id":"S4-0064","volume":"900v4","title":"A passive pulse stretcher should lengthen a pressure impulse without changing its integral appreciably.","prediction":"A passive pulse stretcher should lengthen a pressure impulse without changing its integral appreciably.","test":"Measure inlet/outlet traces.","contrary":"Pulse area is substantially lost.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0064","hypothesis":"A passive pulse stretcher should lengthen a pressure impulse without changing its integral appreciably.","prediction":"A passive pulse stretcher should lengthen a pressure impulse without changing its integral appreciably.","test":"Measure inlet/outlet traces.","contrary_outcome":"Pulse area is substantially lost.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0065","id":"S4-0065","volume":"900v4","title":"A folded optical path should distinguish support translation from sample expansion using a shared reference reflection.","prediction":"A folded optical path should distinguish support translation from sample expansion using a shared reference reflection.","test":"Apply independent motions.","contrary":"Signals remain confounded.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0065","hypothesis":"A folded optical path should distinguish support translation from sample expansion using a shared reference reflection.","prediction":"A folded optical path should distinguish support translation from sample expansion using a shared reference reflection.","test":"Apply independent motions.","contrary_outcome":"Signals remain confounded.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0066","id":"S4-0066","volume":"900v4","title":"A mechanically selected flow path should make a passive thermometer readable through discrete liquid positions.","prediction":"A mechanically selected flow path should make a passive thermometer readable through discrete liquid positions.","test":"Compare positions with reference temperature.","contrary":"Hysteresis prevents unique readings.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0066","hypothesis":"A mechanically selected flow path should make a passive thermometer readable through discrete liquid positions.","prediction":"A mechanically selected flow path should make a passive thermometer readable through discrete liquid positions.","test":"Compare positions with reference temperature.","contrary_outcome":"Hysteresis prevents unique readings.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0067","id":"S4-0067","volume":"900v4","title":"A twisted plate should rotate its principal compliance direction continuously under axial tension.","prediction":"A twisted plate should rotate its principal compliance direction continuously under axial tension.","test":"Measure stiffness tensor.","contrary":"Direction remains fixed.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0067","hypothesis":"A twisted plate should rotate its principal compliance direction continuously under axial tension.","prediction":"A twisted plate should rotate its principal compliance direction continuously under axial tension.","test":"Measure stiffness tensor.","contrary_outcome":"Direction remains fixed.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0067","hypothesis":"A twisted plate should rotate its principal compliance direction continuously under axial tension.","prediction":"A twisted plate should rotate its principal compliance direction continuously under axial tension.","test":"Measure stiffness tensor.","contrary_outcome":"Direction remains fixed.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":17,"query":"A twisted plate rotate its principal compliance direction continuously under axial tension. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure stiffness tensor."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0068","id":"S4-0068","volume":"900v4","title":"A porous particle lens should focus inert tracer trajectories through controlled transverse pressure gradients.","prediction":"A porous particle lens should focus inert tracer trajectories through controlled transverse pressure gradients.","test":"Map particle positions.","contrary":"Diffusion or wall capture erases focusing.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0068","hypothesis":"A porous particle lens should focus inert tracer trajectories through controlled transverse pressure gradients.","prediction":"A porous particle lens should focus inert tracer trajectories through controlled transverse pressure gradients.","test":"Map particle positions.","contrary_outcome":"Diffusion or wall capture erases focusing.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0069","id":"S4-0069","volume":"900v4","title":"A mechanical voting network should tolerate one jammed input while retaining majority selection.","prediction":"A mechanical voting network should tolerate one jammed input while retaining majority selection.","test":"Jam each input in turn.","contrary":"The output locks incorrectly.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0069","hypothesis":"A mechanical voting network should tolerate one jammed input while retaining majority selection.","prediction":"A mechanical voting network should tolerate one jammed input while retaining majority selection.","test":"Jam each input in turn.","contrary_outcome":"The output locks incorrectly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0070","id":"S4-0070","volume":"900v4","title":"A capillary attenuator should reduce pressure noise while preserving the mean without an external reservoir.","prediction":"A capillary attenuator should reduce pressure noise while preserving the mean without an external reservoir.","test":"Measure pressure spectrum.","contrary":"Mean pressure shifts significantly.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0070","hypothesis":"A capillary attenuator should reduce pressure noise while preserving the mean without an external reservoir.","prediction":"A capillary attenuator should reduce pressure noise while preserving the mean without an external reservoir.","test":"Measure pressure spectrum.","contrary_outcome":"Mean pressure shifts significantly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0071","id":"S4-0071","volume":"900v4","title":"A rotating optical grating should separate wavelength change from beam-pointing drift through angular sidebands.","prediction":"A rotating optical grating should separate wavelength change from beam-pointing drift through angular sidebands.","test":"Vary both independently.","contrary":"Sidebands remain degenerate.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0071","hypothesis":"A rotating optical grating should separate wavelength change from beam-pointing drift through angular sidebands.","prediction":"A rotating optical grating should separate wavelength change from beam-pointing drift through angular sidebands.","test":"Vary both independently.","contrary_outcome":"Sidebands remain degenerate.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0072","id":"S4-0072","volume":"900v4","title":"A compliant storage spool should release nearly constant cable tension as its winding radius changes.","prediction":"A compliant storage spool should release nearly constant cable tension as its winding radius changes.","test":"Measure payout force.","contrary":"Tension follows winding radius.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0072","hypothesis":"A compliant storage spool should release nearly constant cable tension as its winding radius changes.","prediction":"A compliant storage spool should release nearly constant cable tension as its winding radius changes.","test":"Measure payout force.","contrary_outcome":"Tension follows winding radius.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0073","id":"S4-0073","volume":"900v4","title":"A passive evaporative timer should reset completely after rewetting a calibrated porous region.","prediction":"A passive evaporative timer should reset completely after rewetting a calibrated porous region.","test":"Measure repeated timing cycles.","contrary":"Drying history changes timing permanently.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0073","hypothesis":"A passive evaporative timer should reset completely after rewetting a calibrated porous region.","prediction":"A passive evaporative timer should reset completely after rewetting a calibrated porous region.","test":"Measure repeated timing cycles.","contrary_outcome":"Drying history changes timing permanently.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0074","id":"S4-0074","volume":"900v4","title":"A mechanically asymmetric resonator should estimate impulse polarity from the phase of its first rebound.","prediction":"A mechanically asymmetric resonator should estimate impulse polarity from the phase of its first rebound.","test":"Apply signed impulses.","contrary":"Phase is not polarity-specific.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0074","hypothesis":"A mechanically asymmetric resonator should estimate impulse polarity from the phase of its first rebound.","prediction":"A mechanically asymmetric resonator should estimate impulse polarity from the phase of its first rebound.","test":"Apply signed impulses.","contrary_outcome":"Phase is not polarity-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0075","id":"S4-0075","volume":"900v4","title":"A liquid-driven escapement should meter equal volumes despite moderate viscosity changes.","prediction":"A liquid-driven escapement should meter equal volumes despite moderate viscosity changes.","test":"Measure aliquot volumes.","contrary":"Viscosity alters volume substantially.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0075","hypothesis":"A liquid-driven escapement should meter equal volumes despite moderate viscosity changes.","prediction":"A liquid-driven escapement should meter equal volumes despite moderate viscosity changes.","test":"Measure aliquot volumes.","contrary_outcome":"Viscosity alters volume substantially.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0076","id":"S4-0076","volume":"900v4","title":"A folded pressure membrane should provide an absolute position code through sequential visible edge crossings.","prediction":"A folded pressure membrane should provide an absolute position code through sequential visible edge crossings.","test":"Calibrate pressure and code.","contrary":"Code skips or reverses.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0076","hypothesis":"A folded pressure membrane should provide an absolute position code through sequential visible edge crossings.","prediction":"A folded pressure membrane should provide an absolute position code through sequential visible edge crossings.","test":"Calibrate pressure and code.","contrary_outcome":"Code skips or reverses.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0077","id":"S4-0077","volume":"900v4","title":"A passive optical sensor should detect torsion through shadow rotation while rejecting axial extension.","prediction":"A passive optical sensor should detect torsion through shadow rotation while rejecting axial extension.","test":"Apply both deformations.","contrary":"Extension creates comparable rotation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0077","hypothesis":"A passive optical sensor should detect torsion through shadow rotation while rejecting axial extension.","prediction":"A passive optical sensor should detect torsion through shadow rotation while rejecting axial extension.","test":"Apply both deformations.","contrary_outcome":"Extension creates comparable rotation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0078","id":"S4-0078","volume":"900v4","title":"A moving thermal contact should approximate a prescribed nonlinear conductance curve through shaped overlap.","prediction":"A moving thermal contact should approximate a prescribed nonlinear conductance curve through shaped overlap.","test":"Measure conductance versus travel.","contrary":"Contact resistance dominates geometry.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0078","hypothesis":"A moving thermal contact should approximate a prescribed nonlinear conductance curve through shaped overlap.","prediction":"A moving thermal contact should approximate a prescribed nonlinear conductance curve through shaped overlap.","test":"Measure conductance versus travel.","contrary_outcome":"Contact resistance dominates geometry.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0079","id":"S4-0079","volume":"900v4","title":"A granular analog accumulator should add successive equal masses into repeatable discrete height states.","prediction":"A granular analog accumulator should add successive equal masses into repeatable discrete height states.","test":"Dose calibrated masses.","contrary":"States depend strongly on pouring history.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0079","hypothesis":"A granular analog accumulator should add successive equal masses into repeatable discrete height states.","prediction":"A granular analog accumulator should add successive equal masses into repeatable discrete height states.","test":"Dose calibrated masses.","contrary_outcome":"States depend strongly on pouring history.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0080","id":"S4-0080","volume":"900v4","title":"A compliant force divider should maintain a fixed output-force ratio despite unequal output displacement.","prediction":"A compliant force divider should maintain a fixed output-force ratio despite unequal output displacement.","test":"Measure paired outputs.","contrary":"Ratio varies with travel.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0080","hypothesis":"A compliant force divider should maintain a fixed output-force ratio despite unequal output displacement.","prediction":"A compliant force divider should maintain a fixed output-force ratio despite unequal output displacement.","test":"Measure paired outputs.","contrary_outcome":"Ratio varies with travel.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0081","id":"S4-0081","volume":"900v4","title":"A capillary pressure reference should survive transport vibration through a geometrically pinned gas volume.","prediction":"A capillary pressure reference should survive transport vibration through a geometrically pinned gas volume.","test":"Measure calibration before and after shaking.","contrary":"Gas rearrangement shifts zero.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0081","hypothesis":"A capillary pressure reference should survive transport vibration through a geometrically pinned gas volume.","prediction":"A capillary pressure reference should survive transport vibration through a geometrically pinned gas volume.","test":"Measure calibration before and after shaking.","contrary_outcome":"Gas rearrangement shifts zero.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0082","id":"S4-0082","volume":"900v4","title":"A rotating liquid wedge should produce an optical path change proportional to cumulative angular displacement.","prediction":"A rotating liquid wedge should produce an optical path change proportional to cumulative angular displacement.","test":"Measure phase versus rotations.","contrary":"Path resets or drifts unpredictably.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0082","hypothesis":"A rotating liquid wedge should produce an optical path change proportional to cumulative angular displacement.","prediction":"A rotating liquid wedge should produce an optical path change proportional to cumulative angular displacement.","test":"Measure phase versus rotations.","contrary_outcome":"Path resets or drifts unpredictably.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0083","id":"S4-0083","volume":"900v4","title":"A mechanical binary search linkage should identify an object's size interval using successive passive contacts.","prediction":"A mechanical binary search linkage should identify an object's size interval using successive passive contacts.","test":"Test calibration blocks.","contrary":"Contact order is ambiguous.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0083","hypothesis":"A mechanical binary search linkage should identify an object's size interval using successive passive contacts.","prediction":"A mechanical binary search linkage should identify an object's size interval using successive passive contacts.","test":"Test calibration blocks.","contrary_outcome":"Contact order is ambiguous.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0084","id":"S4-0084","volume":"900v4","title":"A suspended thin shell should convert an acoustic pulse into a visible traveling crease.","prediction":"A suspended thin shell should convert an acoustic pulse into a visible traveling crease.","test":"Image safe sound excitation.","contrary":"Only diffuse vibration appears.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0084","hypothesis":"A suspended thin shell should convert an acoustic pulse into a visible traveling crease.","prediction":"A suspended thin shell should convert an acoustic pulse into a visible traveling crease.","test":"Image safe sound excitation.","contrary_outcome":"Only diffuse vibration appears.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0085","id":"S4-0085","volume":"900v4","title":"A passive membrane sampler should distinguish dissolved inert tracer from suspended particles through separate time constants.","prediction":"A passive membrane sampler should distinguish dissolved inert tracer from suspended particles through separate time constants.","test":"Measure uptake histories.","contrary":"Both signals share indistinguishable kinetics.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0085","hypothesis":"A passive membrane sampler should distinguish dissolved inert tracer from suspended particles through separate time constants.","prediction":"A passive membrane sampler should distinguish dissolved inert tracer from suspended particles through separate time constants.","test":"Measure uptake histories.","contrary_outcome":"Both signals share indistinguishable kinetics.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0086","id":"S4-0086","volume":"900v4","title":"A crossed pulley system should compute a displacement difference with reduced sensitivity to cable stretch.","prediction":"A crossed pulley system should compute a displacement difference with reduced sensitivity to cable stretch.","test":"Apply known inputs and tensions.","contrary":"Stretch error remains large.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0086","hypothesis":"A crossed pulley system should compute a displacement difference with reduced sensitivity to cable stretch.","prediction":"A crossed pulley system should compute a displacement difference with reduced sensitivity to cable stretch.","test":"Apply known inputs and tensions.","contrary_outcome":"Stretch error remains large.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0086","hypothesis":"A crossed pulley system should compute a displacement difference with reduced sensitivity to cable stretch.","prediction":"A crossed pulley system should compute a displacement difference with reduced sensitivity to cable stretch.","test":"Apply known inputs and tensions.","contrary_outcome":"Stretch error remains large.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":18,"query":"A crossed pulley system compute a displacement difference with reduced sensitivity to cable stretch. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Apply known inputs and tensions."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0087","id":"S4-0087","volume":"900v4","title":"A thermal shutter should discriminate steady radiation from equal-energy flashes through delayed mechanical feedback.","prediction":"A thermal shutter should discriminate steady radiation from equal-energy flashes through delayed mechanical feedback.","test":"Apply matched-energy illumination.","contrary":"Both trigger identically.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0087","hypothesis":"A thermal shutter should discriminate steady radiation from equal-energy flashes through delayed mechanical feedback.","prediction":"A thermal shutter should discriminate steady radiation from equal-energy flashes through delayed mechanical feedback.","test":"Apply matched-energy illumination.","contrary_outcome":"Both trigger identically.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0088","id":"S4-0088","volume":"900v4","title":"A flexible diffraction surface should expose a hidden support defect through localized fringe dislocation.","prediction":"A flexible diffraction surface should expose a hidden support defect through localized fringe dislocation.","test":"Introduce known support gaps.","contrary":"Fringes respond globally without localization.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0088","hypothesis":"A flexible diffraction surface should expose a hidden support defect through localized fringe dislocation.","prediction":"A flexible diffraction surface should expose a hidden support defect through localized fringe dislocation.","test":"Introduce known support gaps.","contrary_outcome":"Fringes respond globally without localization.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0089","id":"S4-0089","volume":"900v4","title":"A buoyant mechanical comparator should select the denser of two small liquid samples without measuring volume optically.","prediction":"A buoyant mechanical comparator should select the denser of two small liquid samples without measuring volume optically.","test":"Use known densities.","contrary":"Volume mismatch dominates selection.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0089","hypothesis":"A buoyant mechanical comparator should select the denser of two small liquid samples without measuring volume optically.","prediction":"A buoyant mechanical comparator should select the denser of two small liquid samples without measuring volume optically.","test":"Use known densities.","contrary_outcome":"Volume mismatch dominates selection.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0090","id":"S4-0090","volume":"900v4","title":"A pneumatic oscillator should encode reservoir volume in its duty cycle while rejecting inlet pressure drift.","prediction":"A pneumatic oscillator should encode reservoir volume in its duty cycle while rejecting inlet pressure drift.","test":"Measure timing across conditions.","contrary":"Duty cycle remains pressure-sensitive.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0090","hypothesis":"A pneumatic oscillator should encode reservoir volume in its duty cycle while rejecting inlet pressure drift.","prediction":"A pneumatic oscillator should encode reservoir volume in its duty cycle while rejecting inlet pressure drift.","test":"Measure timing across conditions.","contrary_outcome":"Duty cycle remains pressure-sensitive.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0091","id":"S4-0091","volume":"900v4","title":"A rolling magnetic-free encoder should count path length through alternating geometric contacts.","prediction":"A rolling magnetic-free encoder should count path length through alternating geometric contacts.","test":"Compare against known trajectories.","contrary":"Slip creates cumulative error.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0091","hypothesis":"A rolling magnetic-free encoder should count path length through alternating geometric contacts.","prediction":"A rolling magnetic-free encoder should count path length through alternating geometric contacts.","test":"Compare against known trajectories.","contrary_outcome":"Slip creates cumulative error.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0092","id":"S4-0092","volume":"900v4","title":"A passive liquid switch should reject symmetric pressure oscillations but respond to a small mean offset.","prediction":"A passive liquid switch should reject symmetric pressure oscillations but respond to a small mean offset.","test":"Measure threshold under noisy pressure.","contrary":"Oscillations cause false switching.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0092","hypothesis":"A passive liquid switch should reject symmetric pressure oscillations but respond to a small mean offset.","prediction":"A passive liquid switch should reject symmetric pressure oscillations but respond to a small mean offset.","test":"Measure threshold under noisy pressure.","contrary_outcome":"Oscillations cause false switching.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0093","id":"S4-0093","volume":"900v4","title":"A compliant analog multiplier should make output displacement proportional to the product of two bounded input displacements.","prediction":"A compliant analog multiplier should make output displacement proportional to the product of two bounded input displacements.","test":"Calibrate a two-dimensional input grid.","contrary":"Cross-terms dominate the intended product.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0093","hypothesis":"A compliant analog multiplier should make output displacement proportional to the product of two bounded input displacements.","prediction":"A compliant analog multiplier should make output displacement proportional to the product of two bounded input displacements.","test":"Calibrate a two-dimensional input grid.","contrary_outcome":"Cross-terms dominate the intended product.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0094","id":"S4-0094","volume":"900v4","title":"A deformable reflective cavity should estimate local pressure anisotropy through two independent image distortions.","prediction":"A deformable reflective cavity should estimate local pressure anisotropy through two independent image distortions.","test":"Apply calibrated biaxial pressure.","contrary":"Distortions cannot separate components.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0094","hypothesis":"A deformable reflective cavity should estimate local pressure anisotropy through two independent image distortions.","prediction":"A deformable reflective cavity should estimate local pressure anisotropy through two independent image distortions.","test":"Apply calibrated biaxial pressure.","contrary_outcome":"Distortions cannot separate components.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0095","id":"S4-0095","volume":"900v4","title":"A porous evaporation reference should reduce humidity-induced drift in a capillary dosing device.","prediction":"A porous evaporation reference should reduce humidity-induced drift in a capillary dosing device.","test":"Measure doses across humidity.","contrary":"Compensation fails.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0095","hypothesis":"A porous evaporation reference should reduce humidity-induced drift in a capillary dosing device.","prediction":"A porous evaporation reference should reduce humidity-induced drift in a capillary dosing device.","test":"Measure doses across humidity.","contrary_outcome":"Compensation fails.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0096","id":"S4-0096","volume":"900v4","title":"A mechanical parity checker should flag one missed step in a cyclic indexing train.","prediction":"A mechanical parity checker should flag one missed step in a cyclic indexing train.","test":"Introduce controlled skipped steps.","contrary":"Checker returns a false normal state.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0096","hypothesis":"A mechanical parity checker should flag one missed step in a cyclic indexing train.","prediction":"A mechanical parity checker should flag one missed step in a cyclic indexing train.","test":"Introduce controlled skipped steps.","contrary_outcome":"Checker returns a false normal state.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0096","hypothesis":"A mechanical parity checker should flag one missed step in a cyclic indexing train.","prediction":"A mechanical parity checker should flag one missed step in a cyclic indexing train.","test":"Introduce controlled skipped steps.","contrary_outcome":"Checker returns a false normal state.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":19,"query":"A mechanical parity checker flag one missed step in a cyclic indexing train. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Introduce controlled skipped steps."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0097","id":"S4-0097","volume":"900v4","title":"A floating prism should report liquid density through angular rather than vertical displacement.","prediction":"A floating prism should report liquid density through angular rather than vertical displacement.","test":"Calibrate known densities.","contrary":"Contact-line hysteresis masks density response.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0097","hypothesis":"A floating prism should report liquid density through angular rather than vertical displacement.","prediction":"A floating prism should report liquid density through angular rather than vertical displacement.","test":"Calibrate known densities.","contrary_outcome":"Contact-line hysteresis masks density response.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0098","id":"S4-0098","volume":"900v4","title":"A passive tension network should solve a constrained centering task after one anchor moves.","prediction":"A passive tension network should solve a constrained centering task after one anchor moves.","test":"Track equilibrium position.","contrary":"Friction traps incorrect equilibria.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0098","hypothesis":"A passive tension network should solve a constrained centering task after one anchor moves.","prediction":"A passive tension network should solve a constrained centering task after one anchor moves.","test":"Track equilibrium position.","contrary_outcome":"Friction traps incorrect equilibria.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0099","id":"S4-0099","volume":"900v4","title":"A thermal expansion wave should advance a mechanical state boundary by exactly one cell per full heat cycle.","prediction":"A thermal expansion wave should advance a mechanical state boundary by exactly one cell per full heat cycle.","test":"Image repeated cycles.","contrary":"Boundary skips or stalls.","layers":[1],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0099","hypothesis":"A thermal expansion wave should advance a mechanical state boundary by exactly one cell per full heat cycle.","prediction":"A thermal expansion wave should advance a mechanical state boundary by exactly one cell per full heat cycle.","test":"Image repeated cycles.","contrary_outcome":"Boundary skips or stalls.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0100","id":"S4-0100","volume":"900v4","title":"A capillary optical display should retain a readable pressure threshold pattern after electrical-free recording.","prediction":"A capillary optical display should retain a readable pressure threshold pattern after electrical-free recording.","test":"Apply calibrated histories.","contrary":"Pattern relaxes before useful readout.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0100","hypothesis":"A capillary optical display should retain a readable pressure threshold pattern after electrical-free recording.","prediction":"A capillary optical display should retain a readable pressure threshold pattern after electrical-free recording.","test":"Apply calibrated histories.","contrary_outcome":"Pattern relaxes before useful readout.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0101","id":"S4-0101","volume":"900v4","title":"A phase-stepped shadow mask should estimate translucent-sheet thickness while rejecting uniform illumination drift.","prediction":"A phase-stepped shadow mask should estimate translucent-sheet thickness while rejecting uniform illumination drift.","test":"Measure calibrated sheets.","contrary":"Thickness estimates remain intensity-dependent.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0101","hypothesis":"A phase-stepped shadow mask should estimate translucent-sheet thickness while rejecting uniform illumination drift.","prediction":"A phase-stepped shadow mask should estimate translucent-sheet thickness while rejecting uniform illumination drift.","test":"Measure calibrated sheets.","contrary_outcome":"Thickness estimates remain intensity-dependent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0101","hypothesis":"A phase-stepped shadow mask should estimate translucent-sheet thickness while rejecting uniform illumination drift.","prediction":"A phase-stepped shadow mask should estimate translucent-sheet thickness while rejecting uniform illumination drift.","test":"Measure calibrated sheets.","contrary_outcome":"Thickness estimates remain intensity-dependent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":20,"query":"A phase-stepped shadow mask estimate translucent-sheet thickness while rejecting uniform illumination drift. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure calibrated sheets."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0102","id":"S4-0102","volume":"900v4","title":"A vibrating transparent wedge should separate viscosity from refractive index through optical phase and mechanical lag.","prediction":"A vibrating transparent wedge should separate viscosity from refractive index through optical phase and mechanical lag.","test":"Test known benign liquids.","contrary":"The two inferred properties remain confounded.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0102","hypothesis":"A vibrating transparent wedge should separate viscosity from refractive index through optical phase and mechanical lag.","prediction":"A vibrating transparent wedge should separate viscosity from refractive index through optical phase and mechanical lag.","test":"Test known benign liquids.","contrary_outcome":"The two inferred properties remain confounded.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0103","id":"S4-0103","volume":"900v4","title":"A passive interferometer should reveal a loose mount through intermittent phase jumps under subresonant shaking.","prediction":"A passive interferometer should reveal a loose mount through intermittent phase jumps under subresonant shaking.","test":"Compare controlled looseness levels.","contrary":"Jumps occur equally in tight mounts.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0103","hypothesis":"A passive interferometer should reveal a loose mount through intermittent phase jumps under subresonant shaking.","prediction":"A passive interferometer should reveal a loose mount through intermittent phase jumps under subresonant shaking.","test":"Compare controlled looseness levels.","contrary_outcome":"Jumps occur equally in tight mounts.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0104","id":"S4-0104","volume":"900v4","title":"A rough optical surface should become more specular when tensile strain aligns its microscopic ridges.","prediction":"A rough optical surface should become more specular when tensile strain aligns its microscopic ridges.","test":"Measure angular scattering during stretch.","contrary":"Scattering remains isotropic.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0104","hypothesis":"A rough optical surface should become more specular when tensile strain aligns its microscopic ridges.","prediction":"A rough optical surface should become more specular when tensile strain aligns its microscopic ridges.","test":"Measure angular scattering during stretch.","contrary_outcome":"Scattering remains isotropic.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0105","id":"S4-0105","volume":"900v4","title":"A patterned opaque grid should expose lens decentering through unequal corner magnification ratios.","prediction":"A patterned opaque grid should expose lens decentering through unequal corner magnification ratios.","test":"Introduce calibrated lens offsets.","contrary":"Ratios are dominated by camera tilt.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0105","hypothesis":"A patterned opaque grid should expose lens decentering through unequal corner magnification ratios.","prediction":"A patterned opaque grid should expose lens decentering through unequal corner magnification ratios.","test":"Introduce calibrated lens offsets.","contrary_outcome":"Ratios are dominated by camera tilt.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0106","id":"S4-0106","volume":"900v4","title":"A translating liquid prism should compensate beam steering caused by vessel tilt.","prediction":"A translating liquid prism should compensate beam steering caused by vessel tilt.","test":"Measure output angle across tilt.","contrary":"Compensation worsens pointing error.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0106","hypothesis":"A translating liquid prism should compensate beam steering caused by vessel tilt.","prediction":"A translating liquid prism should compensate beam steering caused by vessel tilt.","test":"Measure output angle across tilt.","contrary_outcome":"Compensation worsens pointing error.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0107","id":"S4-0107","volume":"900v4","title":"A flexible optical stop should cap image blur by reducing aperture during vibration.","prediction":"A flexible optical stop should cap image blur by reducing aperture during vibration.","test":"Measure blur and throughput.","contrary":"Blur reduction is explained solely by exposure loss.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0107","hypothesis":"A flexible optical stop should cap image blur by reducing aperture during vibration.","prediction":"A flexible optical stop should cap image blur by reducing aperture during vibration.","test":"Measure blur and throughput.","contrary_outcome":"Blur reduction is explained solely by exposure loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0108","id":"S4-0108","volume":"900v4","title":"A mechanically tunable diffraction gap should retain its wavelength calibration after uniform support expansion.","prediction":"A mechanically tunable diffraction gap should retain its wavelength calibration after uniform support expansion.","test":"Measure known spectral lines during heating.","contrary":"Calibration drifts as in fixed gaps.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0108","hypothesis":"A mechanically tunable diffraction gap should retain its wavelength calibration after uniform support expansion.","prediction":"A mechanically tunable diffraction gap should retain its wavelength calibration after uniform support expansion.","test":"Measure known spectral lines during heating.","contrary_outcome":"Calibration drifts as in fixed gaps.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0109","id":"S4-0109","volume":"900v4","title":"A suspended retroreflector should reject slow support rotation while following fast translation.","prediction":"A suspended retroreflector should reject slow support rotation while following fast translation.","test":"Apply independent motions.","contrary":"Rotation leaks into the translational readout.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0109","hypothesis":"A suspended retroreflector should reject slow support rotation while following fast translation.","prediction":"A suspended retroreflector should reject slow support rotation while following fast translation.","test":"Apply independent motions.","contrary_outcome":"Rotation leaks into the translational readout.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0110","id":"S4-0110","volume":"900v4","title":"A capillary film should generate a reproducible optical phase ramp during constant-rate drainage.","prediction":"A capillary film should generate a reproducible optical phase ramp during constant-rate drainage.","test":"Measure interferometric phase.","contrary":"Contact-line jumps destroy the ramp.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0110","hypothesis":"A capillary film should generate a reproducible optical phase ramp during constant-rate drainage.","prediction":"A capillary film should generate a reproducible optical phase ramp during constant-rate drainage.","test":"Measure interferometric phase.","contrary_outcome":"Contact-line jumps destroy the ramp.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0111","id":"S4-0111","volume":"900v4","title":"A rotating crossed-polarizer mount should detect stress anisotropy independently of sample thickness using harmonic ratios.","prediction":"A rotating crossed-polarizer mount should detect stress anisotropy independently of sample thickness using harmonic ratios.","test":"Test calibrated transparent plates.","contrary":"Thickness changes mimic anisotropy.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0111","hypothesis":"A rotating crossed-polarizer mount should detect stress anisotropy independently of sample thickness using harmonic ratios.","prediction":"A rotating crossed-polarizer mount should detect stress anisotropy independently of sample thickness using harmonic ratios.","test":"Test calibrated transparent plates.","contrary_outcome":"Thickness changes mimic anisotropy.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0111","hypothesis":"A rotating crossed-polarizer mount should detect stress anisotropy independently of sample thickness using harmonic ratios.","prediction":"A rotating crossed-polarizer mount should detect stress anisotropy independently of sample thickness using harmonic ratios.","test":"Test calibrated transparent plates.","contrary_outcome":"Thickness changes mimic anisotropy.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":21,"query":"A rotating crossed-polarizer mount detect stress anisotropy independently of sample thickness using harmonic ratios. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Test calibrated transparent plates."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0112","id":"S4-0112","volume":"900v4","title":"A compliant lens spacer should reduce focus hysteresis by rolling rather than sliding at its seats.","prediction":"A compliant lens spacer should reduce focus hysteresis by rolling rather than sliding at its seats.","test":"Measure focus through displacement cycles.","contrary":"Rolling seats add comparable hysteresis.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0112","hypothesis":"A compliant lens spacer should reduce focus hysteresis by rolling rather than sliding at its seats.","prediction":"A compliant lens spacer should reduce focus hysteresis by rolling rather than sliding at its seats.","test":"Measure focus through displacement cycles.","contrary_outcome":"Rolling seats add comparable hysteresis.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0113","id":"S4-0113","volume":"900v4","title":"A patterned mirror should distinguish a uniform coating loss from sparse scratches through speckle correlation decay.","prediction":"A patterned mirror should distinguish a uniform coating loss from sparse scratches through speckle correlation decay.","test":"Damage controlled samples.","contrary":"Correlation decay is not damage-specific.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0113","hypothesis":"A patterned mirror should distinguish a uniform coating loss from sparse scratches through speckle correlation decay.","prediction":"A patterned mirror should distinguish a uniform coating loss from sparse scratches through speckle correlation decay.","test":"Damage controlled samples.","contrary_outcome":"Correlation decay is not damage-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0114","id":"S4-0114","volume":"900v4","title":"A free-standing optical slit should indicate humidity through width change while rejecting uniform temperature expansion.","prediction":"A free-standing optical slit should indicate humidity through width change while rejecting uniform temperature expansion.","test":"Calibrate both variables.","contrary":"Thermal cross-sensitivity prevents humidity inference.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0114","hypothesis":"A free-standing optical slit should indicate humidity through width change while rejecting uniform temperature expansion.","prediction":"A free-standing optical slit should indicate humidity through width change while rejecting uniform temperature expansion.","test":"Calibrate both variables.","contrary_outcome":"Thermal cross-sensitivity prevents humidity inference.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0115","id":"S4-0115","volume":"900v4","title":"A ring-shaped illumination pattern should improve detection of central lens contamination through radial contrast redistribution.","prediction":"A ring-shaped illumination pattern should improve detection of central lens contamination through radial contrast redistribution.","test":"Apply known inert spots.","contrary":"Detection does not improve against uniform illumination.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0115","hypothesis":"A ring-shaped illumination pattern should improve detection of central lens contamination through radial contrast redistribution.","prediction":"A ring-shaped illumination pattern should improve detection of central lens contamination through radial contrast redistribution.","test":"Apply known inert spots.","contrary_outcome":"Detection does not improve against uniform illumination.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0116","id":"S4-0116","volume":"900v4","title":"A passive optical alignment target should encode out-of-plane tilt through a color-independent geometric parallax.","prediction":"A passive optical alignment target should encode out-of-plane tilt through a color-independent geometric parallax.","test":"Measure target images at known angles.","contrary":"Depth and tilt remain ambiguous.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0116","hypothesis":"A passive optical alignment target should encode out-of-plane tilt through a color-independent geometric parallax.","prediction":"A passive optical alignment target should encode out-of-plane tilt through a color-independent geometric parallax.","test":"Measure target images at known angles.","contrary_outcome":"Depth and tilt remain ambiguous.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0117","id":"S4-0117","volume":"900v4","title":"A liquid meniscus should form a tunable cylindrical lens when constrained by two parallel moving rails.","prediction":"A liquid meniscus should form a tunable cylindrical lens when constrained by two parallel moving rails.","test":"Measure focal length versus spacing.","contrary":"Contact hysteresis prevents repeatable tuning.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0117","hypothesis":"A liquid meniscus should form a tunable cylindrical lens when constrained by two parallel moving rails.","prediction":"A liquid meniscus should form a tunable cylindrical lens when constrained by two parallel moving rails.","test":"Measure focal length versus spacing.","contrary_outcome":"Contact hysteresis prevents repeatable tuning.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0118","id":"S4-0118","volume":"900v4","title":"A flexible optical diaphragm should change scattering before its central aperture closes.","prediction":"A flexible optical diaphragm should change scattering before its central aperture closes.","test":"Track transmission and scattering under load.","contrary":"Closure gives no advance scattering signal.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0118","hypothesis":"A flexible optical diaphragm should change scattering before its central aperture closes.","prediction":"A flexible optical diaphragm should change scattering before its central aperture closes.","test":"Track transmission and scattering under load.","contrary_outcome":"Closure gives no advance scattering signal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0119","id":"S4-0119","volume":"900v4","title":"A slowly translated diffuser should average coherent speckle without appreciable image smear.","prediction":"A slowly translated diffuser should average coherent speckle without appreciable image smear.","test":"Measure contrast and resolution.","contrary":"Speckle reduction requires substantial blur.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0119","hypothesis":"A slowly translated diffuser should average coherent speckle without appreciable image smear.","prediction":"A slowly translated diffuser should average coherent speckle without appreciable image smear.","test":"Measure contrast and resolution.","contrary_outcome":"Speckle reduction requires substantial blur.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0120","id":"S4-0120","volume":"900v4","title":"A stepped transparent reference should expose spatial temperature gradients through differential beam deflection.","prediction":"A stepped transparent reference should expose spatial temperature gradients through differential beam deflection.","test":"Apply known gradients.","contrary":"Deflection follows support bending instead.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0120","hypothesis":"A stepped transparent reference should expose spatial temperature gradients through differential beam deflection.","prediction":"A stepped transparent reference should expose spatial temperature gradients through differential beam deflection.","test":"Apply known gradients.","contrary_outcome":"Deflection follows support bending instead.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0121","id":"S4-0121","volume":"900v4","title":"A passive beam splitter should maintain its split ratio under small angular misalignment through paired opposite wedges.","prediction":"A passive beam splitter should maintain its split ratio under small angular misalignment through paired opposite wedges.","test":"Measure ratio versus angle.","contrary":"Angular sensitivity is unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0121","hypothesis":"A passive beam splitter should maintain its split ratio under small angular misalignment through paired opposite wedges.","prediction":"A passive beam splitter should maintain its split ratio under small angular misalignment through paired opposite wedges.","test":"Measure ratio versus angle.","contrary_outcome":"Angular sensitivity is unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0122","id":"S4-0122","volume":"900v4","title":"A mechanically coupled pair of mirrors should cancel equal support rotations while amplifying differential rotations.","prediction":"A mechanically coupled pair of mirrors should cancel equal support rotations while amplifying differential rotations.","test":"Apply calibrated rotations.","contrary":"Common-mode cancellation fails.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0122","hypothesis":"A mechanically coupled pair of mirrors should cancel equal support rotations while amplifying differential rotations.","prediction":"A mechanically coupled pair of mirrors should cancel equal support rotations while amplifying differential rotations.","test":"Apply calibrated rotations.","contrary_outcome":"Common-mode cancellation fails.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0123","id":"S4-0123","volume":"900v4","title":"A vibrating aperture should estimate a beam's local intensity gradient from its first harmonic.","prediction":"A vibrating aperture should estimate a beam's local intensity gradient from its first harmonic.","test":"Scan known beam profiles.","contrary":"Harmonic output follows intensity alone.","layers":[1,2,3],"categories":[],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0123","hypothesis":"A vibrating aperture should estimate a beam's local intensity gradient from its first harmonic.","prediction":"A vibrating aperture should estimate a beam's local intensity gradient from its first harmonic.","test":"Scan known beam profiles.","contrary_outcome":"Harmonic output follows intensity alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0123","hypothesis":"A vibrating aperture should estimate a beam's local intensity gradient from its first harmonic.","prediction":"A vibrating aperture should estimate a beam's local intensity gradient from its first harmonic.","test":"Scan known beam profiles.","contrary_outcome":"Harmonic output follows intensity alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":2,"query":"A vibrating aperture estimate a beam's local intensity gradient from its first harmonic. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Scan known beam profiles."},"dossier":{"id":"S4-0123","title":"Vibrating-aperture gradient readout","why_selected":"The small-modulation expansion supplies a quantitative signal prediction and a strong amplitude-scaling falsification test.","sources":[{"title":"Coherent and incoherent operation in optical vibration microscopy","url":"https://opg.optica.org/ao/abstract.cfm?uri=ao-36-17-3920","access":"Primary publisher abstract read","finding":"Korpel and Snyder analyze aperture-dependent vibration microscopy and report different harmonic information in coherent and incoherent limits. This directly warns that a harmonic interpretation depends on the optical regime; it is not generic proof of the proposed first-harmonic intensity-gradient channel."}],"design":"Translate a narrow aperture sinusoidally across a stable, safely enclosed low-power beam. Record actual aperture motion and photodetector power synchronously. Use independently calibrated beam profiles with known positive, negative, and near-zero gradients. Sweep modulation amplitude while keeping detector response linear, and repeat with coherent and diffuse illumination.","endpoints":"Primary: signed first-harmonic amplitude divided by mechanical amplitude versus independently measured power gradient. Secondary: higher-harmonic contamination and spatial bias. A useful device requires a predeclared gradient error bound on held-out profiles, not merely visible modulation.","controls":"Stationary aperture, flat intensity field, reversed displacement phase, source-power modulation without motion, detector linearity check, and several aperture widths. Record stray scattering from the aperture edge.","conditional_analysis":"Let P(s) be transmitted power through an aperture centered at s. For s=s0+a*cos(wt), smooth P gives P(t)=P(s0)+a*P'(s0)*cos(wt)+O(a^2). For a slit of width d, P'(s)=I(s+d/2)-I(s-d/2), which approaches d*I'(s) only when the intensity is smooth over d. The expansion proves a leading-order relation for the assumed power function, not a universal microscopy theorem. Coherent diffraction and finite aperture can invalidate the simple intensity model.","analysis_plan":"Check linear scaling with a and sign reversal with gradient. Estimate the amplitude range where the remainder is below uncertainty, then lock it before held-out tests. Reject the claim if first-harmonic response is dominated by phase effects or edge scattering.","limitations":"Unproved geometry-specific sensor; substantial vibration-microscopy prior art. No new optical discovery or measured performance asserted.","rank":2,"hypothesis":"A vibrating aperture should estimate a beam's local intensity gradient from its first harmonic.","status":"speculative; no physical data or proof"},"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0124","id":"S4-0124","volume":"900v4","title":"A capillary liquid lens should reject small pressure noise when its contact line sits in a geometric recess.","prediction":"A capillary liquid lens should reject small pressure noise when its contact line sits in a geometric recess.","test":"Measure focal jitter.","contrary":"Recesses increase stick-slip jitter.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0124","hypothesis":"A capillary liquid lens should reject small pressure noise when its contact line sits in a geometric recess.","prediction":"A capillary liquid lens should reject small pressure noise when its contact line sits in a geometric recess.","test":"Measure focal jitter.","contrary_outcome":"Recesses increase stick-slip jitter.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0124","hypothesis":"A capillary liquid lens should reject small pressure noise when its contact line sits in a geometric recess.","prediction":"A capillary liquid lens should reject small pressure noise when its contact line sits in a geometric recess.","test":"Measure focal jitter.","contrary_outcome":"Recesses increase stick-slip jitter.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":22,"query":"A capillary liquid lens reject small pressure noise when its contact line sits in a geometric recess. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure focal jitter."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0125","id":"S4-0125","volume":"900v4","title":"A folded optical scale should resolve extension and shear through independent parallax shifts.","prediction":"A folded optical scale should resolve extension and shear through independent parallax shifts.","test":"Apply calibrated two-axis motion.","contrary":"Signals are not independently recoverable.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0125","hypothesis":"A folded optical scale should resolve extension and shear through independent parallax shifts.","prediction":"A folded optical scale should resolve extension and shear through independent parallax shifts.","test":"Apply calibrated two-axis motion.","contrary_outcome":"Signals are not independently recoverable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0126","id":"S4-0126","volume":"900v4","title":"A passive scattering cavity should measure particle concentration through escape-time changes rather than absolute brightness.","prediction":"A passive scattering cavity should measure particle concentration through escape-time changes rather than absolute brightness.","test":"Test inert particle standards.","contrary":"Timing changes are dominated by wall loss.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0126","hypothesis":"A passive scattering cavity should measure particle concentration through escape-time changes rather than absolute brightness.","prediction":"A passive scattering cavity should measure particle concentration through escape-time changes rather than absolute brightness.","test":"Test inert particle standards.","contrary_outcome":"Timing changes are dominated by wall loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0127","id":"S4-0127","volume":"900v4","title":"A flexible reflective ribbon should indicate twist density through a spatial sequence of glints.","prediction":"A flexible reflective ribbon should indicate twist density through a spatial sequence of glints.","test":"Apply known torsion distributions.","contrary":"Glint sequence cannot localize twist.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0127","hypothesis":"A flexible reflective ribbon should indicate twist density through a spatial sequence of glints.","prediction":"A flexible reflective ribbon should indicate twist density through a spatial sequence of glints.","test":"Apply known torsion distributions.","contrary_outcome":"Glint sequence cannot localize twist.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0128","id":"S4-0128","volume":"900v4","title":"A paired shadow sensor should detect transparent bubbles through edge displacement without relying on absolute contrast.","prediction":"A paired shadow sensor should detect transparent bubbles through edge displacement without relying on absolute contrast.","test":"Pass calibrated bubbles.","contrary":"Small bubbles remain indistinguishable from illumination noise.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0128","hypothesis":"A paired shadow sensor should detect transparent bubbles through edge displacement without relying on absolute contrast.","prediction":"A paired shadow sensor should detect transparent bubbles through edge displacement without relying on absolute contrast.","test":"Pass calibrated bubbles.","contrary_outcome":"Small bubbles remain indistinguishable from illumination noise.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0129","id":"S4-0129","volume":"900v4","title":"A rotating refractive plate should cancel periodic image distortion when phased against a vibrating support.","prediction":"A rotating refractive plate should cancel periodic image distortion when phased against a vibrating support.","test":"Measure image motion.","contrary":"Correction adds larger harmonics.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0129","hypothesis":"A rotating refractive plate should cancel periodic image distortion when phased against a vibrating support.","prediction":"A rotating refractive plate should cancel periodic image distortion when phased against a vibrating support.","test":"Measure image motion.","contrary_outcome":"Correction adds larger harmonics.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0130","id":"S4-0130","volume":"900v4","title":"A compliant optical coupler should retain transmission during repeated axial separation by preserving a liquid bridge.","prediction":"A compliant optical coupler should retain transmission during repeated axial separation by preserving a liquid bridge.","test":"Measure transmission cycles.","contrary":"Bridge rupture causes persistent loss.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0130","hypothesis":"A compliant optical coupler should retain transmission during repeated axial separation by preserving a liquid bridge.","prediction":"A compliant optical coupler should retain transmission during repeated axial separation by preserving a liquid bridge.","test":"Measure transmission cycles.","contrary_outcome":"Bridge rupture causes persistent loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0131","id":"S4-0131","volume":"900v4","title":"A passive optical ring should detect local surface wetting through azimuthally uneven scattering.","prediction":"A passive optical ring should detect local surface wetting through azimuthally uneven scattering.","test":"Wet known sectors.","contrary":"Scattering changes are spatially nonlocal.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0131","hypothesis":"A passive optical ring should detect local surface wetting through azimuthally uneven scattering.","prediction":"A passive optical ring should detect local surface wetting through azimuthally uneven scattering.","test":"Wet known sectors.","contrary_outcome":"Scattering changes are spatially nonlocal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0132","id":"S4-0132","volume":"900v4","title":"A thermally driven optical wedge should scan a beam monotonically during a finite heating pulse.","prediction":"A thermally driven optical wedge should scan a beam monotonically during a finite heating pulse.","test":"Measure angle-time response.","contrary":"Angle reversals prevent useful scanning.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0132","hypothesis":"A thermally driven optical wedge should scan a beam monotonically during a finite heating pulse.","prediction":"A thermally driven optical wedge should scan a beam monotonically during a finite heating pulse.","test":"Measure angle-time response.","contrary_outcome":"Angle reversals prevent useful scanning.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0133","id":"S4-0133","volume":"900v4","title":"A textured transparent dome should distinguish internal fogging from external droplets through scattering-angle ratios.","prediction":"A textured transparent dome should distinguish internal fogging from external droplets through scattering-angle ratios.","test":"Apply conditions independently.","contrary":"Angular signatures overlap.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0133","hypothesis":"A textured transparent dome should distinguish internal fogging from external droplets through scattering-angle ratios.","prediction":"A textured transparent dome should distinguish internal fogging from external droplets through scattering-angle ratios.","test":"Apply conditions independently.","contrary_outcome":"Angular signatures overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0134","id":"S4-0134","volume":"900v4","title":"A mechanically stretched moire mask should provide a nonlinear displacement scale with a readable high-sensitivity region.","prediction":"A mechanically stretched moire mask should provide a nonlinear displacement scale with a readable high-sensitivity region.","test":"Calibrate displacement.","contrary":"Fringe ambiguity erases the sensitivity gain.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0134","hypothesis":"A mechanically stretched moire mask should provide a nonlinear displacement scale with a readable high-sensitivity region.","prediction":"A mechanically stretched moire mask should provide a nonlinear displacement scale with a readable high-sensitivity region.","test":"Calibrate displacement.","contrary_outcome":"Fringe ambiguity erases the sensitivity gain.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0135","id":"S4-0135","volume":"900v4","title":"A passive optical shutter should reject oblique stray light while opening for near-normal illumination through radiation-heated geometry.","prediction":"A passive optical shutter should reject oblique stray light while opening for near-normal illumination through radiation-heated geometry.","test":"Measure angular response.","contrary":"Thermal diffusion removes angular selectivity.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0135","hypothesis":"A passive optical shutter should reject oblique stray light while opening for near-normal illumination through radiation-heated geometry.","prediction":"A passive optical shutter should reject oblique stray light while opening for near-normal illumination through radiation-heated geometry.","test":"Measure angular response.","contrary_outcome":"Thermal diffusion removes angular selectivity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0136","id":"S4-0136","volume":"900v4","title":"A transparent flexure should estimate local strain from the angular shift of an embedded void image.","prediction":"A transparent flexure should estimate local strain from the angular shift of an embedded void image.","test":"Load calibrated specimens.","contrary":"Void-image shift is dominated by rigid motion.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0136","hypothesis":"A transparent flexure should estimate local strain from the angular shift of an embedded void image.","prediction":"A transparent flexure should estimate local strain from the angular shift of an embedded void image.","test":"Load calibrated specimens.","contrary_outcome":"Void-image shift is dominated by rigid motion.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0137","id":"S4-0137","volume":"900v4","title":"A paired cavity path should distinguish gas-pressure changes from window deformation through opposite optical sensitivities.","prediction":"A paired cavity path should distinguish gas-pressure changes from window deformation through opposite optical sensitivities.","test":"Vary pressure and mechanical window loading.","contrary":"Responses remain degenerate.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0137","hypothesis":"A paired cavity path should distinguish gas-pressure changes from window deformation through opposite optical sensitivities.","prediction":"A paired cavity path should distinguish gas-pressure changes from window deformation through opposite optical sensitivities.","test":"Vary pressure and mechanical window loading.","contrary_outcome":"Responses remain degenerate.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0137","hypothesis":"A paired cavity path should distinguish gas-pressure changes from window deformation through opposite optical sensitivities.","prediction":"A paired cavity path should distinguish gas-pressure changes from window deformation through opposite optical sensitivities.","test":"Vary pressure and mechanical window loading.","contrary_outcome":"Responses remain degenerate.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":23,"query":"A paired cavity path distinguish gas-pressure changes from window deformation through opposite optical sensitivities. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Vary pressure and mechanical window loading."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0138","id":"S4-0138","volume":"900v4","title":"A rotating optical roughness probe should reduce sensitivity to surface color by using normalized angular harmonics.","prediction":"A rotating optical roughness probe should reduce sensitivity to surface color by using normalized angular harmonics.","test":"Test equally rough colored standards.","contrary":"Color still dominates the estimate.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0138","hypothesis":"A rotating optical roughness probe should reduce sensitivity to surface color by using normalized angular harmonics.","prediction":"A rotating optical roughness probe should reduce sensitivity to surface color by using normalized angular harmonics.","test":"Test equally rough colored standards.","contrary_outcome":"Color still dominates the estimate.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0139","id":"S4-0139","volume":"900v4","title":"A flexible prism array should encode a pressure map into the spacing of reflected spots.","prediction":"A flexible prism array should encode a pressure map into the spacing of reflected spots.","test":"Apply known spatial loads.","contrary":"Mechanical cross-talk destroys localization.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0139","hypothesis":"A flexible prism array should encode a pressure map into the spacing of reflected spots.","prediction":"A flexible prism array should encode a pressure map into the spacing of reflected spots.","test":"Apply known spatial loads.","contrary_outcome":"Mechanical cross-talk destroys localization.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0140","id":"S4-0140","volume":"900v4","title":"A passive beam-centering cone should preserve alignment after small support impacts through geometric reseating.","prediction":"A passive beam-centering cone should preserve alignment after small support impacts through geometric reseating.","test":"Measure pointing before and after shocks.","contrary":"Reseating shifts the optical axis.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0140","hypothesis":"A passive beam-centering cone should preserve alignment after small support impacts through geometric reseating.","prediction":"A passive beam-centering cone should preserve alignment after small support impacts through geometric reseating.","test":"Measure pointing before and after shocks.","contrary_outcome":"Reseating shifts the optical axis.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0141","id":"S4-0141","volume":"900v4","title":"A capillary film thickness gauge should distinguish drainage from evaporation using two spatially separated interference signals.","prediction":"A capillary film thickness gauge should distinguish drainage from evaporation using two spatially separated interference signals.","test":"Control both processes.","contrary":"Both signals respond identically.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0141","hypothesis":"A capillary film thickness gauge should distinguish drainage from evaporation using two spatially separated interference signals.","prediction":"A capillary film thickness gauge should distinguish drainage from evaporation using two spatially separated interference signals.","test":"Control both processes.","contrary_outcome":"Both signals respond identically.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0142","id":"S4-0142","volume":"900v4","title":"A suspended lens should reduce thermal decentering when its support tension redistributes through a common ring.","prediction":"A suspended lens should reduce thermal decentering when its support tension redistributes through a common ring.","test":"Measure center position during asymmetric heating.","contrary":"Redistribution amplifies decentering.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0142","hypothesis":"A suspended lens should reduce thermal decentering when its support tension redistributes through a common ring.","prediction":"A suspended lens should reduce thermal decentering when its support tension redistributes through a common ring.","test":"Measure center position during asymmetric heating.","contrary_outcome":"Redistribution amplifies decentering.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0143","id":"S4-0143","volume":"900v4","title":"A patterned diffraction membrane should reveal contact onset through disappearance of a selected diffraction order.","prediction":"A patterned diffraction membrane should reveal contact onset through disappearance of a selected diffraction order.","test":"Press known flat contacts.","contrary":"Order loss precedes or lags contact unpredictably.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0143","hypothesis":"A patterned diffraction membrane should reveal contact onset through disappearance of a selected diffraction order.","prediction":"A patterned diffraction membrane should reveal contact onset through disappearance of a selected diffraction order.","test":"Press known flat contacts.","contrary_outcome":"Order loss precedes or lags contact unpredictably.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0144","id":"S4-0144","volume":"900v4","title":"A mechanically scanned optical edge should detect tiny refractive-index discontinuities through asymmetric deflection timing.","prediction":"A mechanically scanned optical edge should detect tiny refractive-index discontinuities through asymmetric deflection timing.","test":"Scan known liquid boundaries.","contrary":"Timing asymmetry is below drift.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0144","hypothesis":"A mechanically scanned optical edge should detect tiny refractive-index discontinuities through asymmetric deflection timing.","prediction":"A mechanically scanned optical edge should detect tiny refractive-index discontinuities through asymmetric deflection timing.","test":"Scan known liquid boundaries.","contrary_outcome":"Timing asymmetry is below drift.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0145","id":"S4-0145","volume":"900v4","title":"A passive mirror stack should expose individual layer displacement through separate echo-like optical path peaks.","prediction":"A passive mirror stack should expose individual layer displacement through separate echo-like optical path peaks.","test":"Move known layers.","contrary":"Peaks cannot be uniquely assigned.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0145","hypothesis":"A passive mirror stack should expose individual layer displacement through separate echo-like optical path peaks.","prediction":"A passive mirror stack should expose individual layer displacement through separate echo-like optical path peaks.","test":"Move known layers.","contrary_outcome":"Peaks cannot be uniquely assigned.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0145","hypothesis":"A passive mirror stack should expose individual layer displacement through separate echo-like optical path peaks.","prediction":"A passive mirror stack should expose individual layer displacement through separate echo-like optical path peaks.","test":"Move known layers.","contrary_outcome":"Peaks cannot be uniquely assigned.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":24,"query":"A passive mirror stack expose individual layer displacement through separate echo-like optical path peaks. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Move known layers."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0146","id":"S4-0146","volume":"900v4","title":"A rotating liquid cell should separate sedimentation from aggregation by the reversal symmetry of scattering patterns.","prediction":"A rotating liquid cell should separate sedimentation from aggregation by the reversal symmetry of scattering patterns.","test":"Image inert suspensions.","contrary":"Reversal does not distinguish mechanisms.","layers":[1],"categories":["biology","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0146","hypothesis":"A rotating liquid cell should separate sedimentation from aggregation by the reversal symmetry of scattering patterns.","prediction":"A rotating liquid cell should separate sedimentation from aggregation by the reversal symmetry of scattering patterns.","test":"Image inert suspensions.","contrary_outcome":"Reversal does not distinguish mechanisms.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0147","id":"S4-0147","volume":"900v4","title":"A compliant optical mount should reduce vibration-induced focus modulation through an inertial counter-motion.","prediction":"A compliant optical mount should reduce vibration-induced focus modulation through an inertial counter-motion.","test":"Measure focal jitter.","contrary":"Counter-motion increases modulation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0147","hypothesis":"A compliant optical mount should reduce vibration-induced focus modulation through an inertial counter-motion.","prediction":"A compliant optical mount should reduce vibration-induced focus modulation through an inertial counter-motion.","test":"Measure focal jitter.","contrary_outcome":"Counter-motion increases modulation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0148","id":"S4-0148","volume":"900v4","title":"A passive grating pair should estimate differential expansion between bonded layers.","prediction":"A passive grating pair should estimate differential expansion between bonded layers.","test":"Heat calibrated bilayers.","contrary":"Grating shifts cannot separate bending from expansion mismatch.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0148","hypothesis":"A passive grating pair should estimate differential expansion between bonded layers.","prediction":"A passive grating pair should estimate differential expansion between bonded layers.","test":"Heat calibrated bilayers.","contrary_outcome":"Grating shifts cannot separate bending from expansion mismatch.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0149","id":"S4-0149","volume":"900v4","title":"A shadow-based fluid interface sensor should reject vessel-wall refraction through opposing viewing paths.","prediction":"A shadow-based fluid interface sensor should reject vessel-wall refraction through opposing viewing paths.","test":"Measure known interface heights.","contrary":"Wall distortions remain dominant.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0149","hypothesis":"A shadow-based fluid interface sensor should reject vessel-wall refraction through opposing viewing paths.","prediction":"A shadow-based fluid interface sensor should reject vessel-wall refraction through opposing viewing paths.","test":"Measure known interface heights.","contrary_outcome":"Wall distortions remain dominant.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0150","id":"S4-0150","volume":"900v4","title":"A mechanically modulated reflector should distinguish coherent stray reflections from diffuse target return through phase locking.","prediction":"A mechanically modulated reflector should distinguish coherent stray reflections from diffuse target return through phase locking.","test":"Test known reflectors.","contrary":"Both returns lock identically.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0150","hypothesis":"A mechanically modulated reflector should distinguish coherent stray reflections from diffuse target return through phase locking.","prediction":"A mechanically modulated reflector should distinguish coherent stray reflections from diffuse target return through phase locking.","test":"Test known reflectors.","contrary_outcome":"Both returns lock identically.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0151","id":"S4-0151","volume":"900v4","title":"A transparent corrugated support should reveal local contact pressure through gap-dependent optical fringes.","prediction":"A transparent corrugated support should reveal local contact pressure through gap-dependent optical fringes.","test":"Calibrate pressure maps.","contrary":"Fringes are too history-dependent to calibrate.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0151","hypothesis":"A transparent corrugated support should reveal local contact pressure through gap-dependent optical fringes.","prediction":"A transparent corrugated support should reveal local contact pressure through gap-dependent optical fringes.","test":"Calibrate pressure maps.","contrary_outcome":"Fringes are too history-dependent to calibrate.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0152","id":"S4-0152","volume":"900v4","title":"A passive optical trap analogue should confine a floating reflector through intensity-dependent thermal surface flow.","prediction":"A passive optical trap analogue should confine a floating reflector through intensity-dependent thermal surface flow.","test":"Track equilibrium and tracer motion.","contrary":"Bulk convection explains all confinement.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0152","hypothesis":"A passive optical trap analogue should confine a floating reflector through intensity-dependent thermal surface flow.","prediction":"A passive optical trap analogue should confine a floating reflector through intensity-dependent thermal surface flow.","test":"Track equilibrium and tracer motion.","contrary_outcome":"Bulk convection explains all confinement.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0153","id":"S4-0153","volume":"900v4","title":"A rotating aperture pair should reconstruct a two-dimensional beam centroid from one photodetector.","prediction":"A rotating aperture pair should reconstruct a two-dimensional beam centroid from one photodetector.","test":"Compare known beam positions.","contrary":"Centroid reconstruction is ambiguous.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0153","hypothesis":"A rotating aperture pair should reconstruct a two-dimensional beam centroid from one photodetector.","prediction":"A rotating aperture pair should reconstruct a two-dimensional beam centroid from one photodetector.","test":"Compare known beam positions.","contrary_outcome":"Centroid reconstruction is ambiguous.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0154","id":"S4-0154","volume":"900v4","title":"A liquid-filled optical wedge should sense orientation while rejecting moderate liquid-volume changes.","prediction":"A liquid-filled optical wedge should sense orientation while rejecting moderate liquid-volume changes.","test":"Vary angle and filling independently.","contrary":"Volume drift mimics orientation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0154","hypothesis":"A liquid-filled optical wedge should sense orientation while rejecting moderate liquid-volume changes.","prediction":"A liquid-filled optical wedge should sense orientation while rejecting moderate liquid-volume changes.","test":"Vary angle and filling independently.","contrary_outcome":"Volume drift mimics orientation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0155","id":"S4-0155","volume":"900v4","title":"A folded reflective path should expose local cable strain through differential glint timing during rotation.","prediction":"A folded reflective path should expose local cable strain through differential glint timing during rotation.","test":"Apply known strain sections.","contrary":"Timing cannot localize strain.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0155","hypothesis":"A folded reflective path should expose local cable strain through differential glint timing during rotation.","prediction":"A folded reflective path should expose local cable strain through differential glint timing during rotation.","test":"Apply known strain sections.","contrary_outcome":"Timing cannot localize strain.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0156","id":"S4-0156","volume":"900v4","title":"A compliant light guide should retain output direction during input bending through a free internal sleeve.","prediction":"A compliant light guide should retain output direction during input bending through a free internal sleeve.","test":"Measure pointing and throughput.","contrary":"Sleeve friction prevents compensation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0156","hypothesis":"A compliant light guide should retain output direction during input bending through a free internal sleeve.","prediction":"A compliant light guide should retain output direction during input bending through a free internal sleeve.","test":"Measure pointing and throughput.","contrary_outcome":"Sleeve friction prevents compensation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0157","id":"S4-0157","volume":"900v4","title":"A passive diffraction target should estimate object distance through the ratio of near and far pattern scales.","prediction":"A passive diffraction target should estimate object distance through the ratio of near and far pattern scales.","test":"Image calibrated distances.","contrary":"Ratio remains dependent on source wavelength.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0157","hypothesis":"A passive diffraction target should estimate object distance through the ratio of near and far pattern scales.","prediction":"A passive diffraction target should estimate object distance through the ratio of near and far pattern scales.","test":"Image calibrated distances.","contrary_outcome":"Ratio remains dependent on source wavelength.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0158","id":"S4-0158","volume":"900v4","title":"A vibrating optical window should shed droplets at lower amplitude when driven in a traveling-wave mode.","prediction":"A vibrating optical window should shed droplets at lower amplitude when driven in a traveling-wave mode.","test":"Measure clearing thresholds.","contrary":"Standing-wave drive clears equally well.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0158","hypothesis":"A vibrating optical window should shed droplets at lower amplitude when driven in a traveling-wave mode.","prediction":"A vibrating optical window should shed droplets at lower amplitude when driven in a traveling-wave mode.","test":"Measure clearing thresholds.","contrary_outcome":"Standing-wave drive clears equally well.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0158","hypothesis":"A vibrating optical window should shed droplets at lower amplitude when driven in a traveling-wave mode.","prediction":"A vibrating optical window should shed droplets at lower amplitude when driven in a traveling-wave mode.","test":"Measure clearing thresholds.","contrary_outcome":"Standing-wave drive clears equally well.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":25,"query":"A vibrating optical window shed droplets at lower amplitude when driven in a traveling-wave mode. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure clearing thresholds."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0159","id":"S4-0159","volume":"900v4","title":"A shaped optical cavity should reduce concentration-readout sensitivity to bubble position.","prediction":"A shaped optical cavity should reduce concentration-readout sensitivity to bubble position.","test":"Move controlled bubbles.","contrary":"Position remains a major error source.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0159","hypothesis":"A shaped optical cavity should reduce concentration-readout sensitivity to bubble position.","prediction":"A shaped optical cavity should reduce concentration-readout sensitivity to bubble position.","test":"Move controlled bubbles.","contrary_outcome":"Position remains a major error source.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0160","id":"S4-0160","volume":"900v4","title":"A floating reflective plate should report interfacial tension gradients through a uniquely oriented deformation pattern.","prediction":"A floating reflective plate should report interfacial tension gradients through a uniquely oriented deformation pattern.","test":"Apply controlled gradients.","contrary":"Flow-induced bending produces the same pattern.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0160","hypothesis":"A floating reflective plate should report interfacial tension gradients through a uniquely oriented deformation pattern.","prediction":"A floating reflective plate should report interfacial tension gradients through a uniquely oriented deformation pattern.","test":"Apply controlled gradients.","contrary_outcome":"Flow-induced bending produces the same pattern.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0161","id":"S4-0161","volume":"900v4","title":"A mechanical aperture iris should retain a fixed center during asymmetric loading through a floating linkage.","prediction":"A mechanical aperture iris should retain a fixed center during asymmetric loading through a floating linkage.","test":"Measure aperture centroid.","contrary":"Centroid shifts significantly.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0161","hypothesis":"A mechanical aperture iris should retain a fixed center during asymmetric loading through a floating linkage.","prediction":"A mechanical aperture iris should retain a fixed center during asymmetric loading through a floating linkage.","test":"Measure aperture centroid.","contrary_outcome":"Centroid shifts significantly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0162","id":"S4-0162","volume":"900v4","title":"A transparent elastic wedge should distinguish compressive load from temperature through image shear and magnification.","prediction":"A transparent elastic wedge should distinguish compressive load from temperature through image shear and magnification.","test":"Calibrate both variables.","contrary":"Signals remain inseparable.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0162","hypothesis":"A transparent elastic wedge should distinguish compressive load from temperature through image shear and magnification.","prediction":"A transparent elastic wedge should distinguish compressive load from temperature through image shear and magnification.","test":"Calibrate both variables.","contrary_outcome":"Signals remain inseparable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0163","id":"S4-0163","volume":"900v4","title":"A passive optical reference ring should reveal camera focus drift through a known blur asymmetry.","prediction":"A passive optical reference ring should reveal camera focus drift through a known blur asymmetry.","test":"Defocus controlled images.","contrary":"Asymmetry is not monotonic with defocus.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0163","hypothesis":"A passive optical reference ring should reveal camera focus drift through a known blur asymmetry.","prediction":"A passive optical reference ring should reveal camera focus drift through a known blur asymmetry.","test":"Defocus controlled images.","contrary_outcome":"Asymmetry is not monotonic with defocus.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0164","id":"S4-0164","volume":"900v4","title":"A capillary optical attenuator should change transmission monotonically with stored liquid volume.","prediction":"A capillary optical attenuator should change transmission monotonically with stored liquid volume.","test":"Dose calibrated volumes.","contrary":"Meniscus jumps create nonmonotonic output.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0164","hypothesis":"A capillary optical attenuator should change transmission monotonically with stored liquid volume.","prediction":"A capillary optical attenuator should change transmission monotonically with stored liquid volume.","test":"Dose calibrated volumes.","contrary_outcome":"Meniscus jumps create nonmonotonic output.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0165","id":"S4-0165","volume":"900v4","title":"A torsionally compliant mirror mount should reject axial thermal expansion without changing beam angle.","prediction":"A torsionally compliant mirror mount should reject axial thermal expansion without changing beam angle.","test":"Heat the axial support.","contrary":"Pointing drift remains comparable.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0165","hypothesis":"A torsionally compliant mirror mount should reject axial thermal expansion without changing beam angle.","prediction":"A torsionally compliant mirror mount should reject axial thermal expansion without changing beam angle.","test":"Heat the axial support.","contrary_outcome":"Pointing drift remains comparable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0166","id":"S4-0166","volume":"900v4","title":"A rotating speckle target should reveal mechanical backlash through phase discontinuities of its correlation signal.","prediction":"A rotating speckle target should reveal mechanical backlash through phase discontinuities of its correlation signal.","test":"Introduce calibrated backlash.","contrary":"Discontinuities reflect illumination drift instead.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0166","hypothesis":"A rotating speckle target should reveal mechanical backlash through phase discontinuities of its correlation signal.","prediction":"A rotating speckle target should reveal mechanical backlash through phase discontinuities of its correlation signal.","test":"Introduce calibrated backlash.","contrary_outcome":"Discontinuities reflect illumination drift instead.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0167","id":"S4-0167","volume":"900v4","title":"A flexible shadow mask should encode local curvature through changes in penumbra width.","prediction":"A flexible shadow mask should encode local curvature through changes in penumbra width.","test":"Bend known shapes.","contrary":"Penumbra depends mainly on source distance.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0167","hypothesis":"A flexible shadow mask should encode local curvature through changes in penumbra width.","prediction":"A flexible shadow mask should encode local curvature through changes in penumbra width.","test":"Bend known shapes.","contrary_outcome":"Penumbra depends mainly on source distance.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0168","id":"S4-0168","volume":"900v4","title":"A passive optical cavity should detect a fluid leak through delayed recovery after a controlled pressure step.","prediction":"A passive optical cavity should detect a fluid leak through delayed recovery after a controlled pressure step.","test":"Introduce calibrated leaks.","contrary":"Recovery cannot separate leakage from thermal drift.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0168","hypothesis":"A passive optical cavity should detect a fluid leak through delayed recovery after a controlled pressure step.","prediction":"A passive optical cavity should detect a fluid leak through delayed recovery after a controlled pressure step.","test":"Introduce calibrated leaks.","contrary_outcome":"Recovery cannot separate leakage from thermal drift.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0169","id":"S4-0169","volume":"900v4","title":"A folded optical lever should amplify displacement while preserving a compact detector spot excursion.","prediction":"A folded optical lever should amplify displacement while preserving a compact detector spot excursion.","test":"Measure sensitivity and range.","contrary":"Amplification forces equal range loss.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0169","hypothesis":"A folded optical lever should amplify displacement while preserving a compact detector spot excursion.","prediction":"A folded optical lever should amplify displacement while preserving a compact detector spot excursion.","test":"Measure sensitivity and range.","contrary_outcome":"Amplification forces equal range loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0169","hypothesis":"A folded optical lever should amplify displacement while preserving a compact detector spot excursion.","prediction":"A folded optical lever should amplify displacement while preserving a compact detector spot excursion.","test":"Measure sensitivity and range.","contrary_outcome":"Amplification forces equal range loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":26,"query":"A folded optical lever amplify displacement while preserving a compact detector spot excursion. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure sensitivity and range."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0170","id":"S4-0170","volume":"900v4","title":"A patterned reflective sphere should estimate three-axis orientation from a single reflected light field.","prediction":"A patterned reflective sphere should estimate three-axis orientation from a single reflected light field.","test":"Calibrate known orientations.","contrary":"Symmetries create irreducible ambiguity.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0170","hypothesis":"A patterned reflective sphere should estimate three-axis orientation from a single reflected light field.","prediction":"A patterned reflective sphere should estimate three-axis orientation from a single reflected light field.","test":"Calibrate known orientations.","contrary_outcome":"Symmetries create irreducible ambiguity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0171","id":"S4-0171","volume":"900v4","title":"A liquid meniscus array should equalize focal lengths through shared pressure despite fabrication variation.","prediction":"A liquid meniscus array should equalize focal lengths through shared pressure despite fabrication variation.","test":"Measure lens focal distribution.","contrary":"Geometry variation dominates shared pressure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0171","hypothesis":"A liquid meniscus array should equalize focal lengths through shared pressure despite fabrication variation.","prediction":"A liquid meniscus array should equalize focal lengths through shared pressure despite fabrication variation.","test":"Measure lens focal distribution.","contrary_outcome":"Geometry variation dominates shared pressure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0172","id":"S4-0172","volume":"900v4","title":"A mechanically gated optical channel should reject slowly drifting stray light while passing rapid sample modulation.","prediction":"A mechanically gated optical channel should reject slowly drifting stray light while passing rapid sample modulation.","test":"Measure signal-to-background.","contrary":"Gate attenuates desired modulation equally.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0172","hypothesis":"A mechanically gated optical channel should reject slowly drifting stray light while passing rapid sample modulation.","prediction":"A mechanically gated optical channel should reject slowly drifting stray light while passing rapid sample modulation.","test":"Measure signal-to-background.","contrary_outcome":"Gate attenuates desired modulation equally.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0173","id":"S4-0173","volume":"900v4","title":"A transparent soft contact should reveal incipient slip through a moving fringe front before gross motion.","prediction":"A transparent soft contact should reveal incipient slip through a moving fringe front before gross motion.","test":"Measure force and optical fringes.","contrary":"Front appears only after slip.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0173","hypothesis":"A transparent soft contact should reveal incipient slip through a moving fringe front before gross motion.","prediction":"A transparent soft contact should reveal incipient slip through a moving fringe front before gross motion.","test":"Measure force and optical fringes.","contrary_outcome":"Front appears only after slip.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0174","id":"S4-0174","volume":"900v4","title":"A rotating filter wheel should estimate source drift during a spectral scan by interleaved repeated reference sectors.","prediction":"A rotating filter wheel should estimate source drift during a spectral scan by interleaved repeated reference sectors.","test":"Test drifting sources.","contrary":"Correction fails for realistic drift rates.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0174","hypothesis":"A rotating filter wheel should estimate source drift during a spectral scan by interleaved repeated reference sectors.","prediction":"A rotating filter wheel should estimate source drift during a spectral scan by interleaved repeated reference sectors.","test":"Test drifting sources.","contrary_outcome":"Correction fails for realistic drift rates.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0175","id":"S4-0175","volume":"900v4","title":"A passive optical strain loop should detect strain concentration through loss of rotational symmetry in its diffraction field.","prediction":"A passive optical strain loop should detect strain concentration through loss of rotational symmetry in its diffraction field.","test":"Apply localized loads.","contrary":"Pattern changes are not concentration-specific.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0175","hypothesis":"A passive optical strain loop should detect strain concentration through loss of rotational symmetry in its diffraction field.","prediction":"A passive optical strain loop should detect strain concentration through loss of rotational symmetry in its diffraction field.","test":"Apply localized loads.","contrary_outcome":"Pattern changes are not concentration-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0176","id":"S4-0176","volume":"900v4","title":"A compliant prism holder should preserve optical path length during small lateral translations.","prediction":"A compliant prism holder should preserve optical path length during small lateral translations.","test":"Measure phase and position.","contrary":"Path-length error remains linear in translation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0176","hypothesis":"A compliant prism holder should preserve optical path length during small lateral translations.","prediction":"A compliant prism holder should preserve optical path length during small lateral translations.","test":"Measure phase and position.","contrary_outcome":"Path-length error remains linear in translation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0177","id":"S4-0177","volume":"900v4","title":"A capillary display should record the sign of a temperature gradient through opposite branch wetting.","prediction":"A capillary display should record the sign of a temperature gradient through opposite branch wetting.","test":"Reverse controlled gradients.","contrary":"Branch selection does not reverse.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0177","hypothesis":"A capillary display should record the sign of a temperature gradient through opposite branch wetting.","prediction":"A capillary display should record the sign of a temperature gradient through opposite branch wetting.","test":"Reverse controlled gradients.","contrary_outcome":"Branch selection does not reverse.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0178","id":"S4-0178","volume":"900v4","title":"A shadow sensor should estimate particle aspect ratio from two timed orthogonal projections.","prediction":"A shadow sensor should estimate particle aspect ratio from two timed orthogonal projections.","test":"Pass calibrated inert shapes.","contrary":"Rotation makes aspect ratio ambiguous.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0178","hypothesis":"A shadow sensor should estimate particle aspect ratio from two timed orthogonal projections.","prediction":"A shadow sensor should estimate particle aspect ratio from two timed orthogonal projections.","test":"Pass calibrated inert shapes.","contrary_outcome":"Rotation makes aspect ratio ambiguous.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0179","id":"S4-0179","volume":"900v4","title":"A mechanically strained diffuser should switch scattering anisotropy reversibly.","prediction":"A mechanically strained diffuser should switch scattering anisotropy reversibly.","test":"Measure angular distributions through cycles.","contrary":"Anisotropy does not follow strain.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0179","hypothesis":"A mechanically strained diffuser should switch scattering anisotropy reversibly.","prediction":"A mechanically strained diffuser should switch scattering anisotropy reversibly.","test":"Measure angular distributions through cycles.","contrary_outcome":"Anisotropy does not follow strain.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0180","id":"S4-0180","volume":"900v4","title":"A passive optical alignment sleeve should center an inserted lens through sequential three-point contact.","prediction":"A passive optical alignment sleeve should center an inserted lens through sequential three-point contact.","test":"Measure decentering versus insertion depth.","contrary":"Contacts lock the lens off-center.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0180","hypothesis":"A passive optical alignment sleeve should center an inserted lens through sequential three-point contact.","prediction":"A passive optical alignment sleeve should center an inserted lens through sequential three-point contact.","test":"Measure decentering versus insertion depth.","contrary_outcome":"Contacts lock the lens off-center.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0181","id":"S4-0181","volume":"900v4","title":"A liquid-prism balance should compare two small pressures through a differential image displacement.","prediction":"A liquid-prism balance should compare two small pressures through a differential image displacement.","test":"Apply known pressure pairs.","contrary":"Common pressure shifts dominate the signal.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0181","hypothesis":"A liquid-prism balance should compare two small pressures through a differential image displacement.","prediction":"A liquid-prism balance should compare two small pressures through a differential image displacement.","test":"Apply known pressure pairs.","contrary_outcome":"Common pressure shifts dominate the signal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0182","id":"S4-0182","volume":"900v4","title":"A folded diffraction strip should expose uneven tensile loading through asymmetric order splitting.","prediction":"A folded diffraction strip should expose uneven tensile loading through asymmetric order splitting.","test":"Apply calibrated load distributions.","contrary":"Splitting cannot distinguish uneven load from bending.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0182","hypothesis":"A folded diffraction strip should expose uneven tensile loading through asymmetric order splitting.","prediction":"A folded diffraction strip should expose uneven tensile loading through asymmetric order splitting.","test":"Apply calibrated load distributions.","contrary_outcome":"Splitting cannot distinguish uneven load from bending.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0183","id":"S4-0183","volume":"900v4","title":"A rotating optical cavity should estimate surface reflectance from decay timing while averaging spatial defects.","prediction":"A rotating optical cavity should estimate surface reflectance from decay timing while averaging spatial defects.","test":"Test known coatings.","contrary":"Rotation adds timing artifacts larger than the benefit.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0183","hypothesis":"A rotating optical cavity should estimate surface reflectance from decay timing while averaging spatial defects.","prediction":"A rotating optical cavity should estimate surface reflectance from decay timing while averaging spatial defects.","test":"Test known coatings.","contrary_outcome":"Rotation adds timing artifacts larger than the benefit.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0184","id":"S4-0184","volume":"900v4","title":"A compliant optical window should reduce stress birefringence through a sliding perimeter support.","prediction":"A compliant optical window should reduce stress birefringence through a sliding perimeter support.","test":"Measure polarization distortion under pressure.","contrary":"Sliding does not reduce birefringence.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0184","hypothesis":"A compliant optical window should reduce stress birefringence through a sliding perimeter support.","prediction":"A compliant optical window should reduce stress birefringence through a sliding perimeter support.","test":"Measure polarization distortion under pressure.","contrary_outcome":"Sliding does not reduce birefringence.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0184","hypothesis":"A compliant optical window should reduce stress birefringence through a sliding perimeter support.","prediction":"A compliant optical window should reduce stress birefringence through a sliding perimeter support.","test":"Measure polarization distortion under pressure.","contrary_outcome":"Sliding does not reduce birefringence.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":27,"query":"A compliant optical window reduce stress birefringence through a sliding perimeter support. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure polarization distortion under pressure."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0185","id":"S4-0185","volume":"900v4","title":"A passive image stabilizer should cancel support roll through a gravity-biased prism.","prediction":"A passive image stabilizer should cancel support roll through a gravity-biased prism.","test":"Measure image rotation during slow roll.","contrary":"Prism friction prevents compensation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0185","hypothesis":"A passive image stabilizer should cancel support roll through a gravity-biased prism.","prediction":"A passive image stabilizer should cancel support roll through a gravity-biased prism.","test":"Measure image rotation during slow roll.","contrary_outcome":"Prism friction prevents compensation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0186","id":"S4-0186","volume":"900v4","title":"A capillary film should preserve an optical fiducial during temporary surface drying through a protected liquid reservoir.","prediction":"A capillary film should preserve an optical fiducial during temporary surface drying through a protected liquid reservoir.","test":"Cycle drying.","contrary":"Fiducial disappears irreversibly.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0186","hypothesis":"A capillary film should preserve an optical fiducial during temporary surface drying through a protected liquid reservoir.","prediction":"A capillary film should preserve an optical fiducial during temporary surface drying through a protected liquid reservoir.","test":"Cycle drying.","contrary_outcome":"Fiducial disappears irreversibly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0187","id":"S4-0187","volume":"900v4","title":"A vibrating grating should resolve two nearby wavelengths through differential modulation phase.","prediction":"A vibrating grating should resolve two nearby wavelengths through differential modulation phase.","test":"Test calibrated spectral pairs.","contrary":"Phases remain indistinguishable.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0187","hypothesis":"A vibrating grating should resolve two nearby wavelengths through differential modulation phase.","prediction":"A vibrating grating should resolve two nearby wavelengths through differential modulation phase.","test":"Test calibrated spectral pairs.","contrary_outcome":"Phases remain indistinguishable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0188","id":"S4-0188","volume":"900v4","title":"A transparent contact pad should estimate normal load from enclosed-air fringe area without needing uniform illumination.","prediction":"A transparent contact pad should estimate normal load from enclosed-air fringe area without needing uniform illumination.","test":"Calibrate force under brightness changes.","contrary":"Fringe area remains intensity-dependent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0188","hypothesis":"A transparent contact pad should estimate normal load from enclosed-air fringe area without needing uniform illumination.","prediction":"A transparent contact pad should estimate normal load from enclosed-air fringe area without needing uniform illumination.","test":"Calibrate force under brightness changes.","contrary_outcome":"Fringe area remains intensity-dependent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0189","id":"S4-0189","volume":"900v4","title":"A mechanically switched optical path should expose detector nonlinearity through equal-path signal sums.","prediction":"A mechanically switched optical path should expose detector nonlinearity through equal-path signal sums.","test":"Measure calibrated intensity combinations.","contrary":"Switching artifacts obscure nonlinearity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0189","hypothesis":"A mechanically switched optical path should expose detector nonlinearity through equal-path signal sums.","prediction":"A mechanically switched optical path should expose detector nonlinearity through equal-path signal sums.","test":"Measure calibrated intensity combinations.","contrary_outcome":"Switching artifacts obscure nonlinearity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0190","id":"S4-0190","volume":"900v4","title":"A passive optical wedge sensor should distinguish an adhered particle from a scratch through response to small sample rotation.","prediction":"A passive optical wedge sensor should distinguish an adhered particle from a scratch through response to small sample rotation.","test":"Test known defects.","contrary":"Rotation signatures overlap.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0190","hypothesis":"A passive optical wedge sensor should distinguish an adhered particle from a scratch through response to small sample rotation.","prediction":"A passive optical wedge sensor should distinguish an adhered particle from a scratch through response to small sample rotation.","test":"Test known defects.","contrary_outcome":"Rotation signatures overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0191","id":"S4-0191","volume":"900v4","title":"A floating optical reference should follow liquid level while rejecting surface waves through distributed buoyancy.","prediction":"A floating optical reference should follow liquid level while rejecting surface waves through distributed buoyancy.","test":"Measure height spectra.","contrary":"Wave rejection causes excessive level lag.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0191","hypothesis":"A floating optical reference should follow liquid level while rejecting surface waves through distributed buoyancy.","prediction":"A floating optical reference should follow liquid level while rejecting surface waves through distributed buoyancy.","test":"Measure height spectra.","contrary_outcome":"Wave rejection causes excessive level lag.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0192","id":"S4-0192","volume":"900v4","title":"A flexible diffraction ribbon should estimate torsion direction even after partial surface damage.","prediction":"A flexible diffraction ribbon should estimate torsion direction even after partial surface damage.","test":"Damage known sectors.","contrary":"Direction becomes ambiguous.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0192","hypothesis":"A flexible diffraction ribbon should estimate torsion direction even after partial surface damage.","prediction":"A flexible diffraction ribbon should estimate torsion direction even after partial surface damage.","test":"Damage known sectors.","contrary_outcome":"Direction becomes ambiguous.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0193","id":"S4-0193","volume":"900v4","title":"A rotating aperture should measure droplet fall speed from harmonic timing without knowing optical contrast.","prediction":"A rotating aperture should measure droplet fall speed from harmonic timing without knowing optical contrast.","test":"Compare against high-speed tracking.","contrary":"Contrast variation biases speed.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0193","hypothesis":"A rotating aperture should measure droplet fall speed from harmonic timing without knowing optical contrast.","prediction":"A rotating aperture should measure droplet fall speed from harmonic timing without knowing optical contrast.","test":"Compare against high-speed tracking.","contrary_outcome":"Contrast variation biases speed.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0194","id":"S4-0194","volume":"900v4","title":"A capillary window should reduce condensation fog by collecting droplets into an optically inactive edge channel.","prediction":"A capillary window should reduce condensation fog by collecting droplets into an optically inactive edge channel.","test":"Measure central transmission.","contrary":"Droplets remain in the active region.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0194","hypothesis":"A capillary window should reduce condensation fog by collecting droplets into an optically inactive edge channel.","prediction":"A capillary window should reduce condensation fog by collecting droplets into an optically inactive edge channel.","test":"Measure central transmission.","contrary_outcome":"Droplets remain in the active region.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0195","id":"S4-0195","volume":"900v4","title":"A compliant reflective dome should magnify small pressure differences through a change in focal distance.","prediction":"A compliant reflective dome should magnify small pressure differences through a change in focal distance.","test":"Calibrate pressure-focus response.","contrary":"Instability prevents monotonic calibration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0195","hypothesis":"A compliant reflective dome should magnify small pressure differences through a change in focal distance.","prediction":"A compliant reflective dome should magnify small pressure differences through a change in focal distance.","test":"Calibrate pressure-focus response.","contrary_outcome":"Instability prevents monotonic calibration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0196","id":"S4-0196","volume":"900v4","title":"A passive optical path should reveal a hidden air inclusion through an asymmetric response to pressure cycling.","prediction":"A passive optical path should reveal a hidden air inclusion through an asymmetric response to pressure cycling.","test":"Test known inclusions.","contrary":"Response matches inclusion-free controls.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0196","hypothesis":"A passive optical path should reveal a hidden air inclusion through an asymmetric response to pressure cycling.","prediction":"A passive optical path should reveal a hidden air inclusion through an asymmetric response to pressure cycling.","test":"Test known inclusions.","contrary_outcome":"Response matches inclusion-free controls.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0197","id":"S4-0197","volume":"900v4","title":"A mechanically coupled grating pair should compensate humidity-induced swelling while preserving tensile sensitivity.","prediction":"A mechanically coupled grating pair should compensate humidity-induced swelling while preserving tensile sensitivity.","test":"Calibrate humidity and strain.","contrary":"Compensation removes useful strain response.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0197","hypothesis":"A mechanically coupled grating pair should compensate humidity-induced swelling while preserving tensile sensitivity.","prediction":"A mechanically coupled grating pair should compensate humidity-induced swelling while preserving tensile sensitivity.","test":"Calibrate humidity and strain.","contrary_outcome":"Compensation removes useful strain response.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0198","id":"S4-0198","volume":"900v4","title":"A transparent shear cell should expose wall slip through different motion of surface and interior optical markers.","prediction":"A transparent shear cell should expose wall slip through different motion of surface and interior optical markers.","test":"Measure controlled slip.","contrary":"Marker motion cannot resolve the difference.","layers":[1,2],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0198","hypothesis":"A transparent shear cell should expose wall slip through different motion of surface and interior optical markers.","prediction":"A transparent shear cell should expose wall slip through different motion of surface and interior optical markers.","test":"Measure controlled slip.","contrary_outcome":"Marker motion cannot resolve the difference.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0198","hypothesis":"A transparent shear cell should expose wall slip through different motion of surface and interior optical markers.","prediction":"A transparent shear cell should expose wall slip through different motion of surface and interior optical markers.","test":"Measure controlled slip.","contrary_outcome":"Marker motion cannot resolve the difference.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":28,"query":"A transparent shear cell expose wall slip through different motion of surface and interior optical markers. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure controlled slip."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0199","id":"S4-0199","volume":"900v4","title":"A rotating optical baffle should reduce angle-dependent stray reflections without reducing target throughput proportionally.","prediction":"A rotating optical baffle should reduce angle-dependent stray reflections without reducing target throughput proportionally.","test":"Measure both paths.","contrary":"Throughput loss erases the benefit.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0199","hypothesis":"A rotating optical baffle should reduce angle-dependent stray reflections without reducing target throughput proportionally.","prediction":"A rotating optical baffle should reduce angle-dependent stray reflections without reducing target throughput proportionally.","test":"Measure both paths.","contrary_outcome":"Throughput loss erases the benefit.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0200","id":"S4-0200","volume":"900v4","title":"A flexible optical scale should retain absolute position decoding after one local tear through redundant unequal marks.","prediction":"A flexible optical scale should retain absolute position decoding after one local tear through redundant unequal marks.","test":"Cut known regions.","contrary":"Decoding becomes ambiguous.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0200","hypothesis":"A flexible optical scale should retain absolute position decoding after one local tear through redundant unequal marks.","prediction":"A flexible optical scale should retain absolute position decoding after one local tear through redundant unequal marks.","test":"Cut known regions.","contrary_outcome":"Decoding becomes ambiguous.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0201","id":"S4-0201","volume":"900v4","title":"A prestressed perforated sheet should divert a growing tear around a protected central region.","prediction":"A prestressed perforated sheet should divert a growing tear around a protected central region.","test":"Track cracks under controlled tension.","contrary":"Cracks cross the protected region equally often.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0201","hypothesis":"A prestressed perforated sheet should divert a growing tear around a protected central region.","prediction":"A prestressed perforated sheet should divert a growing tear around a protected central region.","test":"Track cracks under controlled tension.","contrary_outcome":"Cracks cross the protected region equally often.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0202","id":"S4-0202","volume":"900v4","title":"A woven laminate should arrest delamination when transverse loops tighten under separation.","prediction":"A woven laminate should arrest delamination when transverse loops tighten under separation.","test":"Measure crack length and loop tension.","contrary":"Loops fail to arrest growth.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0202","hypothesis":"A woven laminate should arrest delamination when transverse loops tighten under separation.","prediction":"A woven laminate should arrest delamination when transverse loops tighten under separation.","test":"Measure crack length and loop tension.","contrary_outcome":"Loops fail to arrest growth.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0203","id":"S4-0203","volume":"900v4","title":"A hollow strut should retain load after local crushing through outward deployment of an internal fold.","prediction":"A hollow strut should retain load after local crushing through outward deployment of an internal fold.","test":"Compress instrumented struts.","contrary":"Fold deployment causes global collapse.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0203","hypothesis":"A hollow strut should retain load after local crushing through outward deployment of an internal fold.","prediction":"A hollow strut should retain load after local crushing through outward deployment of an internal fold.","test":"Compress instrumented struts.","contrary_outcome":"Fold deployment causes global collapse.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0203","hypothesis":"A hollow strut should retain load after local crushing through outward deployment of an internal fold.","prediction":"A hollow strut should retain load after local crushing through outward deployment of an internal fold.","test":"Compress instrumented struts.","contrary_outcome":"Fold deployment causes global collapse.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":29,"query":"A hollow strut retain load after local crushing through outward deployment of an internal fold. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Compress instrumented struts."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0204","id":"S4-0204","volume":"900v4","title":"A smooth stiffness gradient should reduce reflected stress pulses at a rigid-soft junction.","prediction":"A smooth stiffness gradient should reduce reflected stress pulses at a rigid-soft junction.","test":"Measure wave amplitudes.","contrary":"Reflection equals an abrupt junction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0204","hypothesis":"A smooth stiffness gradient should reduce reflected stress pulses at a rigid-soft junction.","prediction":"A smooth stiffness gradient should reduce reflected stress pulses at a rigid-soft junction.","test":"Measure wave amplitudes.","contrary_outcome":"Reflection equals an abrupt junction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0205","id":"S4-0205","volume":"900v4","title":"A layered elastic strip should reveal a buried debond through a reversal of surface curvature under bending.","prediction":"A layered elastic strip should reveal a buried debond through a reversal of surface curvature under bending.","test":"Image known defects.","contrary":"Curvature sign is not defect-specific.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0205","hypothesis":"A layered elastic strip should reveal a buried debond through a reversal of surface curvature under bending.","prediction":"A layered elastic strip should reveal a buried debond through a reversal of surface curvature under bending.","test":"Image known defects.","contrary_outcome":"Curvature sign is not defect-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0206","id":"S4-0206","volume":"900v4","title":"A notched lattice should transfer overload into a replaceable sacrificial path before its precision core deforms.","prediction":"A notched lattice should transfer overload into a replaceable sacrificial path before its precision core deforms.","test":"Measure path forces.","contrary":"Core deformation begins first.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0206","hypothesis":"A notched lattice should transfer overload into a replaceable sacrificial path before its precision core deforms.","prediction":"A notched lattice should transfer overload into a replaceable sacrificial path before its precision core deforms.","test":"Measure path forces.","contrary_outcome":"Core deformation begins first.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0207","id":"S4-0207","volume":"900v4","title":"A braided shell should resist crack opening by rotating fibers into the tensile direction.","prediction":"A braided shell should resist crack opening by rotating fibers into the tensile direction.","test":"Track fiber angle and crack width.","contrary":"Rotation does not restrain opening.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0207","hypothesis":"A braided shell should resist crack opening by rotating fibers into the tensile direction.","prediction":"A braided shell should resist crack opening by rotating fibers into the tensile direction.","test":"Track fiber angle and crack width.","contrary_outcome":"Rotation does not restrain opening.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0208","id":"S4-0208","volume":"900v4","title":"A corrugated plate should recover from indentation through sequential ridge inversion.","prediction":"A corrugated plate should recover from indentation through sequential ridge inversion.","test":"Measure residual shape.","contrary":"Inversions remain permanently trapped.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0208","hypothesis":"A corrugated plate should recover from indentation through sequential ridge inversion.","prediction":"A corrugated plate should recover from indentation through sequential ridge inversion.","test":"Measure residual shape.","contrary_outcome":"Inversions remain permanently trapped.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0209","id":"S4-0209","volume":"900v4","title":"A compliant interface should reduce fretting wear by converting sliding into distributed elastic shear.","prediction":"A compliant interface should reduce fretting wear by converting sliding into distributed elastic shear.","test":"Measure wear and local motion.","contrary":"Wear is unchanged at matched load.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0209","hypothesis":"A compliant interface should reduce fretting wear by converting sliding into distributed elastic shear.","prediction":"A compliant interface should reduce fretting wear by converting sliding into distributed elastic shear.","test":"Measure wear and local motion.","contrary_outcome":"Wear is unchanged at matched load.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0210","id":"S4-0210","volume":"900v4","title":"A patterned void array should make an impact pulse split into two delayed arrivals.","prediction":"A patterned void array should make an impact pulse split into two delayed arrivals.","test":"Measure transmitted waveforms.","contrary":"Only one broadened pulse appears.","layers":[1,2,3],"categories":["physical","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0210","hypothesis":"A patterned void array should make an impact pulse split into two delayed arrivals.","prediction":"A patterned void array should make an impact pulse split into two delayed arrivals.","test":"Measure transmitted waveforms.","contrary_outcome":"Only one broadened pulse appears.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0210","hypothesis":"A patterned void array should make an impact pulse split into two delayed arrivals.","prediction":"A patterned void array should make an impact pulse split into two delayed arrivals.","test":"Measure transmitted waveforms.","contrary_outcome":"Only one broadened pulse appears.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":3,"query":"A patterned void array make an impact pulse split into two delayed arrivals. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure transmitted waveforms."},"dossier":{"id":"S4-0210","title":"Void-array pulse splitting","why_selected":"Two distinct arrivals and their energy content can be measured directly; the strongest model prediction is separable from claims about a fabricated lattice.","sources":[{"title":"Focusing and Mode Separation of Elastic Vector Solitons in a 2D Soft Mechanical Metamaterial","url":"https://journals.aps.org/prl/abstract/10.1103/PhysRevLett.123.024101","access":"Primary publisher abstract read","finding":"Deng and colleagues report experimental, numerical, and analytical pulse-mode separation in a soft mechanical metamaterial. This establishes closely related prior art and does not verify the proposed void geometry or two-arrival timing."}],"design":"Fabricate elastic strips containing a designed void region that creates two mechanically coupled propagation routes. Launch a reproducible low-energy impact and measure full-field displacement or multiple accelerometers before and after the region. Compare at least five independent specimens with a solid strip and a mass-matched nonbranching void control.","endpoints":"Primary: separation between two identifiable arrival peaks divided by input pulse width. Secondary: energy in each arrival, transmitted energy, and reproducibility. Predefine a split as two peaks each exceeding a noise-based energy threshold, separated by more than the instrument impulse width.","controls":"Solid strip; equal-mass geometry; reversed launch direction; multiple pulse amplitudes; support-reflection timing; independent sensor impulse calibration. Verify that a second peak is not an end reflection.","conditional_analysis":"In an assumed linear two-path model y(t)=A1*f(t-t1)+A2*f(t-t2). Distinct arrivals can occur when |t2-t1| exceeds pulse duration and both amplitudes exceed noise. This expression follows from linear superposition, but it assumes paths and coupling coefficients that the void structure may not realize. Nonlinear solitons, dispersion, damping, and mode conversion require different models; the cited nonlinear lattice result cannot be imported as proof.","analysis_plan":"Estimate arrival windows from independently measured path speeds before inspecting the final output. Report raw waveforms and energy accounting, including lost or reflected energy. Reject the device claim if the apparent split disappears after reflection control or if one branch carries negligible energy.","limitations":"Unproved physical structure. The broad pulse-separation phenomenon is already published; no global novelty or original theorem claimed.","rank":3,"hypothesis":"A patterned void array should make an impact pulse split into two delayed arrivals.","status":"speculative; no physical data or proof"},"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0211","id":"S4-0211","volume":"900v4","title":"A folded beam should reveal accumulated plasticity through a changed order of crease activation.","prediction":"A folded beam should reveal accumulated plasticity through a changed order of crease activation.","test":"Cycle beyond yield and image.","contrary":"Activation order remains unchanged.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0211","hypothesis":"A folded beam should reveal accumulated plasticity through a changed order of crease activation.","prediction":"A folded beam should reveal accumulated plasticity through a changed order of crease activation.","test":"Cycle beyond yield and image.","contrary_outcome":"Activation order remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0212","id":"S4-0212","volume":"900v4","title":"A constrained foam should expand laterally into a reserve pocket and delay densification.","prediction":"A constrained foam should expand laterally into a reserve pocket and delay densification.","test":"Measure force and volume distribution.","contrary":"Reserve storage does not delay force rise.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0212","hypothesis":"A constrained foam should expand laterally into a reserve pocket and delay densification.","prediction":"A constrained foam should expand laterally into a reserve pocket and delay densification.","test":"Measure force and volume distribution.","contrary_outcome":"Reserve storage does not delay force rise.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0212","hypothesis":"A constrained foam should expand laterally into a reserve pocket and delay densification.","prediction":"A constrained foam should expand laterally into a reserve pocket and delay densification.","test":"Measure force and volume distribution.","contrary_outcome":"Reserve storage does not delay force rise.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":30,"query":"A constrained foam expand laterally into a reserve pocket and delay densification. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure force and volume distribution."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0213","id":"S4-0213","volume":"900v4","title":"A self-contacting lattice should suppress a propagating buckling front after a chosen strain.","prediction":"A self-contacting lattice should suppress a propagating buckling front after a chosen strain.","test":"Image compression.","contrary":"Front crosses contact region unimpeded.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0213","hypothesis":"A self-contacting lattice should suppress a propagating buckling front after a chosen strain.","prediction":"A self-contacting lattice should suppress a propagating buckling front after a chosen strain.","test":"Image compression.","contrary_outcome":"Front crosses contact region unimpeded.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0214","id":"S4-0214","volume":"900v4","title":"A prestressed cable web should redistribute a cut strand's load without cascading failure.","prediction":"A prestressed cable web should redistribute a cut strand's load without cascading failure.","test":"Cut controlled strands.","contrary":"Neighboring strands fail sequentially.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0214","hypothesis":"A prestressed cable web should redistribute a cut strand's load without cascading failure.","prediction":"A prestressed cable web should redistribute a cut strand's load without cascading failure.","test":"Cut controlled strands.","contrary_outcome":"Neighboring strands fail sequentially.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0215","id":"S4-0215","volume":"900v4","title":"A double-curved shell should concentrate recoverable strain away from a fragile mounted component.","prediction":"A double-curved shell should concentrate recoverable strain away from a fragile mounted component.","test":"Measure full-field strain.","contrary":"Mount remains the strain maximum.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0215","hypothesis":"A double-curved shell should concentrate recoverable strain away from a fragile mounted component.","prediction":"A double-curved shell should concentrate recoverable strain away from a fragile mounted component.","test":"Measure full-field strain.","contrary_outcome":"Mount remains the strain maximum.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0216","id":"S4-0216","volume":"900v4","title":"A rotating hinge array should tune wave speed without changing total mass.","prediction":"A rotating hinge array should tune wave speed without changing total mass.","test":"Measure travel times at fixed configurations.","contrary":"Travel time remains unchanged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0216","hypothesis":"A rotating hinge array should tune wave speed without changing total mass.","prediction":"A rotating hinge array should tune wave speed without changing total mass.","test":"Measure travel times at fixed configurations.","contrary_outcome":"Travel time remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0217","id":"S4-0217","volume":"900v4","title":"A porous elastic block should distinguish shear from compression through directional air expulsion.","prediction":"A porous elastic block should distinguish shear from compression through directional air expulsion.","test":"Measure outlet flows.","contrary":"Flow signatures overlap.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0217","hypothesis":"A porous elastic block should distinguish shear from compression through directional air expulsion.","prediction":"A porous elastic block should distinguish shear from compression through directional air expulsion.","test":"Measure outlet flows.","contrary_outcome":"Flow signatures overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0218","id":"S4-0218","volume":"900v4","title":"A layered spring should reduce creep by allowing reversible interlayer rolling.","prediction":"A layered spring should reduce creep by allowing reversible interlayer rolling.","test":"Measure long-term deflection.","contrary":"Rolling adds comparable creep.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0218","hypothesis":"A layered spring should reduce creep by allowing reversible interlayer rolling.","prediction":"A layered spring should reduce creep by allowing reversible interlayer rolling.","test":"Measure long-term deflection.","contrary_outcome":"Rolling adds comparable creep.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0219","id":"S4-0219","volume":"900v4","title":"A thin membrane should stop tear propagation when a slack boundary is recruited into tension.","prediction":"A thin membrane should stop tear propagation when a slack boundary is recruited into tension.","test":"Image tear and boundary motion.","contrary":"Recruitment accelerates the tear.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0219","hypothesis":"A thin membrane should stop tear propagation when a slack boundary is recruited into tension.","prediction":"A thin membrane should stop tear propagation when a slack boundary is recruited into tension.","test":"Image tear and boundary motion.","contrary_outcome":"Recruitment accelerates the tear.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0220","id":"S4-0220","volume":"900v4","title":"A reentrant lattice should retain shear stiffness while softening its axial response after contact release.","prediction":"A reentrant lattice should retain shear stiffness while softening its axial response after contact release.","test":"Measure stiffness tensor.","contrary":"Shear stiffness drops equally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0220","hypothesis":"A reentrant lattice should retain shear stiffness while softening its axial response after contact release.","prediction":"A reentrant lattice should retain shear stiffness while softening its axial response after contact release.","test":"Measure stiffness tensor.","contrary_outcome":"Shear stiffness drops equally.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0221","id":"S4-0221","volume":"900v4","title":"A hollow beam should reveal internal wall collapse through a new subharmonic vibration component.","prediction":"A hollow beam should reveal internal wall collapse through a new subharmonic vibration component.","test":"Compress and measure spectra.","contrary":"Subharmonic appears only after global failure.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0221","hypothesis":"A hollow beam should reveal internal wall collapse through a new subharmonic vibration component.","prediction":"A hollow beam should reveal internal wall collapse through a new subharmonic vibration component.","test":"Compress and measure spectra.","contrary_outcome":"Subharmonic appears only after global failure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0222","id":"S4-0222","volume":"900v4","title":"A graded hinge chain should localize deformation at a movable rather than fixed joint.","prediction":"A graded hinge chain should localize deformation at a movable rather than fixed joint.","test":"Change boundary constraints and image.","contrary":"The same joint always dominates.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0222","hypothesis":"A graded hinge chain should localize deformation at a movable rather than fixed joint.","prediction":"A graded hinge chain should localize deformation at a movable rather than fixed joint.","test":"Change boundary constraints and image.","contrary_outcome":"The same joint always dominates.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0223","id":"S4-0223","volume":"900v4","title":"A twisted shell should convert axial impact into distributed torsional deformation.","prediction":"A twisted shell should convert axial impact into distributed torsional deformation.","test":"Measure strain and axial force.","contrary":"Torsion fails to reduce force concentration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0223","hypothesis":"A twisted shell should convert axial impact into distributed torsional deformation.","prediction":"A twisted shell should convert axial impact into distributed torsional deformation.","test":"Measure strain and axial force.","contrary_outcome":"Torsion fails to reduce force concentration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0224","id":"S4-0224","volume":"900v4","title":"A loose interlayer should interrupt high-frequency stress transmission while preserving static stiffness.","prediction":"A loose interlayer should interrupt high-frequency stress transmission while preserving static stiffness.","test":"Measure dynamic and static transfer.","contrary":"Isolation requires large static compliance.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0224","hypothesis":"A loose interlayer should interrupt high-frequency stress transmission while preserving static stiffness.","prediction":"A loose interlayer should interrupt high-frequency stress transmission while preserving static stiffness.","test":"Measure dynamic and static transfer.","contrary_outcome":"Isolation requires large static compliance.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0225","id":"S4-0225","volume":"900v4","title":"A corrugated seal support should maintain contact after local edge damage through neighboring-ridge recruitment.","prediction":"A corrugated seal support should maintain contact after local edge damage through neighboring-ridge recruitment.","test":"Measure leak pressure.","contrary":"Damage creates an unrecoverable leak.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0225","hypothesis":"A corrugated seal support should maintain contact after local edge damage through neighboring-ridge recruitment.","prediction":"A corrugated seal support should maintain contact after local edge damage through neighboring-ridge recruitment.","test":"Measure leak pressure.","contrary_outcome":"Damage creates an unrecoverable leak.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0225","hypothesis":"A corrugated seal support should maintain contact after local edge damage through neighboring-ridge recruitment.","prediction":"A corrugated seal support should maintain contact after local edge damage through neighboring-ridge recruitment.","test":"Measure leak pressure.","contrary_outcome":"Damage creates an unrecoverable leak.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":31,"query":"A corrugated seal support maintain contact after local edge damage through neighboring-ridge recruitment. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure leak pressure."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0226","id":"S4-0226","volume":"900v4","title":"A woven tube should resist kinking by shifting braid crossings before wall collapse.","prediction":"A woven tube should resist kinking by shifting braid crossings before wall collapse.","test":"Image bending.","contrary":"Crossing motion does not delay kinking.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0226","hypothesis":"A woven tube should resist kinking by shifting braid crossings before wall collapse.","prediction":"A woven tube should resist kinking by shifting braid crossings before wall collapse.","test":"Image bending.","contrary_outcome":"Crossing motion does not delay kinking.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0227","id":"S4-0227","volume":"900v4","title":"A patterned compressible layer should equalize pressure beneath an uneven rigid plate.","prediction":"A patterned compressible layer should equalize pressure beneath an uneven rigid plate.","test":"Map contact force.","contrary":"Pressure remains concentrated at high spots.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0227","hypothesis":"A patterned compressible layer should equalize pressure beneath an uneven rigid plate.","prediction":"A patterned compressible layer should equalize pressure beneath an uneven rigid plate.","test":"Map contact force.","contrary_outcome":"Pressure remains concentrated at high spots.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0228","id":"S4-0228","volume":"900v4","title":"A prestressed arch array should show a reproducible energy gap between isolated and collective snapping.","prediction":"A prestressed arch array should show a reproducible energy gap between isolated and collective snapping.","test":"Measure snap work.","contrary":"Collective work equals independent sums.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0228","hypothesis":"A prestressed arch array should show a reproducible energy gap between isolated and collective snapping.","prediction":"A prestressed arch array should show a reproducible energy gap between isolated and collective snapping.","test":"Measure snap work.","contrary_outcome":"Collective work equals independent sums.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0229","id":"S4-0229","volume":"900v4","title":"A soft inclusion near a crack should blunt its tip through reversible cavity expansion.","prediction":"A soft inclusion near a crack should blunt its tip through reversible cavity expansion.","test":"Image tip shape.","contrary":"Expansion increases crack-tip concentration.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0229","hypothesis":"A soft inclusion near a crack should blunt its tip through reversible cavity expansion.","prediction":"A soft inclusion near a crack should blunt its tip through reversible cavity expansion.","test":"Image tip shape.","contrary_outcome":"Expansion increases crack-tip concentration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0230","id":"S4-0230","volume":"900v4","title":"A segmented protective layer should reduce damage by allowing neighboring segments to rotate out of plane.","prediction":"A segmented protective layer should reduce damage by allowing neighboring segments to rotate out of plane.","test":"Measure impact damage.","contrary":"Rotation exposes the substrate.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0230","hypothesis":"A segmented protective layer should reduce damage by allowing neighboring segments to rotate out of plane.","prediction":"A segmented protective layer should reduce damage by allowing neighboring segments to rotate out of plane.","test":"Measure impact damage.","contrary_outcome":"Rotation exposes the substrate.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0231","id":"S4-0231","volume":"900v4","title":"A folded annulus should absorb torsional overload through a traveling crease instead of one local hinge.","prediction":"A folded annulus should absorb torsional overload through a traveling crease instead of one local hinge.","test":"Image strain.","contrary":"Strain remains localized.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0231","hypothesis":"A folded annulus should absorb torsional overload through a traveling crease instead of one local hinge.","prediction":"A folded annulus should absorb torsional overload through a traveling crease instead of one local hinge.","test":"Image strain.","contrary_outcome":"Strain remains localized.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0232","id":"S4-0232","volume":"900v4","title":"A porous elastomer should recover thickness faster when decompression opens temporary air-return channels.","prediction":"A porous elastomer should recover thickness faster when decompression opens temporary air-return channels.","test":"Measure rebound time.","contrary":"Channels provide no recovery advantage.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0232","hypothesis":"A porous elastomer should recover thickness faster when decompression opens temporary air-return channels.","prediction":"A porous elastomer should recover thickness faster when decompression opens temporary air-return channels.","test":"Measure rebound time.","contrary_outcome":"Channels provide no recovery advantage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0233","id":"S4-0233","volume":"900v4","title":"A curved laminated beam should indicate bond degradation through altered twist-bend coupling.","prediction":"A curved laminated beam should indicate bond degradation through altered twist-bend coupling.","test":"Control bond area and measure response.","contrary":"Coupling remains insensitive.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0233","hypothesis":"A curved laminated beam should indicate bond degradation through altered twist-bend coupling.","prediction":"A curved laminated beam should indicate bond degradation through altered twist-bend coupling.","test":"Control bond area and measure response.","contrary_outcome":"Coupling remains insensitive.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0234","id":"S4-0234","volume":"900v4","title":"A lattice with sliding nodes should redistribute deformation under a moving load without residual drift.","prediction":"A lattice with sliding nodes should redistribute deformation under a moving load without residual drift.","test":"Track nodes over cycles.","contrary":"Nodes ratchet irreversibly.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0234","hypothesis":"A lattice with sliding nodes should redistribute deformation under a moving load without residual drift.","prediction":"A lattice with sliding nodes should redistribute deformation under a moving load without residual drift.","test":"Track nodes over cycles.","contrary_outcome":"Nodes ratchet irreversibly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0235","id":"S4-0235","volume":"900v4","title":"A hollow pad should retain cushioning after puncture through isolated fluid-free cells.","prediction":"A hollow pad should retain cushioning after puncture through isolated fluid-free cells.","test":"Puncture selected cells and impact.","contrary":"Cushioning collapses globally.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0235","hypothesis":"A hollow pad should retain cushioning after puncture through isolated fluid-free cells.","prediction":"A hollow pad should retain cushioning after puncture through isolated fluid-free cells.","test":"Puncture selected cells and impact.","contrary_outcome":"Cushioning collapses globally.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0236","id":"S4-0236","volume":"900v4","title":"A tensioned sheet should suppress wrinkles when local edge guides permit controlled tangential sliding.","prediction":"A tensioned sheet should suppress wrinkles when local edge guides permit controlled tangential sliding.","test":"Image wrinkle amplitude.","contrary":"Sliding increases wrinkling.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0236","hypothesis":"A tensioned sheet should suppress wrinkles when local edge guides permit controlled tangential sliding.","prediction":"A tensioned sheet should suppress wrinkles when local edge guides permit controlled tangential sliding.","test":"Image wrinkle amplitude.","contrary_outcome":"Sliding increases wrinkling.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0237","id":"S4-0237","volume":"900v4","title":"A spring network should display a measurable directional wave-speed difference after asymmetric prestressing.","prediction":"A spring network should display a measurable directional wave-speed difference after asymmetric prestressing.","test":"Measure bidirectional pulses.","contrary":"Difference vanishes after correcting tension.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0237","hypothesis":"A spring network should display a measurable directional wave-speed difference after asymmetric prestressing.","prediction":"A spring network should display a measurable directional wave-speed difference after asymmetric prestressing.","test":"Measure bidirectional pulses.","contrary_outcome":"Difference vanishes after correcting tension.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0237","hypothesis":"A spring network should display a measurable directional wave-speed difference after asymmetric prestressing.","prediction":"A spring network should display a measurable directional wave-speed difference after asymmetric prestressing.","test":"Measure bidirectional pulses.","contrary_outcome":"Difference vanishes after correcting tension.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":32,"query":"A spring network display a measurable directional wave-speed difference after asymmetric prestressing. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure bidirectional pulses."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0238","id":"S4-0238","volume":"900v4","title":"A sacrificial folded collar should protect a reusable fastener from overload by unfolding first.","prediction":"A sacrificial folded collar should protect a reusable fastener from overload by unfolding first.","test":"Measure deformation sequence.","contrary":"Fastener yields before unfolding.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0238","hypothesis":"A sacrificial folded collar should protect a reusable fastener from overload by unfolding first.","prediction":"A sacrificial folded collar should protect a reusable fastener from overload by unfolding first.","test":"Measure deformation sequence.","contrary_outcome":"Fastener yields before unfolding.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0239","id":"S4-0239","volume":"900v4","title":"A granular-free damping layer should dissipate energy through reversible contact rearrangement of interlocking tiles.","prediction":"A granular-free damping layer should dissipate energy through reversible contact rearrangement of interlocking tiles.","test":"Measure cycles and tile motion.","contrary":"Dissipation requires permanent damage.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0239","hypothesis":"A granular-free damping layer should dissipate energy through reversible contact rearrangement of interlocking tiles.","prediction":"A granular-free damping layer should dissipate energy through reversible contact rearrangement of interlocking tiles.","test":"Measure cycles and tile motion.","contrary_outcome":"Dissipation requires permanent damage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0240","id":"S4-0240","volume":"900v4","title":"A curved crack stop should redirect a tear into a low-energy peripheral path.","prediction":"A curved crack stop should redirect a tear into a low-energy peripheral path.","test":"Image competing paths.","contrary":"Tear continues toward the protected interior.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0240","hypothesis":"A curved crack stop should redirect a tear into a low-energy peripheral path.","prediction":"A curved crack stop should redirect a tear into a low-energy peripheral path.","test":"Image competing paths.","contrary_outcome":"Tear continues toward the protected interior.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0241","id":"S4-0241","volume":"900v4","title":"A porous lattice should retain permeability under shear through coordinated cell rotation.","prediction":"A porous lattice should retain permeability under shear through coordinated cell rotation.","test":"Measure flow versus shear.","contrary":"Pores close rapidly.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0241","hypothesis":"A porous lattice should retain permeability under shear through coordinated cell rotation.","prediction":"A porous lattice should retain permeability under shear through coordinated cell rotation.","test":"Measure flow versus shear.","contrary_outcome":"Pores close rapidly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0242","id":"S4-0242","volume":"900v4","title":"A flexural wave should reveal an internal fluid pocket through a delayed dispersive tail.","prediction":"A flexural wave should reveal an internal fluid pocket through a delayed dispersive tail.","test":"Test known inclusions.","contrary":"Tail is indistinguishable from support reflections.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0242","hypothesis":"A flexural wave should reveal an internal fluid pocket through a delayed dispersive tail.","prediction":"A flexural wave should reveal an internal fluid pocket through a delayed dispersive tail.","test":"Test known inclusions.","contrary_outcome":"Tail is indistinguishable from support reflections.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0243","id":"S4-0243","volume":"900v4","title":"A mechanically locked fold should prevent creep-driven shape change under sustained load.","prediction":"A mechanically locked fold should prevent creep-driven shape change under sustained load.","test":"Measure long-term geometry.","contrary":"Locked folds drift equally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0243","hypothesis":"A mechanically locked fold should prevent creep-driven shape change under sustained load.","prediction":"A mechanically locked fold should prevent creep-driven shape change under sustained load.","test":"Measure long-term geometry.","contrary_outcome":"Locked folds drift equally.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0244","id":"S4-0244","volume":"900v4","title":"A perforated shell should distribute impact across a wider area when holes open by rotation.","prediction":"A perforated shell should distribute impact across a wider area when holes open by rotation.","test":"Map strain.","contrary":"Hole opening localizes damage.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0244","hypothesis":"A perforated shell should distribute impact across a wider area when holes open by rotation.","prediction":"A perforated shell should distribute impact across a wider area when holes open by rotation.","test":"Map strain.","contrary_outcome":"Hole opening localizes damage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0245","id":"S4-0245","volume":"900v4","title":"A compliant joint should convert assembly mismatch into harmless internal sliding rather than frame distortion.","prediction":"A compliant joint should convert assembly mismatch into harmless internal sliding rather than frame distortion.","test":"Measure alignment under offsets.","contrary":"Frame distortion remains unchanged.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0245","hypothesis":"A compliant joint should convert assembly mismatch into harmless internal sliding rather than frame distortion.","prediction":"A compliant joint should convert assembly mismatch into harmless internal sliding rather than frame distortion.","test":"Measure alignment under offsets.","contrary_outcome":"Frame distortion remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0246","id":"S4-0246","volume":"900v4","title":"A prestretched membrane should recover its original tension after local heating through a sliding perimeter reservoir.","prediction":"A prestretched membrane should recover its original tension after local heating through a sliding perimeter reservoir.","test":"Measure tension after cooling.","contrary":"Tension changes permanently.","layers":[1,2],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0246","hypothesis":"A prestretched membrane should recover its original tension after local heating through a sliding perimeter reservoir.","prediction":"A prestretched membrane should recover its original tension after local heating through a sliding perimeter reservoir.","test":"Measure tension after cooling.","contrary_outcome":"Tension changes permanently.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0246","hypothesis":"A prestretched membrane should recover its original tension after local heating through a sliding perimeter reservoir.","prediction":"A prestretched membrane should recover its original tension after local heating through a sliding perimeter reservoir.","test":"Measure tension after cooling.","contrary_outcome":"Tension changes permanently.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":33,"query":"A prestretched membrane recover its original tension after local heating through a sliding perimeter reservoir. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure tension after cooling."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0247","id":"S4-0247","volume":"900v4","title":"A hollow lattice should expose localized yielding through a visible change in cell aspect ratio.","prediction":"A hollow lattice should expose localized yielding through a visible change in cell aspect ratio.","test":"Load controlled regions.","contrary":"Aspect ratio is not yield-specific.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0247","hypothesis":"A hollow lattice should expose localized yielding through a visible change in cell aspect ratio.","prediction":"A hollow lattice should expose localized yielding through a visible change in cell aspect ratio.","test":"Load controlled regions.","contrary_outcome":"Aspect ratio is not yield-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0248","id":"S4-0248","volume":"900v4","title":"A folded strip should support two stable curvatures with nearly equal stored energy.","prediction":"A folded strip should support two stable curvatures with nearly equal stored energy.","test":"Measure snap work in both directions.","contrary":"Energy asymmetry remains large.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0248","hypothesis":"A folded strip should support two stable curvatures with nearly equal stored energy.","prediction":"A folded strip should support two stable curvatures with nearly equal stored energy.","test":"Measure snap work in both directions.","contrary_outcome":"Energy asymmetry remains large.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0249","id":"S4-0249","volume":"900v4","title":"A woven panel should attenuate an impact more strongly when crossings unlock sequentially.","prediction":"A woven panel should attenuate an impact more strongly when crossings unlock sequentially.","test":"Measure transmitted impulse.","contrary":"Unlocking occurs simultaneously or adds no attenuation.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0249","hypothesis":"A woven panel should attenuate an impact more strongly when crossings unlock sequentially.","prediction":"A woven panel should attenuate an impact more strongly when crossings unlock sequentially.","test":"Measure transmitted impulse.","contrary_outcome":"Unlocking occurs simultaneously or adds no attenuation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0250","id":"S4-0250","volume":"900v4","title":"A compressible rim should prevent a central membrane from striking a backing plate during overload.","prediction":"A compressible rim should prevent a central membrane from striking a backing plate during overload.","test":"Image gap and force.","contrary":"Central contact occurs first.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0250","hypothesis":"A compressible rim should prevent a central membrane from striking a backing plate during overload.","prediction":"A compressible rim should prevent a central membrane from striking a backing plate during overload.","test":"Image gap and force.","contrary_outcome":"Central contact occurs first.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0251","id":"S4-0251","volume":"900v4","title":"A tension-only brace network should recover stiffness after one slack cable retensions.","prediction":"A tension-only brace network should recover stiffness after one slack cable retensions.","test":"Measure load paths.","contrary":"Retensioning fails to restore stiffness.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0251","hypothesis":"A tension-only brace network should recover stiffness after one slack cable retensions.","prediction":"A tension-only brace network should recover stiffness after one slack cable retensions.","test":"Measure load paths.","contrary_outcome":"Retensioning fails to restore stiffness.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0252","id":"S4-0252","volume":"900v4","title":"A curved porous beam should expel trapped gas predictably during bending.","prediction":"A curved porous beam should expel trapped gas predictably during bending.","test":"Measure gas volume and curvature.","contrary":"Expulsion is history-dependent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0252","hypothesis":"A curved porous beam should expel trapped gas predictably during bending.","prediction":"A curved porous beam should expel trapped gas predictably during bending.","test":"Measure gas volume and curvature.","contrary_outcome":"Expulsion is history-dependent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0253","id":"S4-0253","volume":"900v4","title":"A slit shell should redistribute local pressure through edge opening without losing global stability.","prediction":"A slit shell should redistribute local pressure through edge opening without losing global stability.","test":"Measure shape and force.","contrary":"Opening triggers collapse.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0253","hypothesis":"A slit shell should redistribute local pressure through edge opening without losing global stability.","prediction":"A slit shell should redistribute local pressure through edge opening without losing global stability.","test":"Measure shape and force.","contrary_outcome":"Opening triggers collapse.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0254","id":"S4-0254","volume":"900v4","title":"A layered flexure should isolate rotation from translation through equal-and-opposite interlayer shear.","prediction":"A layered flexure should isolate rotation from translation through equal-and-opposite interlayer shear.","test":"Measure motion matrix.","contrary":"Cross-coupling remains large.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0254","hypothesis":"A layered flexure should isolate rotation from translation through equal-and-opposite interlayer shear.","prediction":"A layered flexure should isolate rotation from translation through equal-and-opposite interlayer shear.","test":"Measure motion matrix.","contrary_outcome":"Cross-coupling remains large.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0255","id":"S4-0255","volume":"900v4","title":"A soft lattice should delay strain localization when its cell orientation varies continuously.","prediction":"A soft lattice should delay strain localization when its cell orientation varies continuously.","test":"Map strain fields.","contrary":"Localization is unchanged.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0255","hypothesis":"A soft lattice should delay strain localization when its cell orientation varies continuously.","prediction":"A soft lattice should delay strain localization when its cell orientation varies continuously.","test":"Map strain fields.","contrary_outcome":"Localization is unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0256","id":"S4-0256","volume":"900v4","title":"A hollow impact shield should recover through air intake only after its contact force falls.","prediction":"A hollow impact shield should recover through air intake only after its contact force falls.","test":"Measure force and chamber pressure.","contrary":"Premature refill increases rebound.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0256","hypothesis":"A hollow impact shield should recover through air intake only after its contact force falls.","prediction":"A hollow impact shield should recover through air intake only after its contact force falls.","test":"Measure force and chamber pressure.","contrary_outcome":"Premature refill increases rebound.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0257","id":"S4-0257","volume":"900v4","title":"A woven hinge should provide a torque plateau through progressive crossing release.","prediction":"A woven hinge should provide a torque plateau through progressive crossing release.","test":"Measure torque-angle curve.","contrary":"No stable plateau appears.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0257","hypothesis":"A woven hinge should provide a torque plateau through progressive crossing release.","prediction":"A woven hinge should provide a torque plateau through progressive crossing release.","test":"Measure torque-angle curve.","contrary_outcome":"No stable plateau appears.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0258","id":"S4-0258","volume":"900v4","title":"A folded shell should encode overload direction in its final crease pattern.","prediction":"A folded shell should encode overload direction in its final crease pattern.","test":"Apply calibrated directional loads.","contrary":"Patterns remain ambiguous.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0258","hypothesis":"A folded shell should encode overload direction in its final crease pattern.","prediction":"A folded shell should encode overload direction in its final crease pattern.","test":"Apply calibrated directional loads.","contrary_outcome":"Patterns remain ambiguous.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0259","id":"S4-0259","volume":"900v4","title":"A curved interface should reduce adhesive-free joint slip by increasing normal force under shear.","prediction":"A curved interface should reduce adhesive-free joint slip by increasing normal force under shear.","test":"Measure force components.","contrary":"Shear decreases normal contact.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0259","hypothesis":"A curved interface should reduce adhesive-free joint slip by increasing normal force under shear.","prediction":"A curved interface should reduce adhesive-free joint slip by increasing normal force under shear.","test":"Measure force components.","contrary_outcome":"Shear decreases normal contact.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0259","hypothesis":"A curved interface should reduce adhesive-free joint slip by increasing normal force under shear.","prediction":"A curved interface should reduce adhesive-free joint slip by increasing normal force under shear.","test":"Measure force components.","contrary_outcome":"Shear decreases normal contact.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":34,"query":"A curved interface reduce adhesive-free joint slip by increasing normal force under shear. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure force components."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0260","id":"S4-0260","volume":"900v4","title":"A prestressed plate should steer flexural waves around a mounted mass through local tension redistribution.","prediction":"A prestressed plate should steer flexural waves around a mounted mass through local tension redistribution.","test":"Map wave fields.","contrary":"Mass shadow remains unchanged.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0260","hypothesis":"A prestressed plate should steer flexural waves around a mounted mass through local tension redistribution.","prediction":"A prestressed plate should steer flexural waves around a mounted mass through local tension redistribution.","test":"Map wave fields.","contrary_outcome":"Mass shadow remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0261","id":"S4-0261","volume":"900v4","title":"A compressible lattice should distinguish distributed load from point load through different stable deformation modes.","prediction":"A compressible lattice should distinguish distributed load from point load through different stable deformation modes.","test":"Apply matched total forces.","contrary":"Final modes are identical.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0261","hypothesis":"A compressible lattice should distinguish distributed load from point load through different stable deformation modes.","prediction":"A compressible lattice should distinguish distributed load from point load through different stable deformation modes.","test":"Apply matched total forces.","contrary_outcome":"Final modes are identical.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0262","id":"S4-0262","volume":"900v4","title":"A hollow torsion bar should limit transmitted torque through reversible cross-section ovalization.","prediction":"A hollow torsion bar should limit transmitted torque through reversible cross-section ovalization.","test":"Measure torque and shape.","contrary":"Ovalization leads directly to failure.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0262","hypothesis":"A hollow torsion bar should limit transmitted torque through reversible cross-section ovalization.","prediction":"A hollow torsion bar should limit transmitted torque through reversible cross-section ovalization.","test":"Measure torque and shape.","contrary_outcome":"Ovalization leads directly to failure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0263","id":"S4-0263","volume":"900v4","title":"A slotted membrane should retain a central aperture shape under biaxial stretch.","prediction":"A slotted membrane should retain a central aperture shape under biaxial stretch.","test":"Image aperture geometry.","contrary":"Aperture distorts strongly.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0263","hypothesis":"A slotted membrane should retain a central aperture shape under biaxial stretch.","prediction":"A slotted membrane should retain a central aperture shape under biaxial stretch.","test":"Image aperture geometry.","contrary_outcome":"Aperture distorts strongly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0264","id":"S4-0264","volume":"900v4","title":"A layered protective pad should reduce repeated-impact degradation by allowing internal layers to recenter.","prediction":"A layered protective pad should reduce repeated-impact degradation by allowing internal layers to recenter.","test":"Measure force over impacts.","contrary":"Recentering does not preserve performance.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0264","hypothesis":"A layered protective pad should reduce repeated-impact degradation by allowing internal layers to recenter.","prediction":"A layered protective pad should reduce repeated-impact degradation by allowing internal layers to recenter.","test":"Measure force over impacts.","contrary_outcome":"Recentering does not preserve performance.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0265","id":"S4-0265","volume":"900v4","title":"A braided strip should reveal longitudinal tension through transverse contraction with low bending sensitivity.","prediction":"A braided strip should reveal longitudinal tension through transverse contraction with low bending sensitivity.","test":"Calibrate combined loads.","contrary":"Bending masks tension signal.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0265","hypothesis":"A braided strip should reveal longitudinal tension through transverse contraction with low bending sensitivity.","prediction":"A braided strip should reveal longitudinal tension through transverse contraction with low bending sensitivity.","test":"Calibrate combined loads.","contrary_outcome":"Bending masks tension signal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0266","id":"S4-0266","volume":"900v4","title":"A folding lattice should increase thermal-contact area under compression without a large force rise.","prediction":"A folding lattice should increase thermal-contact area under compression without a large force rise.","test":"Measure contact and force.","contrary":"Contact gain requires high force.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0266","hypothesis":"A folding lattice should increase thermal-contact area under compression without a large force rise.","prediction":"A folding lattice should increase thermal-contact area under compression without a large force rise.","test":"Measure contact and force.","contrary_outcome":"Contact gain requires high force.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0267","id":"S4-0267","volume":"900v4","title":"A soft inclusion network should guide reversible buckling away from geometric imperfections.","prediction":"A soft inclusion network should guide reversible buckling away from geometric imperfections.","test":"Introduce known defects and compress.","contrary":"Defects still determine the mode.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0267","hypothesis":"A soft inclusion network should guide reversible buckling away from geometric imperfections.","prediction":"A soft inclusion network should guide reversible buckling away from geometric imperfections.","test":"Introduce known defects and compress.","contrary_outcome":"Defects still determine the mode.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0268","id":"S4-0268","volume":"900v4","title":"A hollow ring should retain circularity under point loading through internal rolling supports.","prediction":"A hollow ring should retain circularity under point loading through internal rolling supports.","test":"Measure shape.","contrary":"Supports create new lobes.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0268","hypothesis":"A hollow ring should retain circularity under point loading through internal rolling supports.","prediction":"A hollow ring should retain circularity under point loading through internal rolling supports.","test":"Measure shape.","contrary_outcome":"Supports create new lobes.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0269","id":"S4-0269","volume":"900v4","title":"A woven shell should damp torsional vibration through reversible crossing slip while retaining axial stiffness.","prediction":"A woven shell should damp torsional vibration through reversible crossing slip while retaining axial stiffness.","test":"Measure modal losses.","contrary":"Axial stiffness falls substantially.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0269","hypothesis":"A woven shell should damp torsional vibration through reversible crossing slip while retaining axial stiffness.","prediction":"A woven shell should damp torsional vibration through reversible crossing slip while retaining axial stiffness.","test":"Measure modal losses.","contrary_outcome":"Axial stiffness falls substantially.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0270","id":"S4-0270","volume":"900v4","title":"A curved beam should produce a mechanical warning click before reaching its elastic stability limit.","prediction":"A curved beam should produce a mechanical warning click before reaching its elastic stability limit.","test":"Measure sound and force.","contrary":"Click occurs after instability.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0270","hypothesis":"A curved beam should produce a mechanical warning click before reaching its elastic stability limit.","prediction":"A curved beam should produce a mechanical warning click before reaching its elastic stability limit.","test":"Measure sound and force.","contrary_outcome":"Click occurs after instability.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0271","id":"S4-0271","volume":"900v4","title":"A segmented membrane backing should limit the area affected by a local puncture.","prediction":"A segmented membrane backing should limit the area affected by a local puncture.","test":"Map deformation after puncture.","contrary":"Damage propagates across segments.","layers":[1,2],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0271","hypothesis":"A segmented membrane backing should limit the area affected by a local puncture.","prediction":"A segmented membrane backing should limit the area affected by a local puncture.","test":"Map deformation after puncture.","contrary_outcome":"Damage propagates across segments.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0271","hypothesis":"A segmented membrane backing should limit the area affected by a local puncture.","prediction":"A segmented membrane backing should limit the area affected by a local puncture.","test":"Map deformation after puncture.","contrary_outcome":"Damage propagates across segments.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":35,"query":"A segmented membrane backing limit the area affected by a local puncture. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Map deformation after puncture."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0272","id":"S4-0272","volume":"900v4","title":"A prestressed lattice should regain stiffness when unloaded through a different geometric path.","prediction":"A prestressed lattice should regain stiffness when unloaded through a different geometric path.","test":"Measure hysteresis and final stiffness.","contrary":"Recovery requires external resetting.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0272","hypothesis":"A prestressed lattice should regain stiffness when unloaded through a different geometric path.","prediction":"A prestressed lattice should regain stiffness when unloaded through a different geometric path.","test":"Measure hysteresis and final stiffness.","contrary_outcome":"Recovery requires external resetting.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0273","id":"S4-0273","volume":"900v4","title":"A folded tube should resist crushing from one direction while remaining compliant orthogonally.","prediction":"A folded tube should resist crushing from one direction while remaining compliant orthogonally.","test":"Measure directional collapse loads.","contrary":"Directional contrast is absent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0273","hypothesis":"A folded tube should resist crushing from one direction while remaining compliant orthogonally.","prediction":"A folded tube should resist crushing from one direction while remaining compliant orthogonally.","test":"Measure directional collapse loads.","contrary_outcome":"Directional contrast is absent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0274","id":"S4-0274","volume":"900v4","title":"A porous spring should measure compression rate through the phase of expelled air pressure.","prediction":"A porous spring should measure compression rate through the phase of expelled air pressure.","test":"Calibrate strain-rate histories.","contrary":"Pressure follows strain alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0274","hypothesis":"A porous spring should measure compression rate through the phase of expelled air pressure.","prediction":"A porous spring should measure compression rate through the phase of expelled air pressure.","test":"Calibrate strain-rate histories.","contrary_outcome":"Pressure follows strain alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0275","id":"S4-0275","volume":"900v4","title":"A layered shear pad should reduce edge stress by increasing interlayer slip near its perimeter.","prediction":"A layered shear pad should reduce edge stress by increasing interlayer slip near its perimeter.","test":"Map strain.","contrary":"Slip moves stress to a new damaging edge.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0275","hypothesis":"A layered shear pad should reduce edge stress by increasing interlayer slip near its perimeter.","prediction":"A layered shear pad should reduce edge stress by increasing interlayer slip near its perimeter.","test":"Map strain.","contrary_outcome":"Slip moves stress to a new damaging edge.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0276","id":"S4-0276","volume":"900v4","title":"A hollow shell should absorb an oblique impact through a rotating collapse zone.","prediction":"A hollow shell should absorb an oblique impact through a rotating collapse zone.","test":"Image impact deformation.","contrary":"Collapse remains localized at contact.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0276","hypothesis":"A hollow shell should absorb an oblique impact through a rotating collapse zone.","prediction":"A hollow shell should absorb an oblique impact through a rotating collapse zone.","test":"Image impact deformation.","contrary_outcome":"Collapse remains localized at contact.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0277","id":"S4-0277","volume":"900v4","title":"A compliant bridge should retain load capacity after one support settles through reversible geometry change.","prediction":"A compliant bridge should retain load capacity after one support settles through reversible geometry change.","test":"Measure reactions and displacement.","contrary":"Settlement causes unstable redistribution.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0277","hypothesis":"A compliant bridge should retain load capacity after one support settles through reversible geometry change.","prediction":"A compliant bridge should retain load capacity after one support settles through reversible geometry change.","test":"Measure reactions and displacement.","contrary_outcome":"Settlement causes unstable redistribution.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0278","id":"S4-0278","volume":"900v4","title":"A woven lattice should prevent strand pullout by tightening transverse loops under axial tension.","prediction":"A woven lattice should prevent strand pullout by tightening transverse loops under axial tension.","test":"Measure pullout force.","contrary":"Loops do not increase retention.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0278","hypothesis":"A woven lattice should prevent strand pullout by tightening transverse loops under axial tension.","prediction":"A woven lattice should prevent strand pullout by tightening transverse loops under axial tension.","test":"Measure pullout force.","contrary_outcome":"Loops do not increase retention.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0279","id":"S4-0279","volume":"900v4","title":"A corrugated plate should tune bending anisotropy continuously as its folds flatten.","prediction":"A corrugated plate should tune bending anisotropy continuously as its folds flatten.","test":"Measure stiffness tensor.","contrary":"Anisotropy changes discontinuously or weakly.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0279","hypothesis":"A corrugated plate should tune bending anisotropy continuously as its folds flatten.","prediction":"A corrugated plate should tune bending anisotropy continuously as its folds flatten.","test":"Measure stiffness tensor.","contrary_outcome":"Anisotropy changes discontinuously or weakly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0280","id":"S4-0280","volume":"900v4","title":"A soft crack-tip insert should delay fatigue growth by closing during unloading.","prediction":"A soft crack-tip insert should delay fatigue growth by closing during unloading.","test":"Track cyclic crack extension.","contrary":"Closure adds no fatigue benefit.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0280","hypothesis":"A soft crack-tip insert should delay fatigue growth by closing during unloading.","prediction":"A soft crack-tip insert should delay fatigue growth by closing during unloading.","test":"Track cyclic crack extension.","contrary_outcome":"Closure adds no fatigue benefit.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0281","id":"S4-0281","volume":"900v4","title":"A segmented arch should recover from a missing segment through a secondary tensile path.","prediction":"A segmented arch should recover from a missing segment through a secondary tensile path.","test":"Remove one segment under controlled load.","contrary":"Arch collapses.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0281","hypothesis":"A segmented arch should recover from a missing segment through a secondary tensile path.","prediction":"A segmented arch should recover from a missing segment through a secondary tensile path.","test":"Remove one segment under controlled load.","contrary_outcome":"Arch collapses.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0282","id":"S4-0282","volume":"900v4","title":"A hollow membrane support should identify local pressure overload through differential cell venting.","prediction":"A hollow membrane support should identify local pressure overload through differential cell venting.","test":"Measure vent order.","contrary":"Order depends mainly on fabrication variation.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0282","hypothesis":"A hollow membrane support should identify local pressure overload through differential cell venting.","prediction":"A hollow membrane support should identify local pressure overload through differential cell venting.","test":"Measure vent order.","contrary_outcome":"Order depends mainly on fabrication variation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0283","id":"S4-0283","volume":"900v4","title":"A layered spring joint should reduce parasitic translation during large rotation.","prediction":"A layered spring joint should reduce parasitic translation during large rotation.","test":"Measure pivot trajectory.","contrary":"Translation remains comparable to a single flexure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0283","hypothesis":"A layered spring joint should reduce parasitic translation during large rotation.","prediction":"A layered spring joint should reduce parasitic translation during large rotation.","test":"Measure pivot trajectory.","contrary_outcome":"Translation remains comparable to a single flexure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0284","id":"S4-0284","volume":"900v4","title":"A prestressed mesh should spread a sharp contact over a larger footprint without puncture.","prediction":"A prestressed mesh should spread a sharp contact over a larger footprint without puncture.","test":"Map contact and damage.","contrary":"Mesh concentrates force at crossings.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0284","hypothesis":"A prestressed mesh should spread a sharp contact over a larger footprint without puncture.","prediction":"A prestressed mesh should spread a sharp contact over a larger footprint without puncture.","test":"Map contact and damage.","contrary_outcome":"Mesh concentrates force at crossings.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0285","id":"S4-0285","volume":"900v4","title":"A folded lattice should produce a reversible shear band with a controllable location.","prediction":"A folded lattice should produce a reversible shear band with a controllable location.","test":"Change one boundary input and image.","contrary":"Band location remains imperfection-dominated.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0285","hypothesis":"A folded lattice should produce a reversible shear band with a controllable location.","prediction":"A folded lattice should produce a reversible shear band with a controllable location.","test":"Change one boundary input and image.","contrary_outcome":"Band location remains imperfection-dominated.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0286","id":"S4-0286","volume":"900v4","title":"A porous foam should preserve recovery after wetting when large drainage channels remain open under compression.","prediction":"A porous foam should preserve recovery after wetting when large drainage channels remain open under compression.","test":"Measure wet rebound.","contrary":"Channels collapse and recovery worsens.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0286","hypothesis":"A porous foam should preserve recovery after wetting when large drainage channels remain open under compression.","prediction":"A porous foam should preserve recovery after wetting when large drainage channels remain open under compression.","test":"Measure wet rebound.","contrary_outcome":"Channels collapse and recovery worsens.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0287","id":"S4-0287","volume":"900v4","title":"A twisted beam pair should cancel extension under applied torque while preserving rotation.","prediction":"A twisted beam pair should cancel extension under applied torque while preserving rotation.","test":"Measure coupled motion.","contrary":"Axial displacement remains large.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0287","hypothesis":"A twisted beam pair should cancel extension under applied torque while preserving rotation.","prediction":"A twisted beam pair should cancel extension under applied torque while preserving rotation.","test":"Measure coupled motion.","contrary_outcome":"Axial displacement remains large.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0287","hypothesis":"A twisted beam pair should cancel extension under applied torque while preserving rotation.","prediction":"A twisted beam pair should cancel extension under applied torque while preserving rotation.","test":"Measure coupled motion.","contrary_outcome":"Axial displacement remains large.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":36,"query":"A twisted beam pair cancel extension under applied torque while preserving rotation. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure coupled motion."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0288","id":"S4-0288","volume":"900v4","title":"A hollow crush element should expose remaining energy capacity through its unfolded length.","prediction":"A hollow crush element should expose remaining energy capacity through its unfolded length.","test":"Measure absorbed work and shape.","contrary":"Length does not predict remaining capacity.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0288","hypothesis":"A hollow crush element should expose remaining energy capacity through its unfolded length.","prediction":"A hollow crush element should expose remaining energy capacity through its unfolded length.","test":"Measure absorbed work and shape.","contrary_outcome":"Length does not predict remaining capacity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0289","id":"S4-0289","volume":"900v4","title":"A woven membrane should resist local creep through load transfer between crossing directions.","prediction":"A woven membrane should resist local creep through load transfer between crossing directions.","test":"Measure strain redistribution over time.","contrary":"Creep remains concentrated.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0289","hypothesis":"A woven membrane should resist local creep through load transfer between crossing directions.","prediction":"A woven membrane should resist local creep through load transfer between crossing directions.","test":"Measure strain redistribution over time.","contrary_outcome":"Creep remains concentrated.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0290","id":"S4-0290","volume":"900v4","title":"A curved lattice boundary should suppress edge-localized buckling in a compressed panel.","prediction":"A curved lattice boundary should suppress edge-localized buckling in a compressed panel.","test":"Map buckle initiation.","contrary":"Edges still fail first.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0290","hypothesis":"A curved lattice boundary should suppress edge-localized buckling in a compressed panel.","prediction":"A curved lattice boundary should suppress edge-localized buckling in a compressed panel.","test":"Map buckle initiation.","contrary_outcome":"Edges still fail first.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0291","id":"S4-0291","volume":"900v4","title":"A soft contact layer should reduce pressure peaks by migrating material into nearby recesses.","prediction":"A soft contact layer should reduce pressure peaks by migrating material into nearby recesses.","test":"Map pressure and displacement.","contrary":"Migration increases local peaks.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0291","hypothesis":"A soft contact layer should reduce pressure peaks by migrating material into nearby recesses.","prediction":"A soft contact layer should reduce pressure peaks by migrating material into nearby recesses.","test":"Map pressure and displacement.","contrary_outcome":"Migration increases local peaks.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0292","id":"S4-0292","volume":"900v4","title":"A folded beam should preserve its load-displacement curve after repeated full flattening.","prediction":"A folded beam should preserve its load-displacement curve after repeated full flattening.","test":"Measure cycling curves.","contrary":"Permanent creases change stiffness substantially.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0292","hypothesis":"A folded beam should preserve its load-displacement curve after repeated full flattening.","prediction":"A folded beam should preserve its load-displacement curve after repeated full flattening.","test":"Measure cycling curves.","contrary_outcome":"Permanent creases change stiffness substantially.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0293","id":"S4-0293","volume":"900v4","title":"A perforated tension strip should generate a visible traveling opening front under increasing load.","prediction":"A perforated tension strip should generate a visible traveling opening front under increasing load.","test":"Image hole shapes.","contrary":"Openings change simultaneously.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0293","hypothesis":"A perforated tension strip should generate a visible traveling opening front under increasing load.","prediction":"A perforated tension strip should generate a visible traveling opening front under increasing load.","test":"Image hole shapes.","contrary_outcome":"Openings change simultaneously.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0294","id":"S4-0294","volume":"900v4","title":"A hollow elastic frame should recover from torsional overload through reversible diagonal collapse.","prediction":"A hollow elastic frame should recover from torsional overload through reversible diagonal collapse.","test":"Measure final alignment.","contrary":"Residual twist remains.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0294","hypothesis":"A hollow elastic frame should recover from torsional overload through reversible diagonal collapse.","prediction":"A hollow elastic frame should recover from torsional overload through reversible diagonal collapse.","test":"Measure final alignment.","contrary_outcome":"Residual twist remains.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0295","id":"S4-0295","volume":"900v4","title":"A layered panel should reduce acoustic ringing by permitting controlled edge microslip.","prediction":"A layered panel should reduce acoustic ringing by permitting controlled edge microslip.","test":"Measure decay and edge motion.","contrary":"Microslip does not improve damping.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0295","hypothesis":"A layered panel should reduce acoustic ringing by permitting controlled edge microslip.","prediction":"A layered panel should reduce acoustic ringing by permitting controlled edge microslip.","test":"Measure decay and edge motion.","contrary_outcome":"Microslip does not improve damping.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0296","id":"S4-0296","volume":"900v4","title":"A prestressed shell should discriminate internal pressure from external indentation through opposite curvature changes.","prediction":"A prestressed shell should discriminate internal pressure from external indentation through opposite curvature changes.","test":"Apply both loads.","contrary":"Shape signatures overlap.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0296","hypothesis":"A prestressed shell should discriminate internal pressure from external indentation through opposite curvature changes.","prediction":"A prestressed shell should discriminate internal pressure from external indentation through opposite curvature changes.","test":"Apply both loads.","contrary_outcome":"Shape signatures overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0297","id":"S4-0297","volume":"900v4","title":"A woven tube should retain flow area during axial compression through braid-angle rearrangement.","prediction":"A woven tube should retain flow area during axial compression through braid-angle rearrangement.","test":"Measure lumen area.","contrary":"Compression closes the lumen.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0297","hypothesis":"A woven tube should retain flow area during axial compression through braid-angle rearrangement.","prediction":"A woven tube should retain flow area during axial compression through braid-angle rearrangement.","test":"Measure lumen area.","contrary_outcome":"Compression closes the lumen.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0298","id":"S4-0298","volume":"900v4","title":"A folded protective cap should detach before transmitting a damaging lateral moment.","prediction":"A folded protective cap should detach before transmitting a damaging lateral moment.","test":"Measure release threshold and payload torque.","contrary":"Payload overload occurs first.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0298","hypothesis":"A folded protective cap should detach before transmitting a damaging lateral moment.","prediction":"A folded protective cap should detach before transmitting a damaging lateral moment.","test":"Measure release threshold and payload torque.","contrary_outcome":"Payload overload occurs first.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0299","id":"S4-0299","volume":"900v4","title":"A porous elastic layer should reveal trapped liquid through a slower recovery mode after compression.","prediction":"A porous elastic layer should reveal trapped liquid through a slower recovery mode after compression.","test":"Compare dry and known wet states.","contrary":"Recovery modes remain indistinguishable.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0299","hypothesis":"A porous elastic layer should reveal trapped liquid through a slower recovery mode after compression.","prediction":"A porous elastic layer should reveal trapped liquid through a slower recovery mode after compression.","test":"Compare dry and known wet states.","contrary_outcome":"Recovery modes remain indistinguishable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0299","hypothesis":"A porous elastic layer should reveal trapped liquid through a slower recovery mode after compression.","prediction":"A porous elastic layer should reveal trapped liquid through a slower recovery mode after compression.","test":"Compare dry and known wet states.","contrary_outcome":"Recovery modes remain indistinguishable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":37,"query":"A porous elastic layer reveal trapped liquid through a slower recovery mode after compression. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Compare dry and known wet states."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0300","id":"S4-0300","volume":"900v4","title":"A compliant lattice should reduce assembly-force sensitivity to dimensional tolerances through geometric slack recruitment.","prediction":"A compliant lattice should reduce assembly-force sensitivity to dimensional tolerances through geometric slack recruitment.","test":"Test controlled size offsets.","contrary":"Forces remain tolerance-sensitive.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0300","hypothesis":"A compliant lattice should reduce assembly-force sensitivity to dimensional tolerances through geometric slack recruitment.","prediction":"A compliant lattice should reduce assembly-force sensitivity to dimensional tolerances through geometric slack recruitment.","test":"Test controlled size offsets.","contrary_outcome":"Forces remain tolerance-sensitive.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0301","id":"S4-0301","volume":"900v4","title":"A drying liquid bridge should concentrate benign solute at its narrowest section before rupture.","prediction":"A drying liquid bridge should concentrate benign solute at its narrowest section before rupture.","test":"Map dye concentration.","contrary":"Solute accumulates only at the edges.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0301","hypothesis":"A drying liquid bridge should concentrate benign solute at its narrowest section before rupture.","prediction":"A drying liquid bridge should concentrate benign solute at its narrowest section before rupture.","test":"Map dye concentration.","contrary_outcome":"Solute accumulates only at the edges.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0301","hypothesis":"A drying liquid bridge should concentrate benign solute at its narrowest section before rupture.","prediction":"A drying liquid bridge should concentrate benign solute at its narrowest section before rupture.","test":"Map dye concentration.","contrary_outcome":"Solute accumulates only at the edges.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":38,"query":"A drying liquid bridge concentrate benign solute at its narrowest section before rupture. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Map dye concentration."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0302","id":"S4-0302","volume":"900v4","title":"A moving freezing front should push trapped gas toward an open side groove.","prediction":"A moving freezing front should push trapped gas toward an open side groove.","test":"Image water freezing.","contrary":"Gas remains enclosed in the solid.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0302","hypothesis":"A moving freezing front should push trapped gas toward an open side groove.","prediction":"A moving freezing front should push trapped gas toward an open side groove.","test":"Image water freezing.","contrary_outcome":"Gas remains enclosed in the solid.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0303","id":"S4-0303","volume":"900v4","title":"A periodically wetted crystal surface should select a preferred terrace spacing independent of total deposited mass.","prediction":"A periodically wetted crystal surface should select a preferred terrace spacing independent of total deposited mass.","test":"Measure benign salt topography.","contrary":"Spacing follows mass alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0303","hypothesis":"A periodically wetted crystal surface should select a preferred terrace spacing independent of total deposited mass.","prediction":"A periodically wetted crystal surface should select a preferred terrace spacing independent of total deposited mass.","test":"Measure benign salt topography.","contrary_outcome":"Spacing follows mass alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0304","id":"S4-0304","volume":"900v4","title":"A confined oil-water interface should suppress droplet coalescence when the gap forces flattened contact geometry.","prediction":"A confined oil-water interface should suppress droplet coalescence when the gap forces flattened contact geometry.","test":"Image equal-volume pairs.","contrary":"Flattening accelerates coalescence.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0304","hypothesis":"A confined oil-water interface should suppress droplet coalescence when the gap forces flattened contact geometry.","prediction":"A confined oil-water interface should suppress droplet coalescence when the gap forces flattened contact geometry.","test":"Image equal-volume pairs.","contrary_outcome":"Flattening accelerates coalescence.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0305","id":"S4-0305","volume":"900v4","title":"A draining foam should preserve a pressure-gradient memory in its bubble-size distribution.","prediction":"A draining foam should preserve a pressure-gradient memory in its bubble-size distribution.","test":"Measure size profiles after reversed drainage.","contrary":"Profiles do not encode gradient direction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0305","hypothesis":"A draining foam should preserve a pressure-gradient memory in its bubble-size distribution.","prediction":"A draining foam should preserve a pressure-gradient memory in its bubble-size distribution.","test":"Measure size profiles after reversed drainage.","contrary_outcome":"Profiles do not encode gradient direction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0306","id":"S4-0306","volume":"900v4","title":"A capillary-fed crystal should grow away from its supply channel when deposition narrows the channel entrance.","prediction":"A capillary-fed crystal should grow away from its supply channel when deposition narrows the channel entrance.","test":"Image benign crystallization.","contrary":"Growth blocks the inlet completely.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0306","hypothesis":"A capillary-fed crystal should grow away from its supply channel when deposition narrows the channel entrance.","prediction":"A capillary-fed crystal should grow away from its supply channel when deposition narrows the channel entrance.","test":"Image benign crystallization.","contrary_outcome":"Growth blocks the inlet completely.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0307","id":"S4-0307","volume":"900v4","title":"A moving contact line should sort inert particles by rolling versus sliding mobility at equal size.","prediction":"A moving contact line should sort inert particles by rolling versus sliding mobility at equal size.","test":"Track calibrated particles.","contrary":"Mobility does not predict deposition position.","layers":[1,2,3],"categories":["measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0307","hypothesis":"A moving contact line should sort inert particles by rolling versus sliding mobility at equal size.","prediction":"A moving contact line should sort inert particles by rolling versus sliding mobility at equal size.","test":"Track calibrated particles.","contrary_outcome":"Mobility does not predict deposition position.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0307","hypothesis":"A moving contact line should sort inert particles by rolling versus sliding mobility at equal size.","prediction":"A moving contact line should sort inert particles by rolling versus sliding mobility at equal size.","test":"Track calibrated particles.","contrary_outcome":"Mobility does not predict deposition position.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":4,"query":"A moving contact line sort inert particles by rolling versus sliding mobility at equal size. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Track calibrated particles."},"dossier":{"id":"S4-0307","title":"Contact-line sorting by rolling mobility","why_selected":"The proposal links a directly measurable single-particle property to an observable deposition endpoint and has several clear competing explanations.","sources":[{"title":"Characterizing sliding and rolling contacts between single particles","url":"https://pubmed.ncbi.nlm.nih.gov/40048270/","access":"Primary article abstract and metadata read","finding":"The study measures rolling and sliding at particle contacts and finds traction-dependent rolling behavior. It supports measuring mobility separately, not sorting by a receding meniscus."},{"title":"An experimental and theoretical study of the inward particle drift in contact line deposits","url":"https://pubs.rsc.org/en/content/articlelanding/2022/sm/d2sm00142j","access":"Primary publisher abstract read","finding":"The study links evaporation-driven interface descent, particle/substrate friction, and deposit motion. This is strong related work and a confounding mechanism for any proposed rolling-specific separation."}],"design":"Use equal-diameter inert particles with independently measured rolling resistance and similar density/wettability, distinguishable by nonreactive optical marks. Recede a water meniscus at controlled speed on a characterized substrate and track particle rotation as well as translation. Use multiple independent substrate preparations and mixed populations; analyze particle trajectories blind to mobility class.","endpoints":"Primary: difference in final deposition position between mobility classes at matched size. Secondary: observed rolling fraction, escape probability, and sorting purity versus recovery. Proposed useful separation must persist after controlling contact angle and density.","controls":"Pinned contact line; no evaporation with externally moved meniscus; rotation-constrained particles; pure populations; substrate rotation; matched wetting measurements. Surface modification used to change friction may also change capillary forces and must be measured.","conditional_analysis":"A simple force comparison can only suggest regimes: capillary force competes with translational friction and rolling resistance torque divided by radius. No universal ordering theorem follows because immersion, contact-line pinning, roughness, and hydrodynamic drag change simultaneously. The physical sorting claim remains unproved. A fitted trajectory model is not evidence of the mechanism unless independent mobility measurements predict held-out trajectories.","analysis_plan":"Use device/substrate-level replication rather than counting every particle as independent. Fit deposition position with mobility, size, wetting, and local flow covariates; publish null and failed tracks. Reject rolling-specific sorting if its effect disappears after these controls or if rotation-constrained controls separate equally.","limitations":"No physical data. Related contact-line deposition and friction research already exists. Useful purity, scalability, and novelty remain unknown.","rank":4,"hypothesis":"A moving contact line should sort inert particles by rolling versus sliding mobility at equal size.","status":"speculative; no physical data or proof"},"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0308","id":"S4-0308","volume":"900v4","title":"A thin ice layer should detach from a flexible plate through a traveling bend below the bulk fracture strain.","prediction":"A thin ice layer should detach from a flexible plate through a traveling bend below the bulk fracture strain.","test":"Measure release force and cracks.","contrary":"Release requires extensive ice fracture.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0308","hypothesis":"A thin ice layer should detach from a flexible plate through a traveling bend below the bulk fracture strain.","prediction":"A thin ice layer should detach from a flexible plate through a traveling bend below the bulk fracture strain.","test":"Measure release force and cracks.","contrary_outcome":"Release requires extensive ice fracture.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0309","id":"S4-0309","volume":"900v4","title":"A narrow evaporation gap should select one dominant vapor escape route through self-generated cooling.","prediction":"A narrow evaporation gap should select one dominant vapor escape route through self-generated cooling.","test":"Map temperature and vapor flux.","contrary":"Routes remain uniformly distributed.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0309","hypothesis":"A narrow evaporation gap should select one dominant vapor escape route through self-generated cooling.","prediction":"A narrow evaporation gap should select one dominant vapor escape route through self-generated cooling.","test":"Map temperature and vapor flux.","contrary_outcome":"Routes remain uniformly distributed.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0310","id":"S4-0310","volume":"900v4","title":"A confined droplet should split reversibly when a moving wedge creates two equal capillary reservoirs.","prediction":"A confined droplet should split reversibly when a moving wedge creates two equal capillary reservoirs.","test":"Measure daughter volumes and recombination.","contrary":"Splitting produces persistent unequal remnants.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0310","hypothesis":"A confined droplet should split reversibly when a moving wedge creates two equal capillary reservoirs.","prediction":"A confined droplet should split reversibly when a moving wedge creates two equal capillary reservoirs.","test":"Measure daughter volumes and recombination.","contrary_outcome":"Splitting produces persistent unequal remnants.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0311","id":"S4-0311","volume":"900v4","title":"A porous crystal-growth bed should reduce inclusion trapping by providing a separate liquid escape network.","prediction":"A porous crystal-growth bed should reduce inclusion trapping by providing a separate liquid escape network.","test":"Image transparent salt growth.","contrary":"Inclusions remain unchanged.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0311","hypothesis":"A porous crystal-growth bed should reduce inclusion trapping by providing a separate liquid escape network.","prediction":"A porous crystal-growth bed should reduce inclusion trapping by providing a separate liquid escape network.","test":"Image transparent salt growth.","contrary_outcome":"Inclusions remain unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0312","id":"S4-0312","volume":"900v4","title":"A liquid coating should resist dewetting when its substrate develops shallow compression wrinkles.","prediction":"A liquid coating should resist dewetting when its substrate develops shallow compression wrinkles.","test":"Measure hole nucleation.","contrary":"Wrinkles accelerate dewetting.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0312","hypothesis":"A liquid coating should resist dewetting when its substrate develops shallow compression wrinkles.","prediction":"A liquid coating should resist dewetting when its substrate develops shallow compression wrinkles.","test":"Measure hole nucleation.","contrary_outcome":"Wrinkles accelerate dewetting.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0313","id":"S4-0313","volume":"900v4","title":"A partially frozen channel should reveal blockage location through the phase of a low-pressure oscillation.","prediction":"A partially frozen channel should reveal blockage location through the phase of a low-pressure oscillation.","test":"Freeze known sections.","contrary":"Phase cannot localize blockage.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0313","hypothesis":"A partially frozen channel should reveal blockage location through the phase of a low-pressure oscillation.","prediction":"A partially frozen channel should reveal blockage location through the phase of a low-pressure oscillation.","test":"Freeze known sections.","contrary_outcome":"Phase cannot localize blockage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0314","id":"S4-0314","volume":"900v4","title":"A wet granular edge should retreat through discrete avalanche steps rather than smooth erosion.","prediction":"A wet granular edge should retreat through discrete avalanche steps rather than smooth erosion.","test":"Image controlled drainage.","contrary":"Retreat remains continuous.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0314","hypothesis":"A wet granular edge should retreat through discrete avalanche steps rather than smooth erosion.","prediction":"A wet granular edge should retreat through discrete avalanche steps rather than smooth erosion.","test":"Image controlled drainage.","contrary_outcome":"Retreat remains continuous.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0315","id":"S4-0315","volume":"900v4","title":"A capillary droplet train should maintain separation after gentle compression through trapped-air cushions.","prediction":"A capillary droplet train should maintain separation after gentle compression through trapped-air cushions.","test":"Measure collision frequency.","contrary":"Air cushions collapse and droplets merge.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0315","hypothesis":"A capillary droplet train should maintain separation after gentle compression through trapped-air cushions.","prediction":"A capillary droplet train should maintain separation after gentle compression through trapped-air cushions.","test":"Measure collision frequency.","contrary_outcome":"Air cushions collapse and droplets merge.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0315","hypothesis":"A capillary droplet train should maintain separation after gentle compression through trapped-air cushions.","prediction":"A capillary droplet train should maintain separation after gentle compression through trapped-air cushions.","test":"Measure collision frequency.","contrary_outcome":"Air cushions collapse and droplets merge.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":39,"query":"A capillary droplet train maintain separation after gentle compression through trapped-air cushions. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure collision frequency."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0316","id":"S4-0316","volume":"900v4","title":"A crystallizing film should indicate past evaporation direction through asymmetric grain-boundary curvature.","prediction":"A crystallizing film should indicate past evaporation direction through asymmetric grain-boundary curvature.","test":"Reverse drying gradients.","contrary":"Curvature does not reverse.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0316","hypothesis":"A crystallizing film should indicate past evaporation direction through asymmetric grain-boundary curvature.","prediction":"A crystallizing film should indicate past evaporation direction through asymmetric grain-boundary curvature.","test":"Reverse drying gradients.","contrary_outcome":"Curvature does not reverse.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0317","id":"S4-0317","volume":"900v4","title":"A liquid meniscus should pin more reproducibly at a rounded step than a sharp step after repeated cycling.","prediction":"A liquid meniscus should pin more reproducibly at a rounded step than a sharp step after repeated cycling.","test":"Measure threshold distributions.","contrary":"Rounding increases variability.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0317","hypothesis":"A liquid meniscus should pin more reproducibly at a rounded step than a sharp step after repeated cycling.","prediction":"A liquid meniscus should pin more reproducibly at a rounded step than a sharp step after repeated cycling.","test":"Measure threshold distributions.","contrary_outcome":"Rounding increases variability.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0318","id":"S4-0318","volume":"900v4","title":"A foam-filled chamber should buffer pressure pulses through reversible film rearrangement rather than gas compression alone.","prediction":"A foam-filled chamber should buffer pressure pulses through reversible film rearrangement rather than gas compression alone.","test":"Measure shape and pressure.","contrary":"Response matches equivalent gas volume.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0318","hypothesis":"A foam-filled chamber should buffer pressure pulses through reversible film rearrangement rather than gas compression alone.","prediction":"A foam-filled chamber should buffer pressure pulses through reversible film rearrangement rather than gas compression alone.","test":"Measure shape and pressure.","contrary_outcome":"Response matches equivalent gas volume.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0319","id":"S4-0319","volume":"900v4","title":"A draining gel-free porous pad should expel its last liquid preferentially from a mechanically compressed edge.","prediction":"A draining gel-free porous pad should expel its last liquid preferentially from a mechanically compressed edge.","test":"Map residual saturation.","contrary":"Compression traps more liquid.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0319","hypothesis":"A draining gel-free porous pad should expel its last liquid preferentially from a mechanically compressed edge.","prediction":"A draining gel-free porous pad should expel its last liquid preferentially from a mechanically compressed edge.","test":"Map residual saturation.","contrary_outcome":"Compression traps more liquid.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0320","id":"S4-0320","volume":"900v4","title":"A freezing droplet should develop a repeatable off-axis tip when its support curvature breaks symmetry.","prediction":"A freezing droplet should develop a repeatable off-axis tip when its support curvature breaks symmetry.","test":"Image controlled supports.","contrary":"Tip direction remains random.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0320","hypothesis":"A freezing droplet should develop a repeatable off-axis tip when its support curvature breaks symmetry.","prediction":"A freezing droplet should develop a repeatable off-axis tip when its support curvature breaks symmetry.","test":"Image controlled supports.","contrary_outcome":"Tip direction remains random.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0321","id":"S4-0321","volume":"900v4","title":"A liquid rivulet should resist lateral wandering when its side boundary is a second mobile liquid interface.","prediction":"A liquid rivulet should resist lateral wandering when its side boundary is a second mobile liquid interface.","test":"Measure centroid fluctuations.","contrary":"Mobile boundary increases wandering.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0321","hypothesis":"A liquid rivulet should resist lateral wandering when its side boundary is a second mobile liquid interface.","prediction":"A liquid rivulet should resist lateral wandering when its side boundary is a second mobile liquid interface.","test":"Measure centroid fluctuations.","contrary_outcome":"Mobile boundary increases wandering.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0322","id":"S4-0322","volume":"900v4","title":"A soluble crystalline plug should release after a predictable integrated water exposure rather than elapsed time alone.","prediction":"A soluble crystalline plug should release after a predictable integrated water exposure rather than elapsed time alone.","test":"Vary flow histories.","contrary":"Release tracks time independently of exposure.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0322","hypothesis":"A soluble crystalline plug should release after a predictable integrated water exposure rather than elapsed time alone.","prediction":"A soluble crystalline plug should release after a predictable integrated water exposure rather than elapsed time alone.","test":"Vary flow histories.","contrary_outcome":"Release tracks time independently of exposure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0323","id":"S4-0323","volume":"900v4","title":"A capillary film should preserve a narrow liquid lane through selective cooling from its own evaporation.","prediction":"A capillary film should preserve a narrow liquid lane through selective cooling from its own evaporation.","test":"Map thickness and temperature.","contrary":"Cooling does not stabilize the lane.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0323","hypothesis":"A capillary film should preserve a narrow liquid lane through selective cooling from its own evaporation.","prediction":"A capillary film should preserve a narrow liquid lane through selective cooling from its own evaporation.","test":"Map thickness and temperature.","contrary_outcome":"Cooling does not stabilize the lane.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0324","id":"S4-0324","volume":"900v4","title":"A growing benign crystal should deflect an elastic obstacle before incorporating it as an inclusion.","prediction":"A growing benign crystal should deflect an elastic obstacle before incorporating it as an inclusion.","test":"Image obstacle motion.","contrary":"Obstacle is engulfed without deflection.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0324","hypothesis":"A growing benign crystal should deflect an elastic obstacle before incorporating it as an inclusion.","prediction":"A growing benign crystal should deflect an elastic obstacle before incorporating it as an inclusion.","test":"Image obstacle motion.","contrary_outcome":"Obstacle is engulfed without deflection.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0325","id":"S4-0325","volume":"900v4","title":"A wetting front should bypass a compressed porous region and reunite downstream without trapping air.","prediction":"A wetting front should bypass a compressed porous region and reunite downstream without trapping air.","test":"Image fronts.","contrary":"Bypass creates persistent gas pockets.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0325","hypothesis":"A wetting front should bypass a compressed porous region and reunite downstream without trapping air.","prediction":"A wetting front should bypass a compressed porous region and reunite downstream without trapping air.","test":"Image fronts.","contrary_outcome":"Bypass creates persistent gas pockets.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0326","id":"S4-0326","volume":"900v4","title":"A liquid bridge should distinguish surface contamination from roughness through different relaxation after a small oscillation.","prediction":"A liquid bridge should distinguish surface contamination from roughness through different relaxation after a small oscillation.","test":"Test controlled surfaces.","contrary":"Relaxation signatures overlap.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0326","hypothesis":"A liquid bridge should distinguish surface contamination from roughness through different relaxation after a small oscillation.","prediction":"A liquid bridge should distinguish surface contamination from roughness through different relaxation after a small oscillation.","test":"Test controlled surfaces.","contrary_outcome":"Relaxation signatures overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0326","hypothesis":"A liquid bridge should distinguish surface contamination from roughness through different relaxation after a small oscillation.","prediction":"A liquid bridge should distinguish surface contamination from roughness through different relaxation after a small oscillation.","test":"Test controlled surfaces.","contrary_outcome":"Relaxation signatures overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":40,"query":"A liquid bridge distinguish surface contamination from roughness through different relaxation after a small oscillation. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Test controlled surfaces."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0327","id":"S4-0327","volume":"900v4","title":"A thin freezing film should release pressure through an unfrozen perimeter reservoir.","prediction":"A thin freezing film should release pressure through an unfrozen perimeter reservoir.","test":"Measure pressure and ice front.","contrary":"Reservoir freezes too early.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0327","hypothesis":"A thin freezing film should release pressure through an unfrozen perimeter reservoir.","prediction":"A thin freezing film should release pressure through an unfrozen perimeter reservoir.","test":"Measure pressure and ice front.","contrary_outcome":"Reservoir freezes too early.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0328","id":"S4-0328","volume":"900v4","title":"A drying suspension should reduce edge deposition when its contact radius shrinks at a controlled rate.","prediction":"A drying suspension should reduce edge deposition when its contact radius shrinks at a controlled rate.","test":"Measure inert-particle profiles.","contrary":"Edge accumulation remains unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0328","hypothesis":"A drying suspension should reduce edge deposition when its contact radius shrinks at a controlled rate.","prediction":"A drying suspension should reduce edge deposition when its contact radius shrinks at a controlled rate.","test":"Measure inert-particle profiles.","contrary_outcome":"Edge accumulation remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0329","id":"S4-0329","volume":"900v4","title":"A capillary valve should trigger at a sharper volume threshold when its reservoir wall snaps elastically.","prediction":"A capillary valve should trigger at a sharper volume threshold when its reservoir wall snaps elastically.","test":"Measure release volumes.","contrary":"Snap variability broadens thresholds.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0329","hypothesis":"A capillary valve should trigger at a sharper volume threshold when its reservoir wall snaps elastically.","prediction":"A capillary valve should trigger at a sharper volume threshold when its reservoir wall snaps elastically.","test":"Measure release volumes.","contrary_outcome":"Snap variability broadens thresholds.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0330","id":"S4-0330","volume":"900v4","title":"A liquid foam should show a detectable acoustic change before a percolating drainage channel forms.","prediction":"A liquid foam should show a detectable acoustic change before a percolating drainage channel forms.","test":"Measure sound and drainage images.","contrary":"Acoustic change follows channel formation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0330","hypothesis":"A liquid foam should show a detectable acoustic change before a percolating drainage channel forms.","prediction":"A liquid foam should show a detectable acoustic change before a percolating drainage channel forms.","test":"Measure sound and drainage images.","contrary_outcome":"Acoustic change follows channel formation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0331","id":"S4-0331","volume":"900v4","title":"A crystalline coating should crack less when its support contracts in synchrony with drying shrinkage.","prediction":"A crystalline coating should crack less when its support contracts in synchrony with drying shrinkage.","test":"Map cracks and substrate motion.","contrary":"Synchronized contraction adds no benefit.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0331","hypothesis":"A crystalline coating should crack less when its support contracts in synchrony with drying shrinkage.","prediction":"A crystalline coating should crack less when its support contracts in synchrony with drying shrinkage.","test":"Map cracks and substrate motion.","contrary_outcome":"Synchronized contraction adds no benefit.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0332","id":"S4-0332","volume":"900v4","title":"A confined liquid interface should transport inert particles toward a pressure node under slow periodic squeezing.","prediction":"A confined liquid interface should transport inert particles toward a pressure node under slow periodic squeezing.","test":"Track particles and fluid markers.","contrary":"Transport is entirely bulk advection.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0332","hypothesis":"A confined liquid interface should transport inert particles toward a pressure node under slow periodic squeezing.","prediction":"A confined liquid interface should transport inert particles toward a pressure node under slow periodic squeezing.","test":"Track particles and fluid markers.","contrary_outcome":"Transport is entirely bulk advection.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0333","id":"S4-0333","volume":"900v4","title":"A partially wet porous ring should rotate under uniform airflow through asymmetric evaporation torque.","prediction":"A partially wet porous ring should rotate under uniform airflow through asymmetric evaporation torque.","test":"Measure torque and wetting pattern.","contrary":"Rotation follows aerodynamic asymmetry alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0333","hypothesis":"A partially wet porous ring should rotate under uniform airflow through asymmetric evaporation torque.","prediction":"A partially wet porous ring should rotate under uniform airflow through asymmetric evaporation torque.","test":"Measure torque and wetting pattern.","contrary_outcome":"Rotation follows aerodynamic asymmetry alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0334","id":"S4-0334","volume":"900v4","title":"A capillary channel should arrest a dissolving salt front at a widening junction.","prediction":"A capillary channel should arrest a dissolving salt front at a widening junction.","test":"Image benign dissolution.","contrary":"Front crosses without a reproducible pause.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0334","hypothesis":"A capillary channel should arrest a dissolving salt front at a widening junction.","prediction":"A capillary channel should arrest a dissolving salt front at a widening junction.","test":"Image benign dissolution.","contrary_outcome":"Front crosses without a reproducible pause.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0335","id":"S4-0335","volume":"900v4","title":"A freezing water bridge should concentrate strain into a sacrificial neck before stressing its supports.","prediction":"A freezing water bridge should concentrate strain into a sacrificial neck before stressing its supports.","test":"Measure support forces.","contrary":"Supports overload before neck failure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0335","hypothesis":"A freezing water bridge should concentrate strain into a sacrificial neck before stressing its supports.","prediction":"A freezing water bridge should concentrate strain into a sacrificial neck before stressing its supports.","test":"Measure support forces.","contrary_outcome":"Supports overload before neck failure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0336","id":"S4-0336","volume":"900v4","title":"A draining liquid film should retain a readable thickness pattern after contact with a shaped cooling plate.","prediction":"A draining liquid film should retain a readable thickness pattern after contact with a shaped cooling plate.","test":"Measure residual profile.","contrary":"Thermal pattern erases immediately.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0336","hypothesis":"A draining liquid film should retain a readable thickness pattern after contact with a shaped cooling plate.","prediction":"A draining liquid film should retain a readable thickness pattern after contact with a shaped cooling plate.","test":"Measure residual profile.","contrary_outcome":"Thermal pattern erases immediately.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0337","id":"S4-0337","volume":"900v4","title":"A porous evaporation pump should recover after an air interruption when a side reservoir stores a liquid seed.","prediction":"A porous evaporation pump should recover after an air interruption when a side reservoir stores a liquid seed.","test":"Measure restart probability.","contrary":"Seed reservoir does not improve recovery.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0337","hypothesis":"A porous evaporation pump should recover after an air interruption when a side reservoir stores a liquid seed.","prediction":"A porous evaporation pump should recover after an air interruption when a side reservoir stores a liquid seed.","test":"Measure restart probability.","contrary_outcome":"Seed reservoir does not improve recovery.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0338","id":"S4-0338","volume":"900v4","title":"A droplet pair should reveal an intervening vapor barrier through unequal cooling after identical illumination.","prediction":"A droplet pair should reveal an intervening vapor barrier through unequal cooling after identical illumination.","test":"Measure transient temperatures.","contrary":"The barrier creates no differential thermal signal.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0338","hypothesis":"A droplet pair should reveal an intervening vapor barrier through unequal cooling after identical illumination.","prediction":"A droplet pair should reveal an intervening vapor barrier through unequal cooling after identical illumination.","test":"Measure transient temperatures.","contrary_outcome":"The barrier creates no differential thermal signal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0339","id":"S4-0339","volume":"900v4","title":"A crystallization front should slow before meeting an impermeable obstacle because local solute redistribution changes supersaturation.","prediction":"A crystallization front should slow before meeting an impermeable obstacle because local solute redistribution changes supersaturation.","test":"Image front speed.","contrary":"Speed changes only at contact.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0339","hypothesis":"A crystallization front should slow before meeting an impermeable obstacle because local solute redistribution changes supersaturation.","prediction":"A crystallization front should slow before meeting an impermeable obstacle because local solute redistribution changes supersaturation.","test":"Image front speed.","contrary_outcome":"Speed changes only at contact.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0339","hypothesis":"A crystallization front should slow before meeting an impermeable obstacle because local solute redistribution changes supersaturation.","prediction":"A crystallization front should slow before meeting an impermeable obstacle because local solute redistribution changes supersaturation.","test":"Image front speed.","contrary_outcome":"Speed changes only at contact.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":41,"query":"A crystallization front slow before meeting an impermeable obstacle because local solute redistribution changes supersaturation. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Image front speed."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0340","id":"S4-0340","volume":"900v4","title":"A liquid film should detach cleanly from a blade when a small gas vent follows its receding contact line.","prediction":"A liquid film should detach cleanly from a blade when a small gas vent follows its receding contact line.","test":"Measure retained liquid.","contrary":"Vent breaks the film prematurely and increases residue.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0340","hypothesis":"A liquid film should detach cleanly from a blade when a small gas vent follows its receding contact line.","prediction":"A liquid film should detach cleanly from a blade when a small gas vent follows its receding contact line.","test":"Measure retained liquid.","contrary_outcome":"Vent breaks the film prematurely and increases residue.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0341","id":"S4-0341","volume":"900v4","title":"A confined foam should redistribute bubbles away from a heated region before significant evaporation.","prediction":"A confined foam should redistribute bubbles away from a heated region before significant evaporation.","test":"Track bubbles and liquid flow.","contrary":"Motion follows bulk thermal expansion only.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0341","hypothesis":"A confined foam should redistribute bubbles away from a heated region before significant evaporation.","prediction":"A confined foam should redistribute bubbles away from a heated region before significant evaporation.","test":"Track bubbles and liquid flow.","contrary_outcome":"Motion follows bulk thermal expansion only.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0342","id":"S4-0342","volume":"900v4","title":"A wetting front should reveal pore-connectivity loss through intermittent advance timing.","prediction":"A wetting front should reveal pore-connectivity loss through intermittent advance timing.","test":"Control blocked connections.","contrary":"Timing reflects pore size alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0342","hypothesis":"A wetting front should reveal pore-connectivity loss through intermittent advance timing.","prediction":"A wetting front should reveal pore-connectivity loss through intermittent advance timing.","test":"Control blocked connections.","contrary_outcome":"Timing reflects pore size alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0343","id":"S4-0343","volume":"900v4","title":"A freezing interface should preserve a dissolved-dye concentration ridge that marks a brief growth pause.","prediction":"A freezing interface should preserve a dissolved-dye concentration ridge that marks a brief growth pause.","test":"Pause controlled freezing and image.","contrary":"No distinct ridge survives.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0343","hypothesis":"A freezing interface should preserve a dissolved-dye concentration ridge that marks a brief growth pause.","prediction":"A freezing interface should preserve a dissolved-dye concentration ridge that marks a brief growth pause.","test":"Pause controlled freezing and image.","contrary_outcome":"No distinct ridge survives.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0344","id":"S4-0344","volume":"900v4","title":"A capillary reservoir should retain a suspended particle layer while delivering particle-free liquid through an elevated outlet.","prediction":"A capillary reservoir should retain a suspended particle layer while delivering particle-free liquid through an elevated outlet.","test":"Count transmitted particles.","contrary":"Particles escape with unchanged concentration.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0344","hypothesis":"A capillary reservoir should retain a suspended particle layer while delivering particle-free liquid through an elevated outlet.","prediction":"A capillary reservoir should retain a suspended particle layer while delivering particle-free liquid through an elevated outlet.","test":"Count transmitted particles.","contrary_outcome":"Particles escape with unchanged concentration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0345","id":"S4-0345","volume":"900v4","title":"A shrinking droplet should rotate a free textured disk through differential contact-line release.","prediction":"A shrinking droplet should rotate a free textured disk through differential contact-line release.","test":"Track angle and contact line.","contrary":"Rotation lacks reproducible direction.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0345","hypothesis":"A shrinking droplet should rotate a free textured disk through differential contact-line release.","prediction":"A shrinking droplet should rotate a free textured disk through differential contact-line release.","test":"Track angle and contact line.","contrary_outcome":"Rotation lacks reproducible direction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0346","id":"S4-0346","volume":"900v4","title":"A crystalline salt film should show a reproducible conductivity-free optical precursor to mechanical spalling.","prediction":"A crystalline salt film should show a reproducible conductivity-free optical precursor to mechanical spalling.","test":"Measure scattering and adhesion.","contrary":"Optical change appears only after spall.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0346","hypothesis":"A crystalline salt film should show a reproducible conductivity-free optical precursor to mechanical spalling.","prediction":"A crystalline salt film should show a reproducible conductivity-free optical precursor to mechanical spalling.","test":"Measure scattering and adhesion.","contrary_outcome":"Optical change appears only after spall.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0347","id":"S4-0347","volume":"900v4","title":"A liquid bridge should transfer a fixed solute fraction between unequal reservoirs through controlled rupture position.","prediction":"A liquid bridge should transfer a fixed solute fraction between unequal reservoirs through controlled rupture position.","test":"Measure tracer partition.","contrary":"Partition depends unpredictably on history.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0347","hypothesis":"A liquid bridge should transfer a fixed solute fraction between unequal reservoirs through controlled rupture position.","prediction":"A liquid bridge should transfer a fixed solute fraction between unequal reservoirs through controlled rupture position.","test":"Measure tracer partition.","contrary_outcome":"Partition depends unpredictably on history.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0348","id":"S4-0348","volume":"900v4","title":"A porous wick should resist contamination-induced flow collapse when alternate pores remain unwetted until needed.","prediction":"A porous wick should resist contamination-induced flow collapse when alternate pores remain unwetted until needed.","test":"Measure flux after controlled fouling.","contrary":"Reserve pores fail to activate.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0348","hypothesis":"A porous wick should resist contamination-induced flow collapse when alternate pores remain unwetted until needed.","prediction":"A porous wick should resist contamination-induced flow collapse when alternate pores remain unwetted until needed.","test":"Measure flux after controlled fouling.","contrary_outcome":"Reserve pores fail to activate.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0348","hypothesis":"A porous wick should resist contamination-induced flow collapse when alternate pores remain unwetted until needed.","prediction":"A porous wick should resist contamination-induced flow collapse when alternate pores remain unwetted until needed.","test":"Measure flux after controlled fouling.","contrary_outcome":"Reserve pores fail to activate.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":42,"query":"A porous wick resist contamination-induced flow collapse when alternate pores remain unwetted until needed. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure flux after controlled fouling."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0349","id":"S4-0349","volume":"900v4","title":"A thin ice sheet should reveal hidden liquid pockets through local flexural-wave slowing.","prediction":"A thin ice sheet should reveal hidden liquid pockets through local flexural-wave slowing.","test":"Map waves over known pockets.","contrary":"Temperature variation masks pocket signal.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0349","hypothesis":"A thin ice sheet should reveal hidden liquid pockets through local flexural-wave slowing.","prediction":"A thin ice sheet should reveal hidden liquid pockets through local flexural-wave slowing.","test":"Map waves over known pockets.","contrary_outcome":"Temperature variation masks pocket signal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0350","id":"S4-0350","volume":"900v4","title":"A drying droplet should record oscillatory acceleration as alternating deposit bands only above a capillary response threshold.","prediction":"A drying droplet should record oscillatory acceleration as alternating deposit bands only above a capillary response threshold.","test":"Apply calibrated shaking.","contrary":"Bands occur equally without acceleration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0350","hypothesis":"A drying droplet should record oscillatory acceleration as alternating deposit bands only above a capillary response threshold.","prediction":"A drying droplet should record oscillatory acceleration as alternating deposit bands only above a capillary response threshold.","test":"Apply calibrated shaking.","contrary_outcome":"Bands occur equally without acceleration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0351","id":"S4-0351","volume":"900v4","title":"A foam drainage collector should separate liquid pulses from gas release through a compliant check chamber.","prediction":"A foam drainage collector should separate liquid pulses from gas release through a compliant check chamber.","test":"Measure phase outputs.","contrary":"Gas repeatedly contaminates liquid discharge.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0351","hypothesis":"A foam drainage collector should separate liquid pulses from gas release through a compliant check chamber.","prediction":"A foam drainage collector should separate liquid pulses from gas release through a compliant check chamber.","test":"Measure phase outputs.","contrary_outcome":"Gas repeatedly contaminates liquid discharge.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0352","id":"S4-0352","volume":"900v4","title":"A growing crystal should avoid self-shadowed regions when illumination changes local evaporation rather than chemistry.","prediction":"A growing crystal should avoid self-shadowed regions when illumination changes local evaporation rather than chemistry.","test":"Map benign crystal growth.","contrary":"Growth follows temperature alone without geometric selectivity.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0352","hypothesis":"A growing crystal should avoid self-shadowed regions when illumination changes local evaporation rather than chemistry.","prediction":"A growing crystal should avoid self-shadowed regions when illumination changes local evaporation rather than chemistry.","test":"Map benign crystal growth.","contrary_outcome":"Growth follows temperature alone without geometric selectivity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0353","id":"S4-0353","volume":"900v4","title":"A capillary liquid bridge should remain connected during lateral motion when one support rotates freely.","prediction":"A capillary liquid bridge should remain connected during lateral motion when one support rotates freely.","test":"Measure rupture distance.","contrary":"Free rotation gives no extension.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0353","hypothesis":"A capillary liquid bridge should remain connected during lateral motion when one support rotates freely.","prediction":"A capillary liquid bridge should remain connected during lateral motion when one support rotates freely.","test":"Measure rupture distance.","contrary_outcome":"Free rotation gives no extension.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0354","id":"S4-0354","volume":"900v4","title":"A frozen porous plug should reopen first along a deliberately low-thermal-mass path.","prediction":"A frozen porous plug should reopen first along a deliberately low-thermal-mass path.","test":"Image thawing.","contrary":"Reopening occurs randomly.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0354","hypothesis":"A frozen porous plug should reopen first along a deliberately low-thermal-mass path.","prediction":"A frozen porous plug should reopen first along a deliberately low-thermal-mass path.","test":"Image thawing.","contrary_outcome":"Reopening occurs randomly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0355","id":"S4-0355","volume":"900v4","title":"A drying film should reduce wrinkle coarsening when its boundary tension is released gradually.","prediction":"A drying film should reduce wrinkle coarsening when its boundary tension is released gradually.","test":"Measure wavelength evolution.","contrary":"Release accelerates coarsening.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0355","hypothesis":"A drying film should reduce wrinkle coarsening when its boundary tension is released gradually.","prediction":"A drying film should reduce wrinkle coarsening when its boundary tension is released gradually.","test":"Measure wavelength evolution.","contrary_outcome":"Release accelerates coarsening.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0356","id":"S4-0356","volume":"900v4","title":"A suspension interface should separate inert particles by deformability at matched diameter during passage through a tapered gap.","prediction":"A suspension interface should separate inert particles by deformability at matched diameter during passage through a tapered gap.","test":"Measure outlet populations.","contrary":"Separation follows friction alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0356","hypothesis":"A suspension interface should separate inert particles by deformability at matched diameter during passage through a tapered gap.","prediction":"A suspension interface should separate inert particles by deformability at matched diameter during passage through a tapered gap.","test":"Measure outlet populations.","contrary_outcome":"Separation follows friction alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0357","id":"S4-0357","volume":"900v4","title":"A capillary trap should release trapped gas under vibration only when the gas volume exceeds a geometric threshold.","prediction":"A capillary trap should release trapped gas under vibration only when the gas volume exceeds a geometric threshold.","test":"Measure escape conditions.","contrary":"Small and large pockets escape equally.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0357","hypothesis":"A capillary trap should release trapped gas under vibration only when the gas volume exceeds a geometric threshold.","prediction":"A capillary trap should release trapped gas under vibration only when the gas volume exceeds a geometric threshold.","test":"Measure escape conditions.","contrary_outcome":"Small and large pockets escape equally.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0357","hypothesis":"A capillary trap should release trapped gas under vibration only when the gas volume exceeds a geometric threshold.","prediction":"A capillary trap should release trapped gas under vibration only when the gas volume exceeds a geometric threshold.","test":"Measure escape conditions.","contrary_outcome":"Small and large pockets escape equally.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":43,"query":"A capillary trap release trapped gas under vibration only when the gas volume exceeds a geometric threshold. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure escape conditions."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0358","id":"S4-0358","volume":"900v4","title":"A crystalline surface should retain a humidity-cycle count in discrete growth rings under a bounded protocol.","prediction":"A crystalline surface should retain a humidity-cycle count in discrete growth rings under a bounded protocol.","test":"Apply known cycles.","contrary":"Rings merge or fail to count cycles.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0358","hypothesis":"A crystalline surface should retain a humidity-cycle count in discrete growth rings under a bounded protocol.","prediction":"A crystalline surface should retain a humidity-cycle count in discrete growth rings under a bounded protocol.","test":"Apply known cycles.","contrary_outcome":"Rings merge or fail to count cycles.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0359","id":"S4-0359","volume":"900v4","title":"A liquid film should spread around a corner faster when its support flexes toward the advancing front.","prediction":"A liquid film should spread around a corner faster when its support flexes toward the advancing front.","test":"Measure propagation speed.","contrary":"Flexure retards spreading.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0359","hypothesis":"A liquid film should spread around a corner faster when its support flexes toward the advancing front.","prediction":"A liquid film should spread around a corner faster when its support flexes toward the advancing front.","test":"Measure propagation speed.","contrary_outcome":"Flexure retards spreading.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0360","id":"S4-0360","volume":"900v4","title":"A freezing meniscus should displace a compliant gate and stop further feed before pressure rises sharply.","prediction":"A freezing meniscus should displace a compliant gate and stop further feed before pressure rises sharply.","test":"Measure gate timing and pressure.","contrary":"Pressure rises before closure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0360","hypothesis":"A freezing meniscus should displace a compliant gate and stop further feed before pressure rises sharply.","prediction":"A freezing meniscus should displace a compliant gate and stop further feed before pressure rises sharply.","test":"Measure gate timing and pressure.","contrary_outcome":"Pressure rises before closure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0361","id":"S4-0361","volume":"900v4","title":"A foam-filled flexible tube should absorb bending through bubble rearrangement without large flow resistance changes.","prediction":"A foam-filled flexible tube should absorb bending through bubble rearrangement without large flow resistance changes.","test":"Measure bend force and pressure drop.","contrary":"Bending strongly blocks flow.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0361","hypothesis":"A foam-filled flexible tube should absorb bending through bubble rearrangement without large flow resistance changes.","prediction":"A foam-filled flexible tube should absorb bending through bubble rearrangement without large flow resistance changes.","test":"Measure bend force and pressure drop.","contrary_outcome":"Bending strongly blocks flow.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0362","id":"S4-0362","volume":"900v4","title":"A wetting ridge should guide a receding droplet into a collection pocket independent of small substrate tilt.","prediction":"A wetting ridge should guide a receding droplet into a collection pocket independent of small substrate tilt.","test":"Measure final position.","contrary":"Tilt dominates collection.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0362","hypothesis":"A wetting ridge should guide a receding droplet into a collection pocket independent of small substrate tilt.","prediction":"A wetting ridge should guide a receding droplet into a collection pocket independent of small substrate tilt.","test":"Measure final position.","contrary_outcome":"Tilt dominates collection.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0363","id":"S4-0363","volume":"900v4","title":"A drying porous disk should emit a distinct acoustic burst when its liquid network loses connectivity.","prediction":"A drying porous disk should emit a distinct acoustic burst when its liquid network loses connectivity.","test":"Record sound and saturation.","contrary":"Bursts are unrelated to connectivity loss.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0363","hypothesis":"A drying porous disk should emit a distinct acoustic burst when its liquid network loses connectivity.","prediction":"A drying porous disk should emit a distinct acoustic burst when its liquid network loses connectivity.","test":"Record sound and saturation.","contrary_outcome":"Bursts are unrelated to connectivity loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0364","id":"S4-0364","volume":"900v4","title":"A liquid bridge should reveal anisotropic surface texture through direction-dependent rupture distance.","prediction":"A liquid bridge should reveal anisotropic surface texture through direction-dependent rupture distance.","test":"Test rotated identical textures.","contrary":"Rupture remains isotropic.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0364","hypothesis":"A liquid bridge should reveal anisotropic surface texture through direction-dependent rupture distance.","prediction":"A liquid bridge should reveal anisotropic surface texture through direction-dependent rupture distance.","test":"Test rotated identical textures.","contrary_outcome":"Rupture remains isotropic.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0365","id":"S4-0365","volume":"900v4","title":"A crystallizing reservoir should sustain outflow longer when a flexible outlet expands under deposition pressure.","prediction":"A crystallizing reservoir should sustain outflow longer when a flexible outlet expands under deposition pressure.","test":"Measure discharge lifetime.","contrary":"Expansion accelerates plugging.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0365","hypothesis":"A crystallizing reservoir should sustain outflow longer when a flexible outlet expands under deposition pressure.","prediction":"A crystallizing reservoir should sustain outflow longer when a flexible outlet expands under deposition pressure.","test":"Measure discharge lifetime.","contrary_outcome":"Expansion accelerates plugging.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0366","id":"S4-0366","volume":"900v4","title":"A thin ice coating should release in larger intact pieces when its backing bends along a traveling line.","prediction":"A thin ice coating should release in larger intact pieces when its backing bends along a traveling line.","test":"Measure fragment sizes.","contrary":"Bending produces finer fragmentation.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0366","hypothesis":"A thin ice coating should release in larger intact pieces when its backing bends along a traveling line.","prediction":"A thin ice coating should release in larger intact pieces when its backing bends along a traveling line.","test":"Measure fragment sizes.","contrary_outcome":"Bending produces finer fragmentation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0367","id":"S4-0367","volume":"900v4","title":"A confined droplet should display a pressure plateau during reversible shape switching between two recesses.","prediction":"A confined droplet should display a pressure plateau during reversible shape switching between two recesses.","test":"Measure pressure-volume curve.","contrary":"Switching lacks a stable plateau.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0367","hypothesis":"A confined droplet should display a pressure plateau during reversible shape switching between two recesses.","prediction":"A confined droplet should display a pressure plateau during reversible shape switching between two recesses.","test":"Measure pressure-volume curve.","contrary_outcome":"Switching lacks a stable plateau.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0368","id":"S4-0368","volume":"900v4","title":"A drying suspension should produce a more uniform deposit when its support slowly changes curvature.","prediction":"A drying suspension should produce a more uniform deposit when its support slowly changes curvature.","test":"Map inert deposit thickness.","contrary":"Curvature changes worsen nonuniformity.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0368","hypothesis":"A drying suspension should produce a more uniform deposit when its support slowly changes curvature.","prediction":"A drying suspension should produce a more uniform deposit when its support slowly changes curvature.","test":"Map inert deposit thickness.","contrary_outcome":"Curvature changes worsen nonuniformity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0368","hypothesis":"A drying suspension should produce a more uniform deposit when its support slowly changes curvature.","prediction":"A drying suspension should produce a more uniform deposit when its support slowly changes curvature.","test":"Map inert deposit thickness.","contrary_outcome":"Curvature changes worsen nonuniformity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":44,"query":"A drying suspension produce a more uniform deposit when its support slowly changes curvature. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Map inert deposit thickness."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0369","id":"S4-0369","volume":"900v4","title":"A porous capillary joint should tolerate repeated separation by preserving liquid in protected side pores.","prediction":"A porous capillary joint should tolerate repeated separation by preserving liquid in protected side pores.","test":"Measure reconnection flux.","contrary":"Joint dries irreversibly.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0369","hypothesis":"A porous capillary joint should tolerate repeated separation by preserving liquid in protected side pores.","prediction":"A porous capillary joint should tolerate repeated separation by preserving liquid in protected side pores.","test":"Measure reconnection flux.","contrary_outcome":"Joint dries irreversibly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0370","id":"S4-0370","volume":"900v4","title":"A salt-growth front should reveal local stress through a measurable change in branching angle.","prediction":"A salt-growth front should reveal local stress through a measurable change in branching angle.","test":"Apply controlled compression.","contrary":"Branch angles are stress-insensitive.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0370","hypothesis":"A salt-growth front should reveal local stress through a measurable change in branching angle.","prediction":"A salt-growth front should reveal local stress through a measurable change in branching angle.","test":"Apply controlled compression.","contrary_outcome":"Branch angles are stress-insensitive.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0371","id":"S4-0371","volume":"900v4","title":"A liquid foam should attenuate mechanical pulses more strongly when bubbles can migrate between compartments.","prediction":"A liquid foam should attenuate mechanical pulses more strongly when bubbles can migrate between compartments.","test":"Measure transmitted force.","contrary":"Migration adds no attenuation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0371","hypothesis":"A liquid foam should attenuate mechanical pulses more strongly when bubbles can migrate between compartments.","prediction":"A liquid foam should attenuate mechanical pulses more strongly when bubbles can migrate between compartments.","test":"Measure transmitted force.","contrary_outcome":"Migration adds no attenuation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0372","id":"S4-0372","volume":"900v4","title":"A frozen channel should measure cumulative thawing through an irreversible meniscus displacement in an attached indicator.","prediction":"A frozen channel should measure cumulative thawing through an irreversible meniscus displacement in an attached indicator.","test":"Compare heat input and displacement.","contrary":"Indicator responds mainly to ambient pressure.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0372","hypothesis":"A frozen channel should measure cumulative thawing through an irreversible meniscus displacement in an attached indicator.","prediction":"A frozen channel should measure cumulative thawing through an irreversible meniscus displacement in an attached indicator.","test":"Compare heat input and displacement.","contrary_outcome":"Indicator responds mainly to ambient pressure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0373","id":"S4-0373","volume":"900v4","title":"A capillary groove should shed contaminant particles during drying by lifting them on a receding liquid ridge.","prediction":"A capillary groove should shed contaminant particles during drying by lifting them on a receding liquid ridge.","test":"Measure retained inert particles.","contrary":"Drying leaves particles attached.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0373","hypothesis":"A capillary groove should shed contaminant particles during drying by lifting them on a receding liquid ridge.","prediction":"A capillary groove should shed contaminant particles during drying by lifting them on a receding liquid ridge.","test":"Measure retained inert particles.","contrary_outcome":"Drying leaves particles attached.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0374","id":"S4-0374","volume":"900v4","title":"A draining film should self-level a small suspended membrane through unequal liquid weight.","prediction":"A draining film should self-level a small suspended membrane through unequal liquid weight.","test":"Measure tilt recovery.","contrary":"Liquid migration destabilizes tilt.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0374","hypothesis":"A draining film should self-level a small suspended membrane through unequal liquid weight.","prediction":"A draining film should self-level a small suspended membrane through unequal liquid weight.","test":"Measure tilt recovery.","contrary_outcome":"Liquid migration destabilizes tilt.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0375","id":"S4-0375","volume":"900v4","title":"A crystallizing droplet should produce a reproducible central void when outward flow stops before edge solidification.","prediction":"A crystallizing droplet should produce a reproducible central void when outward flow stops before edge solidification.","test":"Image final structures.","contrary":"Void formation is random.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0375","hypothesis":"A crystallizing droplet should produce a reproducible central void when outward flow stops before edge solidification.","prediction":"A crystallizing droplet should produce a reproducible central void when outward flow stops before edge solidification.","test":"Image final structures.","contrary_outcome":"Void formation is random.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0376","id":"S4-0376","volume":"900v4","title":"A liquid bridge should transmit torsion differently before and after an interfacial film forms.","prediction":"A liquid bridge should transmit torsion differently before and after an interfacial film forms.","test":"Measure torque relaxation with controlled aging.","contrary":"Changes are explained by bulk viscosity alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0376","hypothesis":"A liquid bridge should transmit torsion differently before and after an interfacial film forms.","prediction":"A liquid bridge should transmit torsion differently before and after an interfacial film forms.","test":"Measure torque relaxation with controlled aging.","contrary_outcome":"Changes are explained by bulk viscosity alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0377","id":"S4-0377","volume":"900v4","title":"A porous freezing pad should limit expansion force through connected unfrozen relief channels.","prediction":"A porous freezing pad should limit expansion force through connected unfrozen relief channels.","test":"Measure compression forces.","contrary":"Channels freeze before providing relief.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0377","hypothesis":"A porous freezing pad should limit expansion force through connected unfrozen relief channels.","prediction":"A porous freezing pad should limit expansion force through connected unfrozen relief channels.","test":"Measure compression forces.","contrary_outcome":"Channels freeze before providing relief.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0378","id":"S4-0378","volume":"900v4","title":"A drying capillary network should reveal its most conductive path through the last surviving liquid connection.","prediction":"A drying capillary network should reveal its most conductive path through the last surviving liquid connection.","test":"Compare imaging with independent conductance.","contrary":"Last path is determined by evaporation exposure alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0378","hypothesis":"A drying capillary network should reveal its most conductive path through the last surviving liquid connection.","prediction":"A drying capillary network should reveal its most conductive path through the last surviving liquid connection.","test":"Compare imaging with independent conductance.","contrary_outcome":"Last path is determined by evaporation exposure alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0379","id":"S4-0379","volume":"900v4","title":"A confined emulsion should avoid large-drop formation when wall compliance accommodates collisions.","prediction":"A confined emulsion should avoid large-drop formation when wall compliance accommodates collisions.","test":"Image droplet encounters.","contrary":"Compliance promotes coalescence.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0379","hypothesis":"A confined emulsion should avoid large-drop formation when wall compliance accommodates collisions.","prediction":"A confined emulsion should avoid large-drop formation when wall compliance accommodates collisions.","test":"Image droplet encounters.","contrary_outcome":"Compliance promotes coalescence.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0380","id":"S4-0380","volume":"900v4","title":"A crystalline coating should delaminate more controllably when a patterned weak boundary guides the front.","prediction":"A crystalline coating should delaminate more controllably when a patterned weak boundary guides the front.","test":"Map benign salt release.","contrary":"Front ignores the boundary.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0380","hypothesis":"A crystalline coating should delaminate more controllably when a patterned weak boundary guides the front.","prediction":"A crystalline coating should delaminate more controllably when a patterned weak boundary guides the front.","test":"Map benign salt release.","contrary_outcome":"Front ignores the boundary.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0380","hypothesis":"A crystalline coating should delaminate more controllably when a patterned weak boundary guides the front.","prediction":"A crystalline coating should delaminate more controllably when a patterned weak boundary guides the front.","test":"Map benign salt release.","contrary_outcome":"Front ignores the boundary.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":45,"query":"A crystalline coating delaminate more controllably when a patterned weak boundary guides the front. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Map benign salt release."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0381","id":"S4-0381","volume":"900v4","title":"A liquid meniscus should estimate local wall compliance through pressure-dependent contact-line displacement.","prediction":"A liquid meniscus should estimate local wall compliance through pressure-dependent contact-line displacement.","test":"Calibrate wall stiffness.","contrary":"Wetting hysteresis prevents inversion.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0381","hypothesis":"A liquid meniscus should estimate local wall compliance through pressure-dependent contact-line displacement.","prediction":"A liquid meniscus should estimate local wall compliance through pressure-dependent contact-line displacement.","test":"Calibrate wall stiffness.","contrary_outcome":"Wetting hysteresis prevents inversion.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0382","id":"S4-0382","volume":"900v4","title":"A foam should preserve its bubble-size distribution longer when drainage liquid is recirculated locally by capillary return paths.","prediction":"A foam should preserve its bubble-size distribution longer when drainage liquid is recirculated locally by capillary return paths.","test":"Measure aging.","contrary":"Return paths accelerate coarsening.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0382","hypothesis":"A foam should preserve its bubble-size distribution longer when drainage liquid is recirculated locally by capillary return paths.","prediction":"A foam should preserve its bubble-size distribution longer when drainage liquid is recirculated locally by capillary return paths.","test":"Measure aging.","contrary_outcome":"Return paths accelerate coarsening.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0383","id":"S4-0383","volume":"900v4","title":"A freezing droplet should identify support thermal anisotropy through the orientation of its first solidification front.","prediction":"A freezing droplet should identify support thermal anisotropy through the orientation of its first solidification front.","test":"Rotate known anisotropic supports.","contrary":"Orientation fails to track anisotropy.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0383","hypothesis":"A freezing droplet should identify support thermal anisotropy through the orientation of its first solidification front.","prediction":"A freezing droplet should identify support thermal anisotropy through the orientation of its first solidification front.","test":"Rotate known anisotropic supports.","contrary_outcome":"Orientation fails to track anisotropy.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0384","id":"S4-0384","volume":"900v4","title":"A drying film should stop crack propagation when a local reservoir rehydrates the crack tip.","prediction":"A drying film should stop crack propagation when a local reservoir rehydrates the crack tip.","test":"Image cracks and liquid delivery.","contrary":"Rehydration arrives too late.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0384","hypothesis":"A drying film should stop crack propagation when a local reservoir rehydrates the crack tip.","prediction":"A drying film should stop crack propagation when a local reservoir rehydrates the crack tip.","test":"Image cracks and liquid delivery.","contrary_outcome":"Rehydration arrives too late.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0385","id":"S4-0385","volume":"900v4","title":"A capillary sample holder should reduce evaporation bias by moving its free surface into a narrow recess as volume falls.","prediction":"A capillary sample holder should reduce evaporation bias by moving its free surface into a narrow recess as volume falls.","test":"Measure concentration drift.","contrary":"Bias remains unchanged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0385","hypothesis":"A capillary sample holder should reduce evaporation bias by moving its free surface into a narrow recess as volume falls.","prediction":"A capillary sample holder should reduce evaporation bias by moving its free surface into a narrow recess as volume falls.","test":"Measure concentration drift.","contrary_outcome":"Bias remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0386","id":"S4-0386","volume":"900v4","title":"A growing crystal should lift an overlying flexible sheet at a force predictable from the advancing contact area.","prediction":"A growing crystal should lift an overlying flexible sheet at a force predictable from the advancing contact area.","test":"Measure force and image growth.","contrary":"Force is dominated by uncontrolled adhesion.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0386","hypothesis":"A growing crystal should lift an overlying flexible sheet at a force predictable from the advancing contact area.","prediction":"A growing crystal should lift an overlying flexible sheet at a force predictable from the advancing contact area.","test":"Measure force and image growth.","contrary_outcome":"Force is dominated by uncontrolled adhesion.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0387","id":"S4-0387","volume":"900v4","title":"A liquid bridge should reject a short lateral shock through contact-line pinning but release under sustained shear.","prediction":"A liquid bridge should reject a short lateral shock through contact-line pinning but release under sustained shear.","test":"Apply equal-peak histories.","contrary":"Duration selectivity is absent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0387","hypothesis":"A liquid bridge should reject a short lateral shock through contact-line pinning but release under sustained shear.","prediction":"A liquid bridge should reject a short lateral shock through contact-line pinning but release under sustained shear.","test":"Apply equal-peak histories.","contrary_outcome":"Duration selectivity is absent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0388","id":"S4-0388","volume":"900v4","title":"A porous wick should expose its remaining liquid capacity through a visible moving dry boundary.","prediction":"A porous wick should expose its remaining liquid capacity through a visible moving dry boundary.","test":"Compare boundary with gravimetry.","contrary":"Boundary position is not capacity-specific.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0388","hypothesis":"A porous wick should expose its remaining liquid capacity through a visible moving dry boundary.","prediction":"A porous wick should expose its remaining liquid capacity through a visible moving dry boundary.","test":"Compare boundary with gravimetry.","contrary_outcome":"Boundary position is not capacity-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0389","id":"S4-0389","volume":"900v4","title":"A thawing ice layer should generate a detectable low-frequency resonance before mechanical release.","prediction":"A thawing ice layer should generate a detectable low-frequency resonance before mechanical release.","test":"Measure vibration and detachment.","contrary":"Resonance appears only after release.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0389","hypothesis":"A thawing ice layer should generate a detectable low-frequency resonance before mechanical release.","prediction":"A thawing ice layer should generate a detectable low-frequency resonance before mechanical release.","test":"Measure vibration and detachment.","contrary_outcome":"Resonance appears only after release.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0390","id":"S4-0390","volume":"900v4","title":"A confined liquid film should resist breakup when its support supplies liquid preferentially to thinning regions.","prediction":"A confined liquid film should resist breakup when its support supplies liquid preferentially to thinning regions.","test":"Map film thickness.","contrary":"Supply reinforces thick regions instead.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0390","hypothesis":"A confined liquid film should resist breakup when its support supplies liquid preferentially to thinning regions.","prediction":"A confined liquid film should resist breakup when its support supplies liquid preferentially to thinning regions.","test":"Map film thickness.","contrary_outcome":"Supply reinforces thick regions instead.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0391","id":"S4-0391","volume":"900v4","title":"A crystallization inhibitor-free groove should redirect salt growth away from a mechanical contact through evaporation geometry.","prediction":"A crystallization inhibitor-free groove should redirect salt growth away from a mechanical contact through evaporation geometry.","test":"Map deposits.","contrary":"Contact still accumulates crystals.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0391","hypothesis":"A crystallization inhibitor-free groove should redirect salt growth away from a mechanical contact through evaporation geometry.","prediction":"A crystallization inhibitor-free groove should redirect salt growth away from a mechanical contact through evaporation geometry.","test":"Map deposits.","contrary_outcome":"Contact still accumulates crystals.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0392","id":"S4-0392","volume":"900v4","title":"A drying suspension should separate aggregates from primary particles through different contact-line escape thresholds.","prediction":"A drying suspension should separate aggregates from primary particles through different contact-line escape thresholds.","test":"Track inert clusters.","contrary":"Both deposit together.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0392","hypothesis":"A drying suspension should separate aggregates from primary particles through different contact-line escape thresholds.","prediction":"A drying suspension should separate aggregates from primary particles through different contact-line escape thresholds.","test":"Track inert clusters.","contrary_outcome":"Both deposit together.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0393","id":"S4-0393","volume":"900v4","title":"A capillary bridge array should indicate local drying through a cascade of discrete rupture events.","prediction":"A capillary bridge array should indicate local drying through a cascade of discrete rupture events.","test":"Measure event timing and remaining liquid.","contrary":"Cascade is unrelated to local saturation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0393","hypothesis":"A capillary bridge array should indicate local drying through a cascade of discrete rupture events.","prediction":"A capillary bridge array should indicate local drying through a cascade of discrete rupture events.","test":"Measure event timing and remaining liquid.","contrary_outcome":"Cascade is unrelated to local saturation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0394","id":"S4-0394","volume":"900v4","title":"A freezing liquid pocket should rotate a hinged marker before expansion damages its enclosure.","prediction":"A freezing liquid pocket should rotate a hinged marker before expansion damages its enclosure.","test":"Measure marker angle and wall strain.","contrary":"Enclosure strains first.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0394","hypothesis":"A freezing liquid pocket should rotate a hinged marker before expansion damages its enclosure.","prediction":"A freezing liquid pocket should rotate a hinged marker before expansion damages its enclosure.","test":"Measure marker angle and wall strain.","contrary_outcome":"Enclosure strains first.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0395","id":"S4-0395","volume":"900v4","title":"A foam film should reveal local contamination through an asymmetric response to a small shear oscillation.","prediction":"A foam film should reveal local contamination through an asymmetric response to a small shear oscillation.","test":"Apply controlled benign contaminants.","contrary":"Response is not contamination-specific.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0395","hypothesis":"A foam film should reveal local contamination through an asymmetric response to a small shear oscillation.","prediction":"A foam film should reveal local contamination through an asymmetric response to a small shear oscillation.","test":"Apply controlled benign contaminants.","contrary_outcome":"Response is not contamination-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0395","hypothesis":"A foam film should reveal local contamination through an asymmetric response to a small shear oscillation.","prediction":"A foam film should reveal local contamination through an asymmetric response to a small shear oscillation.","test":"Apply controlled benign contaminants.","contrary_outcome":"Response is not contamination-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":46,"query":"A foam film reveal local contamination through an asymmetric response to a small shear oscillation. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Apply controlled benign contaminants."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0396","id":"S4-0396","volume":"900v4","title":"A drying gel-free film should retain a transient flow vortex as a curved deposition seam.","prediction":"A drying gel-free film should retain a transient flow vortex as a curved deposition seam.","test":"Compare tracer flow and final seam.","contrary":"Seam orientation ignores flow.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0396","hypothesis":"A drying gel-free film should retain a transient flow vortex as a curved deposition seam.","prediction":"A drying gel-free film should retain a transient flow vortex as a curved deposition seam.","test":"Compare tracer flow and final seam.","contrary_outcome":"Seam orientation ignores flow.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0397","id":"S4-0397","volume":"900v4","title":"A porous liquid reservoir should meter a reproducible final aliquot when its gas path percolates.","prediction":"A porous liquid reservoir should meter a reproducible final aliquot when its gas path percolates.","test":"Measure final discharge volume.","contrary":"Final aliquot varies widely.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0397","hypothesis":"A porous liquid reservoir should meter a reproducible final aliquot when its gas path percolates.","prediction":"A porous liquid reservoir should meter a reproducible final aliquot when its gas path percolates.","test":"Measure final discharge volume.","contrary_outcome":"Final aliquot varies widely.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0398","id":"S4-0398","volume":"900v4","title":"A crystal-growth boundary should stop at a flexible barrier until elastic energy exceeds a reproducible threshold.","prediction":"A crystal-growth boundary should stop at a flexible barrier until elastic energy exceeds a reproducible threshold.","test":"Measure growth force and barrier motion.","contrary":"Barrier is engulfed without threshold behavior.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0398","hypothesis":"A crystal-growth boundary should stop at a flexible barrier until elastic energy exceeds a reproducible threshold.","prediction":"A crystal-growth boundary should stop at a flexible barrier until elastic energy exceeds a reproducible threshold.","test":"Measure growth force and barrier motion.","contrary_outcome":"Barrier is engulfed without threshold behavior.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0399","id":"S4-0399","volume":"900v4","title":"A liquid coating should recover after a scratch through capillary delivery from a connected edge store.","prediction":"A liquid coating should recover after a scratch through capillary delivery from a connected edge store.","test":"Measure restored thickness.","contrary":"Scratch remains dry.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0399","hypothesis":"A liquid coating should recover after a scratch through capillary delivery from a connected edge store.","prediction":"A liquid coating should recover after a scratch through capillary delivery from a connected edge store.","test":"Measure restored thickness.","contrary_outcome":"Scratch remains dry.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0400","id":"S4-0400","volume":"900v4","title":"A freezing capillary should show a reproducible electrical-free optical signal when its final open liquid path closes.","prediction":"A freezing capillary should show a reproducible electrical-free optical signal when its final open liquid path closes.","test":"Measure scattering and flow.","contrary":"Signal cannot resolve closure timing.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0400","hypothesis":"A freezing capillary should show a reproducible electrical-free optical signal when its final open liquid path closes.","prediction":"A freezing capillary should show a reproducible electrical-free optical signal when its final open liquid path closes.","test":"Measure scattering and flow.","contrary_outcome":"Signal cannot resolve closure timing.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0401","id":"S4-0401","volume":"900v4","title":"A rocking body should reveal the direction of a hidden internal mass offset through unequal residence times at its turning points.","prediction":"A rocking body should reveal the direction of a hidden internal mass offset through unequal residence times at its turning points.","test":"Track calibrated bodies.","contrary":"Residence asymmetry does not identify offset.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0401","hypothesis":"A rocking body should reveal the direction of a hidden internal mass offset through unequal residence times at its turning points.","prediction":"A rocking body should reveal the direction of a hidden internal mass offset through unequal residence times at its turning points.","test":"Track calibrated bodies.","contrary_outcome":"Residence asymmetry does not identify offset.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0402","id":"S4-0402","volume":"900v4","title":"A pendulum with a moving pivot should reduce sensitivity to support-height changes through geometric compensation.","prediction":"A pendulum with a moving pivot should reduce sensitivity to support-height changes through geometric compensation.","test":"Measure period across heights.","contrary":"Compensation fails.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0402","hypothesis":"A pendulum with a moving pivot should reduce sensitivity to support-height changes through geometric compensation.","prediction":"A pendulum with a moving pivot should reduce sensitivity to support-height changes through geometric compensation.","test":"Measure period across heights.","contrary_outcome":"Compensation fails.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0402","hypothesis":"A pendulum with a moving pivot should reduce sensitivity to support-height changes through geometric compensation.","prediction":"A pendulum with a moving pivot should reduce sensitivity to support-height changes through geometric compensation.","test":"Measure period across heights.","contrary_outcome":"Compensation fails.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":47,"query":"A pendulum with a moving pivot reduce sensitivity to support-height changes through geometric compensation. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure period across heights."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0403","id":"S4-0403","volume":"900v4","title":"A free slider inside a vibrating frame should lock to a rational fraction of the drive period over a finite amplitude band.","prediction":"A free slider inside a vibrating frame should lock to a rational fraction of the drive period over a finite amplitude band.","test":"Measure timing ratios.","contrary":"Locking occurs only at isolated settings.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0403","hypothesis":"A free slider inside a vibrating frame should lock to a rational fraction of the drive period over a finite amplitude band.","prediction":"A free slider inside a vibrating frame should lock to a rational fraction of the drive period over a finite amplitude band.","test":"Measure timing ratios.","contrary_outcome":"Locking occurs only at isolated settings.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0404","id":"S4-0404","volume":"900v4","title":"A rolling ring should cross a small gap more reliably when its internal mass can lag behind the contact point.","prediction":"A rolling ring should cross a small gap more reliably when its internal mass can lag behind the contact point.","test":"Measure crossing probability.","contrary":"Mass lag worsens crossing.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0404","hypothesis":"A rolling ring should cross a small gap more reliably when its internal mass can lag behind the contact point.","prediction":"A rolling ring should cross a small gap more reliably when its internal mass can lag behind the contact point.","test":"Measure crossing probability.","contrary_outcome":"Mass lag worsens crossing.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0405","id":"S4-0405","volume":"900v4","title":"A hinged inertial shield should reduce transmitted angular impulse by counter-rotating during impact.","prediction":"A hinged inertial shield should reduce transmitted angular impulse by counter-rotating during impact.","test":"Measure support impulse.","contrary":"Counter-rotation adds no attenuation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0405","hypothesis":"A hinged inertial shield should reduce transmitted angular impulse by counter-rotating during impact.","prediction":"A hinged inertial shield should reduce transmitted angular impulse by counter-rotating during impact.","test":"Measure support impulse.","contrary_outcome":"Counter-rotation adds no attenuation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0406","id":"S4-0406","volume":"900v4","title":"A rotating elastic wheel should redistribute imbalance through reversible radial deformation.","prediction":"A rotating elastic wheel should redistribute imbalance through reversible radial deformation.","test":"Measure runout versus speed.","contrary":"Deformation increases imbalance.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0406","hypothesis":"A rotating elastic wheel should redistribute imbalance through reversible radial deformation.","prediction":"A rotating elastic wheel should redistribute imbalance through reversible radial deformation.","test":"Measure runout versus speed.","contrary_outcome":"Deformation increases imbalance.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0407","id":"S4-0407","volume":"900v4","title":"A gravitational detent should distinguish a sequence of alternating impulses from repeated same-direction impulses.","prediction":"A gravitational detent should distinguish a sequence of alternating impulses from repeated same-direction impulses.","test":"Apply equal-energy sequences.","contrary":"Final states remain identical.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0407","hypothesis":"A gravitational detent should distinguish a sequence of alternating impulses from repeated same-direction impulses.","prediction":"A gravitational detent should distinguish a sequence of alternating impulses from repeated same-direction impulses.","test":"Apply equal-energy sequences.","contrary_outcome":"Final states remain identical.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0408","id":"S4-0408","volume":"900v4","title":"A passive oscillator should select a stable orbit around an obstacle through asymmetric collision timing.","prediction":"A passive oscillator should select a stable orbit around an obstacle through asymmetric collision timing.","test":"Track trajectories.","contrary":"Collisions lead only to random wandering.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0408","hypothesis":"A passive oscillator should select a stable orbit around an obstacle through asymmetric collision timing.","prediction":"A passive oscillator should select a stable orbit around an obstacle through asymmetric collision timing.","test":"Track trajectories.","contrary_outcome":"Collisions lead only to random wandering.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0409","id":"S4-0409","volume":"900v4","title":"A moving support should suppress parametric resonance by detuning as amplitude grows.","prediction":"A moving support should suppress parametric resonance by detuning as amplitude grows.","test":"Measure response versus excitation.","contrary":"Detuning occurs too late.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0409","hypothesis":"A moving support should suppress parametric resonance by detuning as amplitude grows.","prediction":"A moving support should suppress parametric resonance by detuning as amplitude grows.","test":"Measure response versus excitation.","contrary_outcome":"Detuning occurs too late.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0410","id":"S4-0410","volume":"900v4","title":"A torsion pendulum should estimate fluid-memory duration from its rebound after an abrupt drive stop.","prediction":"A torsion pendulum should estimate fluid-memory duration from its rebound after an abrupt drive stop.","test":"Test calibrated viscoelastic liquids.","contrary":"Inertia explains the entire rebound.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0410","hypothesis":"A torsion pendulum should estimate fluid-memory duration from its rebound after an abrupt drive stop.","prediction":"A torsion pendulum should estimate fluid-memory duration from its rebound after an abrupt drive stop.","test":"Test calibrated viscoelastic liquids.","contrary_outcome":"Inertia explains the entire rebound.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0411","id":"S4-0411","volume":"900v4","title":"A chain with one free joint should transmit a compression pulse differently according to its initial joint angle.","prediction":"A chain with one free joint should transmit a compression pulse differently according to its initial joint angle.","test":"Measure pulse transfer.","contrary":"Transfer is angle-insensitive.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0411","hypothesis":"A chain with one free joint should transmit a compression pulse differently according to its initial joint angle.","prediction":"A chain with one free joint should transmit a compression pulse differently according to its initial joint angle.","test":"Measure pulse transfer.","contrary_outcome":"Transfer is angle-insensitive.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0412","id":"S4-0412","volume":"900v4","title":"A rolling body should climb a shallow incline under zero-mean vibration only when contact asymmetry exceeds a threshold.","prediction":"A rolling body should climb a shallow incline under zero-mean vibration only when contact asymmetry exceeds a threshold.","test":"Map travel versus asymmetry.","contrary":"Motion persists in symmetric controls.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0412","hypothesis":"A rolling body should climb a shallow incline under zero-mean vibration only when contact asymmetry exceeds a threshold.","prediction":"A rolling body should climb a shallow incline under zero-mean vibration only when contact asymmetry exceeds a threshold.","test":"Map travel versus asymmetry.","contrary_outcome":"Motion persists in symmetric controls.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0413","id":"S4-0413","volume":"900v4","title":"A suspended ring should average directional vibration energy through slow precession.","prediction":"A suspended ring should average directional vibration energy through slow precession.","test":"Compare inferred energy with calibrated excitation.","contrary":"Precession introduces directional bias.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0413","hypothesis":"A suspended ring should average directional vibration energy through slow precession.","prediction":"A suspended ring should average directional vibration energy through slow precession.","test":"Compare inferred energy with calibrated excitation.","contrary_outcome":"Precession introduces directional bias.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0414","id":"S4-0414","volume":"900v4","title":"A bistable oscillator should retain the order of two impulse magnitudes in its final state.","prediction":"A bistable oscillator should retain the order of two impulse magnitudes in its final state.","test":"Reverse paired impulses.","contrary":"Order does not affect state.","layers":[1,2,3],"categories":[],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0414","hypothesis":"A bistable oscillator should retain the order of two impulse magnitudes in its final state.","prediction":"A bistable oscillator should retain the order of two impulse magnitudes in its final state.","test":"Reverse paired impulses.","contrary_outcome":"Order does not affect state.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0414","hypothesis":"A bistable oscillator should retain the order of two impulse magnitudes in its final state.","prediction":"A bistable oscillator should retain the order of two impulse magnitudes in its final state.","test":"Reverse paired impulses.","contrary_outcome":"Order does not affect state.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":5,"query":"A bistable oscillator retain the order of two impulse magnitudes in its final state. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Reverse paired impulses."},"dossier":{"id":"S4-0414","title":"Impulse-order memory in a bistable oscillator","why_selected":"Reversing an otherwise matched pulse pair is a clean intervention, while equal-impulse and equal-energy controls expose trivial explanations.","sources":[{"title":"Bistable phase control via rocking in a nonlinear electronic oscillator","url":"https://pubmed.ncbi.nlm.nih.gov/17199404/","access":"Primary abstract read","finding":"Buldu and colleagues demonstrate phase bistability under a phase-alternating electronic drive. It supports nonlinear state selection as background but does not establish mechanical impulse-order memory."}],"design":"Construct an elastic bistable beam with two well-characterized stable states. Starting from the same state, apply a large and a small calibrated force impulse separated by a controlled delay, then reverse their order. Measure force history and full motion, not nominal actuator commands. Repeat across independent beams and randomized sequences after a verified reset.","endpoints":"Primary: difference in final-state probability between AB and BA sequences. Secondary: dependence on delay, pulse width, total impulse, and total work. A useful memory requires a preregistered separation above reset variability over a bounded operating region.","controls":"Single pulses, equal pulses, long delays allowing full relaxation, time-reversed force traces, symmetric monostable beam, and equal-work pulse pairs. Initial velocity must be measured or bounded.","conditional_analysis":"For m*xdd+c*xd+U'(x)=F(t), two impulses apply velocity jumps while free evolution changes position and velocity between them. The resulting state maps need not commute; AB and BA can therefore differ. Noncommutation alone does not prove different final wells: both trajectories may relax to the same basin. No geometry-independent order-memory theorem is claimed. A model prediction must use independently calibrated U, damping, and measured pulses.","analysis_plan":"Map final-state probabilities versus delay on a training region, then lock an operating point and test new beams. Report state-classification uncertainty and reset failures. Reject memory if order effects are explained entirely by unequal delivered work or uncontrolled initial motion.","limitations":"Unproved mechanical claim; bistable memory and nonlinear phase selection are established topics. No successful memory or novel theorem asserted.","rank":5,"hypothesis":"A bistable oscillator should retain the order of two impulse magnitudes in its final state.","status":"speculative; no physical data or proof"},"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0415","id":"S4-0415","volume":"900v4","title":"A free eccentric cam should limit shaft acceleration by moving against rapid speed changes.","prediction":"A free eccentric cam should limit shaft acceleration by moving against rapid speed changes.","test":"Measure acceleration and cam motion.","contrary":"Cam adds speed fluctuations.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0415","hypothesis":"A free eccentric cam should limit shaft acceleration by moving against rapid speed changes.","prediction":"A free eccentric cam should limit shaft acceleration by moving against rapid speed changes.","test":"Measure acceleration and cam motion.","contrary_outcome":"Cam adds speed fluctuations.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0416","id":"S4-0416","volume":"900v4","title":"A compliant pendulum stop should reduce chaotic rebounds by separating contact timescales.","prediction":"A compliant pendulum stop should reduce chaotic rebounds by separating contact timescales.","test":"Map return trajectories.","contrary":"Chaos persists unchanged.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0416","hypothesis":"A compliant pendulum stop should reduce chaotic rebounds by separating contact timescales.","prediction":"A compliant pendulum stop should reduce chaotic rebounds by separating contact timescales.","test":"Map return trajectories.","contrary_outcome":"Chaos persists unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0417","id":"S4-0417","volume":"900v4","title":"A rotating cavity containing a loose disk should reveal an internal obstruction through phase-slip bursts.","prediction":"A rotating cavity containing a loose disk should reveal an internal obstruction through phase-slip bursts.","test":"Introduce controlled obstructions.","contrary":"Bursts occur equally without obstruction.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0417","hypothesis":"A rotating cavity containing a loose disk should reveal an internal obstruction through phase-slip bursts.","prediction":"A rotating cavity containing a loose disk should reveal an internal obstruction through phase-slip bursts.","test":"Introduce controlled obstructions.","contrary_outcome":"Bursts occur equally without obstruction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0417","hypothesis":"A rotating cavity containing a loose disk should reveal an internal obstruction through phase-slip bursts.","prediction":"A rotating cavity containing a loose disk should reveal an internal obstruction through phase-slip bursts.","test":"Introduce controlled obstructions.","contrary_outcome":"Bursts occur equally without obstruction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":48,"query":"A rotating cavity containing a loose disk reveal an internal obstruction through phase-slip bursts. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Introduce controlled obstructions."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0418","id":"S4-0418","volume":"900v4","title":"A rocking balance should reject uniform floor tilt by shifting its instantaneous contact center.","prediction":"A rocking balance should reject uniform floor tilt by shifting its instantaneous contact center.","test":"Measure zero error versus tilt.","contrary":"Contact migration fails to compensate.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0418","hypothesis":"A rocking balance should reject uniform floor tilt by shifting its instantaneous contact center.","prediction":"A rocking balance should reject uniform floor tilt by shifting its instantaneous contact center.","test":"Measure zero error versus tilt.","contrary_outcome":"Contact migration fails to compensate.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0419","id":"S4-0419","volume":"900v4","title":"A passive inertial latch should trigger on jerk while remaining insensitive to constant acceleration.","prediction":"A passive inertial latch should trigger on jerk while remaining insensitive to constant acceleration.","test":"Apply calibrated ramps and holds.","contrary":"Acceleration alone triggers it.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0419","hypothesis":"A passive inertial latch should trigger on jerk while remaining insensitive to constant acceleration.","prediction":"A passive inertial latch should trigger on jerk while remaining insensitive to constant acceleration.","test":"Apply calibrated ramps and holds.","contrary_outcome":"Acceleration alone triggers it.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0420","id":"S4-0420","volume":"900v4","title":"A coupled oscillator pair should localize damage through amplitude ratio changes before frequency shifts are resolvable.","prediction":"A coupled oscillator pair should localize damage through amplitude ratio changes before frequency shifts are resolvable.","test":"Weaken one spring.","contrary":"Amplitude ratio offers no earlier signal.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0420","hypothesis":"A coupled oscillator pair should localize damage through amplitude ratio changes before frequency shifts are resolvable.","prediction":"A coupled oscillator pair should localize damage through amplitude ratio changes before frequency shifts are resolvable.","test":"Weaken one spring.","contrary_outcome":"Amplitude ratio offers no earlier signal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0421","id":"S4-0421","volume":"900v4","title":"A rolling cylinder should stop at a repeatable phase when its internal fluid settles through an asymmetric channel.","prediction":"A rolling cylinder should stop at a repeatable phase when its internal fluid settles through an asymmetric channel.","test":"Measure final angle.","contrary":"Angle remains random.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0421","hypothesis":"A rolling cylinder should stop at a repeatable phase when its internal fluid settles through an asymmetric channel.","prediction":"A rolling cylinder should stop at a repeatable phase when its internal fluid settles through an asymmetric channel.","test":"Measure final angle.","contrary_outcome":"Angle remains random.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0422","id":"S4-0422","volume":"900v4","title":"A free-spinning mass should reduce torsional resonance through intermittent clutch engagement.","prediction":"A free-spinning mass should reduce torsional resonance through intermittent clutch engagement.","test":"Measure response spectra.","contrary":"Engagement creates larger peaks.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0422","hypothesis":"A free-spinning mass should reduce torsional resonance through intermittent clutch engagement.","prediction":"A free-spinning mass should reduce torsional resonance through intermittent clutch engagement.","test":"Measure response spectra.","contrary_outcome":"Engagement creates larger peaks.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0423","id":"S4-0423","volume":"900v4","title":"A suspended vane should estimate vibration ellipticity from its mean orientation.","prediction":"A suspended vane should estimate vibration ellipticity from its mean orientation.","test":"Apply calibrated two-axis motion.","contrary":"Orientation reflects amplitude alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0423","hypothesis":"A suspended vane should estimate vibration ellipticity from its mean orientation.","prediction":"A suspended vane should estimate vibration ellipticity from its mean orientation.","test":"Apply calibrated two-axis motion.","contrary_outcome":"Orientation reflects amplitude alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0424","id":"S4-0424","volume":"900v4","title":"A chain of rocking blocks should arrest a falling front when one block's center of mass shifts under impact.","prediction":"A chain of rocking blocks should arrest a falling front when one block's center of mass shifts under impact.","test":"Film propagation.","contrary":"Front crosses without arrest.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0424","hypothesis":"A chain of rocking blocks should arrest a falling front when one block's center of mass shifts under impact.","prediction":"A chain of rocking blocks should arrest a falling front when one block's center of mass shifts under impact.","test":"Film propagation.","contrary_outcome":"Front crosses without arrest.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0425","id":"S4-0425","volume":"900v4","title":"A rotating flexible loop should maintain a stable noncircular orbit without wall contact.","prediction":"A rotating flexible loop should maintain a stable noncircular orbit without wall contact.","test":"Track shape in a rotating frame.","contrary":"Loop collapses or contacts the wall.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0425","hypothesis":"A rotating flexible loop should maintain a stable noncircular orbit without wall contact.","prediction":"A rotating flexible loop should maintain a stable noncircular orbit without wall contact.","test":"Track shape in a rotating frame.","contrary_outcome":"Loop collapses or contacts the wall.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0426","id":"S4-0426","volume":"900v4","title":"A passive escapement should reject a missing drive pulse without losing synchronization.","prediction":"A passive escapement should reject a missing drive pulse without losing synchronization.","test":"Omit controlled pulses.","contrary":"Phase error accumulates.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0426","hypothesis":"A passive escapement should reject a missing drive pulse without losing synchronization.","prediction":"A passive escapement should reject a missing drive pulse without losing synchronization.","test":"Omit controlled pulses.","contrary_outcome":"Phase error accumulates.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0427","id":"S4-0427","volume":"900v4","title":"A mass on a curved track should separate slow tilt from high-frequency acceleration through two position observables.","prediction":"A mass on a curved track should separate slow tilt from high-frequency acceleration through two position observables.","test":"Calibrate disturbances.","contrary":"Signals remain confounded.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0427","hypothesis":"A mass on a curved track should separate slow tilt from high-frequency acceleration through two position observables.","prediction":"A mass on a curved track should separate slow tilt from high-frequency acceleration through two position observables.","test":"Calibrate disturbances.","contrary_outcome":"Signals remain confounded.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0428","id":"S4-0428","volume":"900v4","title":"A resonant mechanism should cap its response by transferring energy to a higher mode after a threshold.","prediction":"A resonant mechanism should cap its response by transferring energy to a higher mode after a threshold.","test":"Measure modal energies.","contrary":"Transfer does not limit the primary mode.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0428","hypothesis":"A resonant mechanism should cap its response by transferring energy to a higher mode after a threshold.","prediction":"A resonant mechanism should cap its response by transferring energy to a higher mode after a threshold.","test":"Measure modal energies.","contrary_outcome":"Transfer does not limit the primary mode.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0429","id":"S4-0429","volume":"900v4","title":"A rolling polygon should encode surface roughness in the statistics of its dwell angles.","prediction":"A rolling polygon should encode surface roughness in the statistics of its dwell angles.","test":"Test known surfaces.","contrary":"Statistics reflect only polygon geometry.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0429","hypothesis":"A rolling polygon should encode surface roughness in the statistics of its dwell angles.","prediction":"A rolling polygon should encode surface roughness in the statistics of its dwell angles.","test":"Test known surfaces.","contrary_outcome":"Statistics reflect only polygon geometry.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0429","hypothesis":"A rolling polygon should encode surface roughness in the statistics of its dwell angles.","prediction":"A rolling polygon should encode surface roughness in the statistics of its dwell angles.","test":"Test known surfaces.","contrary_outcome":"Statistics reflect only polygon geometry.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":49,"query":"A rolling polygon encode surface roughness in the statistics of its dwell angles. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Test known surfaces."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0430","id":"S4-0430","volume":"900v4","title":"A hinged counterweight should reduce support force during repeated impacts by synchronizing out of phase.","prediction":"A hinged counterweight should reduce support force during repeated impacts by synchronizing out of phase.","test":"Measure phase and support force.","contrary":"Synchronization increases force.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0430","hypothesis":"A hinged counterweight should reduce support force during repeated impacts by synchronizing out of phase.","prediction":"A hinged counterweight should reduce support force during repeated impacts by synchronizing out of phase.","test":"Measure phase and support force.","contrary_outcome":"Synchronization increases force.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0431","id":"S4-0431","volume":"900v4","title":"A pendulum with a sliding bob should retain nearly constant period over a bounded amplitude range.","prediction":"A pendulum with a sliding bob should retain nearly constant period over a bounded amplitude range.","test":"Measure period versus amplitude.","contrary":"Period drift remains equal.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0431","hypothesis":"A pendulum with a sliding bob should retain nearly constant period over a bounded amplitude range.","prediction":"A pendulum with a sliding bob should retain nearly constant period over a bounded amplitude range.","test":"Measure period versus amplitude.","contrary_outcome":"Period drift remains equal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0432","id":"S4-0432","volume":"900v4","title":"A passive gyroscopic mount should reject yaw disturbance while allowing slow commanded pitch.","prediction":"A passive gyroscopic mount should reject yaw disturbance while allowing slow commanded pitch.","test":"Measure directional response.","contrary":"Yaw rejection also blocks pitch.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0432","hypothesis":"A passive gyroscopic mount should reject yaw disturbance while allowing slow commanded pitch.","prediction":"A passive gyroscopic mount should reject yaw disturbance while allowing slow commanded pitch.","test":"Measure directional response.","contrary_outcome":"Yaw rejection also blocks pitch.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0433","id":"S4-0433","volume":"900v4","title":"A rocking object should detect unequal restitution at two contacts through systematic lateral drift.","prediction":"A rocking object should detect unequal restitution at two contacts through systematic lateral drift.","test":"Change one contact coating geometry-free.","contrary":"Drift lacks a reproducible sign.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0433","hypothesis":"A rocking object should detect unequal restitution at two contacts through systematic lateral drift.","prediction":"A rocking object should detect unequal restitution at two contacts through systematic lateral drift.","test":"Change one contact coating geometry-free.","contrary_outcome":"Drift lacks a reproducible sign.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0434","id":"S4-0434","volume":"900v4","title":"A coupled beam pair should reveal a tiny stiffness mismatch through slow energy beating.","prediction":"A coupled beam pair should reveal a tiny stiffness mismatch through slow energy beating.","test":"Measure beat period against known mismatch.","contrary":"Damping masks beating.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0434","hypothesis":"A coupled beam pair should reveal a tiny stiffness mismatch through slow energy beating.","prediction":"A coupled beam pair should reveal a tiny stiffness mismatch through slow energy beating.","test":"Measure beat period against known mismatch.","contrary_outcome":"Damping masks beating.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0435","id":"S4-0435","volume":"900v4","title":"A free rotor should align to a periodic drive's phase through asymmetric drag alone.","prediction":"A free rotor should align to a periodic drive's phase through asymmetric drag alone.","test":"Measure phase under zero-mean torque.","contrary":"Phase remains unbounded.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0435","hypothesis":"A free rotor should align to a periodic drive's phase through asymmetric drag alone.","prediction":"A free rotor should align to a periodic drive's phase through asymmetric drag alone.","test":"Measure phase under zero-mean torque.","contrary_outcome":"Phase remains unbounded.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0436","id":"S4-0436","volume":"900v4","title":"A sliding internal mass should lower impact restitution by arriving at the wall after the external body stops.","prediction":"A sliding internal mass should lower impact restitution by arriving at the wall after the external body stops.","test":"Measure collision timing and rebound.","contrary":"Timing increases rebound.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0436","hypothesis":"A sliding internal mass should lower impact restitution by arriving at the wall after the external body stops.","prediction":"A sliding internal mass should lower impact restitution by arriving at the wall after the external body stops.","test":"Measure collision timing and rebound.","contrary_outcome":"Timing increases rebound.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0437","id":"S4-0437","volume":"900v4","title":"A compliant pivot should stabilize an inverted small pendulum under high-frequency base motion at lower amplitude than a rigid pivot.","prediction":"A compliant pivot should stabilize an inverted small pendulum under high-frequency base motion at lower amplitude than a rigid pivot.","test":"Map stability boundaries.","contrary":"Compliance raises the required amplitude.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0437","hypothesis":"A compliant pivot should stabilize an inverted small pendulum under high-frequency base motion at lower amplitude than a rigid pivot.","prediction":"A compliant pivot should stabilize an inverted small pendulum under high-frequency base motion at lower amplitude than a rigid pivot.","test":"Map stability boundaries.","contrary_outcome":"Compliance raises the required amplitude.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0438","id":"S4-0438","volume":"900v4","title":"A rolling shell should estimate liquid fill fraction from the difference between start and stop torques.","prediction":"A rolling shell should estimate liquid fill fraction from the difference between start and stop torques.","test":"Test known fills.","contrary":"Difference is dominated by bearing friction.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0438","hypothesis":"A rolling shell should estimate liquid fill fraction from the difference between start and stop torques.","prediction":"A rolling shell should estimate liquid fill fraction from the difference between start and stop torques.","test":"Test known fills.","contrary_outcome":"Difference is dominated by bearing friction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0438","hypothesis":"A rolling shell should estimate liquid fill fraction from the difference between start and stop torques.","prediction":"A rolling shell should estimate liquid fill fraction from the difference between start and stop torques.","test":"Test known fills.","contrary_outcome":"Difference is dominated by bearing friction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":50,"query":"A rolling shell estimate liquid fill fraction from the difference between start and stop torques. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Test known fills."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0439","id":"S4-0439","volume":"900v4","title":"A mechanical phase detector should convert oscillator phase difference into a static displacement.","prediction":"A mechanical phase detector should convert oscillator phase difference into a static displacement.","test":"Drive paired inputs.","contrary":"Output depends mainly on amplitude mismatch.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0439","hypothesis":"A mechanical phase detector should convert oscillator phase difference into a static displacement.","prediction":"A mechanical phase detector should convert oscillator phase difference into a static displacement.","test":"Drive paired inputs.","contrary_outcome":"Output depends mainly on amplitude mismatch.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0440","id":"S4-0440","volume":"900v4","title":"A chain of unequal rotors should broaden the frequency band of vibration isolation through sequential resonances.","prediction":"A chain of unequal rotors should broaden the frequency band of vibration isolation through sequential resonances.","test":"Measure transmission.","contrary":"Only narrow isolation notches appear.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0440","hypothesis":"A chain of unequal rotors should broaden the frequency band of vibration isolation through sequential resonances.","prediction":"A chain of unequal rotors should broaden the frequency band of vibration isolation through sequential resonances.","test":"Measure transmission.","contrary_outcome":"Only narrow isolation notches appear.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0441","id":"S4-0441","volume":"900v4","title":"A rocking gate should open only after several subthreshold impacts accumulate elastic strain.","prediction":"A rocking gate should open only after several subthreshold impacts accumulate elastic strain.","test":"Apply controlled impact trains.","contrary":"Each impact resets completely.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0441","hypothesis":"A rocking gate should open only after several subthreshold impacts accumulate elastic strain.","prediction":"A rocking gate should open only after several subthreshold impacts accumulate elastic strain.","test":"Apply controlled impact trains.","contrary_outcome":"Each impact resets completely.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0442","id":"S4-0442","volume":"900v4","title":"A suspended platform should reduce rotational drift through a moving gravitational reference.","prediction":"A suspended platform should reduce rotational drift through a moving gravitational reference.","test":"Measure orientation over slow disturbances.","contrary":"Reference motion adds drift.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0442","hypothesis":"A suspended platform should reduce rotational drift through a moving gravitational reference.","prediction":"A suspended platform should reduce rotational drift through a moving gravitational reference.","test":"Measure orientation over slow disturbances.","contrary_outcome":"Reference motion adds drift.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0443","id":"S4-0443","volume":"900v4","title":"A free slider should detect a frequency sweep's direction from hysteretic capture into resonance.","prediction":"A free slider should detect a frequency sweep's direction from hysteretic capture into resonance.","test":"Apply upward/downward sweeps.","contrary":"Final positions are identical.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0443","hypothesis":"A free slider should detect a frequency sweep's direction from hysteretic capture into resonance.","prediction":"A free slider should detect a frequency sweep's direction from hysteretic capture into resonance.","test":"Apply upward/downward sweeps.","contrary_outcome":"Final positions are identical.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0444","id":"S4-0444","volume":"900v4","title":"A rotating elastic arm should shed excess kinetic energy through reversible tip folding.","prediction":"A rotating elastic arm should shed excess kinetic energy through reversible tip folding.","test":"Measure energy and shape.","contrary":"Folding fails to reduce support loading.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0444","hypothesis":"A rotating elastic arm should shed excess kinetic energy through reversible tip folding.","prediction":"A rotating elastic arm should shed excess kinetic energy through reversible tip folding.","test":"Measure energy and shape.","contrary_outcome":"Folding fails to reduce support loading.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0445","id":"S4-0445","volume":"900v4","title":"A passive pendulum array should separate two nearby excitation frequencies through spatial energy localization.","prediction":"A passive pendulum array should separate two nearby excitation frequencies through spatial energy localization.","test":"Measure mode amplitudes.","contrary":"Localization cannot resolve the pair.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0445","hypothesis":"A passive pendulum array should separate two nearby excitation frequencies through spatial energy localization.","prediction":"A passive pendulum array should separate two nearby excitation frequencies through spatial energy localization.","test":"Measure mode amplitudes.","contrary_outcome":"Localization cannot resolve the pair.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0446","id":"S4-0446","volume":"900v4","title":"A rolling ball in a shaped bowl should estimate excitation kurtosis from rare boundary visits.","prediction":"A rolling ball in a shaped bowl should estimate excitation kurtosis from rare boundary visits.","test":"Apply equal-variance waveforms.","contrary":"Visit rate is not kurtosis-specific.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0446","hypothesis":"A rolling ball in a shaped bowl should estimate excitation kurtosis from rare boundary visits.","prediction":"A rolling ball in a shaped bowl should estimate excitation kurtosis from rare boundary visits.","test":"Apply equal-variance waveforms.","contrary_outcome":"Visit rate is not kurtosis-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0447","id":"S4-0447","volume":"900v4","title":"A hinged inertial mass should trigger differently for equal-impulse pulses of opposite temporal skew.","prediction":"A hinged inertial mass should trigger differently for equal-impulse pulses of opposite temporal skew.","test":"Apply time-reversed pulses.","contrary":"Trigger probability is unchanged.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0447","hypothesis":"A hinged inertial mass should trigger differently for equal-impulse pulses of opposite temporal skew.","prediction":"A hinged inertial mass should trigger differently for equal-impulse pulses of opposite temporal skew.","test":"Apply time-reversed pulses.","contrary_outcome":"Trigger probability is unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0447","hypothesis":"A hinged inertial mass should trigger differently for equal-impulse pulses of opposite temporal skew.","prediction":"A hinged inertial mass should trigger differently for equal-impulse pulses of opposite temporal skew.","test":"Apply time-reversed pulses.","contrary_outcome":"Trigger probability is unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":51,"query":"A hinged inertial mass trigger differently for equal-impulse pulses of opposite temporal skew. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Apply time-reversed pulses."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0448","id":"S4-0448","volume":"900v4","title":"A compliant oscillator should recover a preferred phase after a short interruption of drive.","prediction":"A compliant oscillator should recover a preferred phase after a short interruption of drive.","test":"Measure restart phases.","contrary":"Restart phase remains random.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0448","hypothesis":"A compliant oscillator should recover a preferred phase after a short interruption of drive.","prediction":"A compliant oscillator should recover a preferred phase after a short interruption of drive.","test":"Measure restart phases.","contrary_outcome":"Restart phase remains random.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0449","id":"S4-0449","volume":"900v4","title":"A rotating ring should suppress bearing vibration through a freely traveling balance weight.","prediction":"A rotating ring should suppress bearing vibration through a freely traveling balance weight.","test":"Measure support acceleration.","contrary":"Weight fails to converge.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0449","hypothesis":"A rotating ring should suppress bearing vibration through a freely traveling balance weight.","prediction":"A rotating ring should suppress bearing vibration through a freely traveling balance weight.","test":"Measure support acceleration.","contrary_outcome":"Weight fails to converge.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0450","id":"S4-0450","volume":"900v4","title":"A rocking shell should retain angular impulse sign after settling through a bistable internal flap.","prediction":"A rocking shell should retain angular impulse sign after settling through a bistable internal flap.","test":"Apply calibrated impulses.","contrary":"Settled state does not encode sign.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0450","hypothesis":"A rocking shell should retain angular impulse sign after settling through a bistable internal flap.","prediction":"A rocking shell should retain angular impulse sign after settling through a bistable internal flap.","test":"Apply calibrated impulses.","contrary_outcome":"Settled state does not encode sign.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0451","id":"S4-0451","volume":"900v4","title":"A coupled torsion chain should transmit an energy pulse around a damaged link through a parallel rotational path.","prediction":"A coupled torsion chain should transmit an energy pulse around a damaged link through a parallel rotational path.","test":"Measure transfer after damage.","contrary":"Parallel path does not restore transfer.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0451","hypothesis":"A coupled torsion chain should transmit an energy pulse around a damaged link through a parallel rotational path.","prediction":"A coupled torsion chain should transmit an energy pulse around a damaged link through a parallel rotational path.","test":"Measure transfer after damage.","contrary_outcome":"Parallel path does not restore transfer.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0452","id":"S4-0452","volume":"900v4","title":"A passive mechanical filter should discriminate periodic tapping from irregular tapping at equal count and energy.","prediction":"A passive mechanical filter should discriminate periodic tapping from irregular tapping at equal count and energy.","test":"Apply timed sequences.","contrary":"Outputs remain identical.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0452","hypothesis":"A passive mechanical filter should discriminate periodic tapping from irregular tapping at equal count and energy.","prediction":"A passive mechanical filter should discriminate periodic tapping from irregular tapping at equal count and energy.","test":"Apply timed sequences.","contrary_outcome":"Outputs remain identical.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0453","id":"S4-0453","volume":"900v4","title":"A pendulum with a curved spring should show a nearly isochronous finite-amplitude orbit.","prediction":"A pendulum with a curved spring should show a nearly isochronous finite-amplitude orbit.","test":"Measure period across energies.","contrary":"Amplitude dependence remains strong.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0453","hypothesis":"A pendulum with a curved spring should show a nearly isochronous finite-amplitude orbit.","prediction":"A pendulum with a curved spring should show a nearly isochronous finite-amplitude orbit.","test":"Measure period across energies.","contrary_outcome":"Amplitude dependence remains strong.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0454","id":"S4-0454","volume":"900v4","title":"A rolling wheel should reduce speed oscillations by shifting its contact radius under load.","prediction":"A rolling wheel should reduce speed oscillations by shifting its contact radius under load.","test":"Measure velocity ripple.","contrary":"Radius changes amplify ripple.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0454","hypothesis":"A rolling wheel should reduce speed oscillations by shifting its contact radius under load.","prediction":"A rolling wheel should reduce speed oscillations by shifting its contact radius under load.","test":"Measure velocity ripple.","contrary_outcome":"Radius changes amplify ripple.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0455","id":"S4-0455","volume":"900v4","title":"A suspended inertial pointer should indicate dominant vibration direction without responding strongly to support tilt.","prediction":"A suspended inertial pointer should indicate dominant vibration direction without responding strongly to support tilt.","test":"Calibrate both.","contrary":"Tilt dominates the pointer.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0455","hypothesis":"A suspended inertial pointer should indicate dominant vibration direction without responding strongly to support tilt.","prediction":"A suspended inertial pointer should indicate dominant vibration direction without responding strongly to support tilt.","test":"Calibrate both.","contrary_outcome":"Tilt dominates the pointer.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0456","id":"S4-0456","volume":"900v4","title":"A resonant clutch should engage only within a selected frequency band.","prediction":"A resonant clutch should engage only within a selected frequency band.","test":"Measure torque transfer versus frequency.","contrary":"Engagement is broadband.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0456","hypothesis":"A resonant clutch should engage only within a selected frequency band.","prediction":"A resonant clutch should engage only within a selected frequency band.","test":"Measure torque transfer versus frequency.","contrary_outcome":"Engagement is broadband.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0457","id":"S4-0457","volume":"900v4","title":"A free internal ring should delay a rotating shell's reversal enough to filter short torque spikes.","prediction":"A free internal ring should delay a rotating shell's reversal enough to filter short torque spikes.","test":"Measure angular response.","contrary":"Filtering destroys useful long-term response.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0457","hypothesis":"A free internal ring should delay a rotating shell's reversal enough to filter short torque spikes.","prediction":"A free internal ring should delay a rotating shell's reversal enough to filter short torque spikes.","test":"Measure angular response.","contrary_outcome":"Filtering destroys useful long-term response.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0458","id":"S4-0458","volume":"900v4","title":"A rocking frame should convert alternating impacts into a monotonic mechanical count through contact order.","prediction":"A rocking frame should convert alternating impacts into a monotonic mechanical count through contact order.","test":"Count known impacts.","contrary":"Contacts cause skipped or duplicate counts.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0458","hypothesis":"A rocking frame should convert alternating impacts into a monotonic mechanical count through contact order.","prediction":"A rocking frame should convert alternating impacts into a monotonic mechanical count through contact order.","test":"Count known impacts.","contrary_outcome":"Contacts cause skipped or duplicate counts.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0459","id":"S4-0459","volume":"900v4","title":"A coupled oscillator should reveal a friction change through asymmetric energy exchange between modes.","prediction":"A coupled oscillator should reveal a friction change through asymmetric energy exchange between modes.","test":"Vary one joint friction.","contrary":"Asymmetry is not friction-specific.","layers":[1,2],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0459","hypothesis":"A coupled oscillator should reveal a friction change through asymmetric energy exchange between modes.","prediction":"A coupled oscillator should reveal a friction change through asymmetric energy exchange between modes.","test":"Vary one joint friction.","contrary_outcome":"Asymmetry is not friction-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0459","hypothesis":"A coupled oscillator should reveal a friction change through asymmetric energy exchange between modes.","prediction":"A coupled oscillator should reveal a friction change through asymmetric energy exchange between modes.","test":"Vary one joint friction.","contrary_outcome":"Asymmetry is not friction-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":52,"query":"A coupled oscillator reveal a friction change through asymmetric energy exchange between modes. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Vary one joint friction."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0460","id":"S4-0460","volume":"900v4","title":"A rotating mass on a flexible tether should limit maximum tension through outward path deformation.","prediction":"A rotating mass on a flexible tether should limit maximum tension through outward path deformation.","test":"Measure tension and orbit.","contrary":"Deformation raises peak tension.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0460","hypothesis":"A rotating mass on a flexible tether should limit maximum tension through outward path deformation.","prediction":"A rotating mass on a flexible tether should limit maximum tension through outward path deformation.","test":"Measure tension and orbit.","contrary_outcome":"Deformation raises peak tension.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0461","id":"S4-0461","volume":"900v4","title":"A passive inertial valve should remain shut during uniform translation but open during rotation.","prediction":"A passive inertial valve should remain shut during uniform translation but open during rotation.","test":"Apply calibrated motions.","contrary":"Translation produces equivalent opening.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0461","hypothesis":"A passive inertial valve should remain shut during uniform translation but open during rotation.","prediction":"A passive inertial valve should remain shut during uniform translation but open during rotation.","test":"Apply calibrated motions.","contrary_outcome":"Translation produces equivalent opening.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0462","id":"S4-0462","volume":"900v4","title":"A rolling body should distinguish a soft patch from a rough patch through separate speed and vertical-motion signatures.","prediction":"A rolling body should distinguish a soft patch from a rough patch through separate speed and vertical-motion signatures.","test":"Test controlled tracks.","contrary":"Signatures overlap.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0462","hypothesis":"A rolling body should distinguish a soft patch from a rough patch through separate speed and vertical-motion signatures.","prediction":"A rolling body should distinguish a soft patch from a rough patch through separate speed and vertical-motion signatures.","test":"Test controlled tracks.","contrary_outcome":"Signatures overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0463","id":"S4-0463","volume":"900v4","title":"A suspended acoustic-free oscillator should detect airflow intermittency through non-Gaussian displacement tails.","prediction":"A suspended acoustic-free oscillator should detect airflow intermittency through non-Gaussian displacement tails.","test":"Apply calibrated gust statistics.","contrary":"Tails reflect structural nonlinearities alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0463","hypothesis":"A suspended acoustic-free oscillator should detect airflow intermittency through non-Gaussian displacement tails.","prediction":"A suspended acoustic-free oscillator should detect airflow intermittency through non-Gaussian displacement tails.","test":"Apply calibrated gust statistics.","contrary_outcome":"Tails reflect structural nonlinearities alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0464","id":"S4-0464","volume":"900v4","title":"A chain of bistable links should store the location of an impact in its switched-state pattern.","prediction":"A chain of bistable links should store the location of an impact in its switched-state pattern.","test":"Strike known locations.","contrary":"Patterns are spatially ambiguous.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0464","hypothesis":"A chain of bistable links should store the location of an impact in its switched-state pattern.","prediction":"A chain of bistable links should store the location of an impact in its switched-state pattern.","test":"Strike known locations.","contrary_outcome":"Patterns are spatially ambiguous.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0465","id":"S4-0465","volume":"900v4","title":"A free rotor should reduce motor torque ripple by locking to the ripple harmonic through magnetic-free mechanical coupling.","prediction":"A free rotor should reduce motor torque ripple by locking to the ripple harmonic through magnetic-free mechanical coupling.","test":"Measure torque spectra.","contrary":"Rotor adds sidebands without reduction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0465","hypothesis":"A free rotor should reduce motor torque ripple by locking to the ripple harmonic through magnetic-free mechanical coupling.","prediction":"A free rotor should reduce motor torque ripple by locking to the ripple harmonic through magnetic-free mechanical coupling.","test":"Measure torque spectra.","contrary_outcome":"Rotor adds sidebands without reduction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0466","id":"S4-0466","volume":"900v4","title":"A rocking platform should recover from edge loading through a load-triggered counterweight shift.","prediction":"A rocking platform should recover from edge loading through a load-triggered counterweight shift.","test":"Measure recovery range.","contrary":"Counterweight moves destabilizingly.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0466","hypothesis":"A rocking platform should recover from edge loading through a load-triggered counterweight shift.","prediction":"A rocking platform should recover from edge loading through a load-triggered counterweight shift.","test":"Measure recovery range.","contrary_outcome":"Counterweight moves destabilizingly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0467","id":"S4-0467","volume":"900v4","title":"A compliant impact train should spread a pulse over time through sequential contact opening.","prediction":"A compliant impact train should spread a pulse over time through sequential contact opening.","test":"Measure transmitted waveform.","contrary":"Contacts close simultaneously.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0467","hypothesis":"A compliant impact train should spread a pulse over time through sequential contact opening.","prediction":"A compliant impact train should spread a pulse over time through sequential contact opening.","test":"Measure transmitted waveform.","contrary_outcome":"Contacts close simultaneously.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0468","id":"S4-0468","volume":"900v4","title":"A pendulum suspension should reject thermal length changes through a compensating curved support.","prediction":"A pendulum suspension should reject thermal length changes through a compensating curved support.","test":"Measure period-temperature drift.","contrary":"Drift remains unchanged.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0468","hypothesis":"A pendulum suspension should reject thermal length changes through a compensating curved support.","prediction":"A pendulum suspension should reject thermal length changes through a compensating curved support.","test":"Measure period-temperature drift.","contrary_outcome":"Drift remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0469","id":"S4-0469","volume":"900v4","title":"A rolling shell should reveal internal fluid stratification through orientation-dependent acceleration transients.","prediction":"A rolling shell should reveal internal fluid stratification through orientation-dependent acceleration transients.","test":"Create known layers.","contrary":"Transients cannot distinguish stratification from fill level.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0469","hypothesis":"A rolling shell should reveal internal fluid stratification through orientation-dependent acceleration transients.","prediction":"A rolling shell should reveal internal fluid stratification through orientation-dependent acceleration transients.","test":"Create known layers.","contrary_outcome":"Transients cannot distinguish stratification from fill level.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0470","id":"S4-0470","volume":"900v4","title":"A passive phase-locking mechanism should tolerate moderate drive-amplitude variation through geometric saturation.","prediction":"A passive phase-locking mechanism should tolerate moderate drive-amplitude variation through geometric saturation.","test":"Measure phase error.","contrary":"Locking range does not widen.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0470","hypothesis":"A passive phase-locking mechanism should tolerate moderate drive-amplitude variation through geometric saturation.","prediction":"A passive phase-locking mechanism should tolerate moderate drive-amplitude variation through geometric saturation.","test":"Measure phase error.","contrary_outcome":"Locking range does not widen.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0471","id":"S4-0471","volume":"900v4","title":"A suspended mass should estimate the duration of an acceleration pulse from its post-pulse orbit shape.","prediction":"A suspended mass should estimate the duration of an acceleration pulse from its post-pulse orbit shape.","test":"Apply calibrated pulses.","contrary":"Orbit depends only on impulse.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0471","hypothesis":"A suspended mass should estimate the duration of an acceleration pulse from its post-pulse orbit shape.","prediction":"A suspended mass should estimate the duration of an acceleration pulse from its post-pulse orbit shape.","test":"Apply calibrated pulses.","contrary_outcome":"Orbit depends only on impulse.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0471","hypothesis":"A suspended mass should estimate the duration of an acceleration pulse from its post-pulse orbit shape.","prediction":"A suspended mass should estimate the duration of an acceleration pulse from its post-pulse orbit shape.","test":"Apply calibrated pulses.","contrary_outcome":"Orbit depends only on impulse.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":53,"query":"A suspended mass estimate the duration of an acceleration pulse from its post-pulse orbit shape. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Apply calibrated pulses."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0472","id":"S4-0472","volume":"900v4","title":"A rotating hinged blade should reduce support moment during sudden blockage by folding tangentially.","prediction":"A rotating hinged blade should reduce support moment during sudden blockage by folding tangentially.","test":"Measure blockage forces.","contrary":"Folding happens after peak load.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0472","hypothesis":"A rotating hinged blade should reduce support moment during sudden blockage by folding tangentially.","prediction":"A rotating hinged blade should reduce support moment during sudden blockage by folding tangentially.","test":"Measure blockage forces.","contrary_outcome":"Folding happens after peak load.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0473","id":"S4-0473","volume":"900v4","title":"A coupled pendulum network should reroute energy after one oscillator becomes strongly damped.","prediction":"A coupled pendulum network should reroute energy after one oscillator becomes strongly damped.","test":"Measure spatial energy flow.","contrary":"Energy remains trapped near the damaged node.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0473","hypothesis":"A coupled pendulum network should reroute energy after one oscillator becomes strongly damped.","prediction":"A coupled pendulum network should reroute energy after one oscillator becomes strongly damped.","test":"Measure spatial energy flow.","contrary_outcome":"Energy remains trapped near the damaged node.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0474","id":"S4-0474","volume":"900v4","title":"A rocking friction element should attenuate drift from symmetric low-amplitude vibration.","prediction":"A rocking friction element should attenuate drift from symmetric low-amplitude vibration.","test":"Measure net displacement.","contrary":"Vibration causes additional drift.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0474","hypothesis":"A rocking friction element should attenuate drift from symmetric low-amplitude vibration.","prediction":"A rocking friction element should attenuate drift from symmetric low-amplitude vibration.","test":"Measure net displacement.","contrary_outcome":"Vibration causes additional drift.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0475","id":"S4-0475","volume":"900v4","title":"A passive resonance tracker should move its tuning mass toward the frequency of the strongest excitation component.","prediction":"A passive resonance tracker should move its tuning mass toward the frequency of the strongest excitation component.","test":"Apply two-tone drive.","contrary":"It locks to a weaker or spurious component.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0475","hypothesis":"A passive resonance tracker should move its tuning mass toward the frequency of the strongest excitation component.","prediction":"A passive resonance tracker should move its tuning mass toward the frequency of the strongest excitation component.","test":"Apply two-tone drive.","contrary_outcome":"It locks to a weaker or spurious component.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0476","id":"S4-0476","volume":"900v4","title":"A rolling encoder should detect slip from unequal timing between two mechanically linked contact wheels.","prediction":"A rolling encoder should detect slip from unequal timing between two mechanically linked contact wheels.","test":"Compare with optical motion.","contrary":"Timing mismatch does not identify slip.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0476","hypothesis":"A rolling encoder should detect slip from unequal timing between two mechanically linked contact wheels.","prediction":"A rolling encoder should detect slip from unequal timing between two mechanically linked contact wheels.","test":"Compare with optical motion.","contrary_outcome":"Timing mismatch does not identify slip.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0477","id":"S4-0477","volume":"900v4","title":"A suspended thin ring should distinguish torsional from translational impulses through opposite mode symmetries.","prediction":"A suspended thin ring should distinguish torsional from translational impulses through opposite mode symmetries.","test":"Apply calibrated impacts.","contrary":"Modes couple too strongly to separate.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0477","hypothesis":"A suspended thin ring should distinguish torsional from translational impulses through opposite mode symmetries.","prediction":"A suspended thin ring should distinguish torsional from translational impulses through opposite mode symmetries.","test":"Apply calibrated impacts.","contrary_outcome":"Modes couple too strongly to separate.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0478","id":"S4-0478","volume":"900v4","title":"A chain of free sliders should produce a delayed release after compression through sequential escape barriers.","prediction":"A chain of free sliders should produce a delayed release after compression through sequential escape barriers.","test":"Measure timing.","contrary":"Release remains simultaneous.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0478","hypothesis":"A chain of free sliders should produce a delayed release after compression through sequential escape barriers.","prediction":"A chain of free sliders should produce a delayed release after compression through sequential escape barriers.","test":"Measure timing.","contrary_outcome":"Release remains simultaneous.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0479","id":"S4-0479","volume":"900v4","title":"A rotating flexible spoke should indicate accumulated fatigue through a shifted centrifugal deployment speed.","prediction":"A rotating flexible spoke should indicate accumulated fatigue through a shifted centrifugal deployment speed.","test":"Cycle and measure thresholds.","contrary":"Threshold drift is not fatigue-specific.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0479","hypothesis":"A rotating flexible spoke should indicate accumulated fatigue through a shifted centrifugal deployment speed.","prediction":"A rotating flexible spoke should indicate accumulated fatigue through a shifted centrifugal deployment speed.","test":"Cycle and measure thresholds.","contrary_outcome":"Threshold drift is not fatigue-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0480","id":"S4-0480","volume":"900v4","title":"A passive impact limiter should reset its internal mass before the next event across a bounded repetition rate.","prediction":"A passive impact limiter should reset its internal mass before the next event across a bounded repetition rate.","test":"Measure reset time and peak force.","contrary":"Incomplete reset erases protection.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0480","hypothesis":"A passive impact limiter should reset its internal mass before the next event across a bounded repetition rate.","prediction":"A passive impact limiter should reset its internal mass before the next event across a bounded repetition rate.","test":"Measure reset time and peak force.","contrary_outcome":"Incomplete reset erases protection.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0481","id":"S4-0481","volume":"900v4","title":"A rocking bowl should separate particles by restitution using repeated edge collisions.","prediction":"A rocking bowl should separate particles by restitution using repeated edge collisions.","test":"Track equal-size particles.","contrary":"Sorting follows friction instead.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0481","hypothesis":"A rocking bowl should separate particles by restitution using repeated edge collisions.","prediction":"A rocking bowl should separate particles by restitution using repeated edge collisions.","test":"Track equal-size particles.","contrary_outcome":"Sorting follows friction instead.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0482","id":"S4-0482","volume":"900v4","title":"A coupled elastic loop should show a detectable geometric phase after a closed cycle of support motions.","prediction":"A coupled elastic loop should show a detectable geometric phase after a closed cycle of support motions.","test":"Apply reversed cycles.","contrary":"Final orientation is path-independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0482","hypothesis":"A coupled elastic loop should show a detectable geometric phase after a closed cycle of support motions.","prediction":"A coupled elastic loop should show a detectable geometric phase after a closed cycle of support motions.","test":"Apply reversed cycles.","contrary_outcome":"Final orientation is path-independent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0483","id":"S4-0483","volume":"900v4","title":"A suspended oscillator should estimate support compliance from its amplitude-dependent resonance splitting.","prediction":"A suspended oscillator should estimate support compliance from its amplitude-dependent resonance splitting.","test":"Vary known support stiffness.","contrary":"Splitting is dominated by drive nonlinearity.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0483","hypothesis":"A suspended oscillator should estimate support compliance from its amplitude-dependent resonance splitting.","prediction":"A suspended oscillator should estimate support compliance from its amplitude-dependent resonance splitting.","test":"Vary known support stiffness.","contrary_outcome":"Splitting is dominated by drive nonlinearity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0483","hypothesis":"A suspended oscillator should estimate support compliance from its amplitude-dependent resonance splitting.","prediction":"A suspended oscillator should estimate support compliance from its amplitude-dependent resonance splitting.","test":"Vary known support stiffness.","contrary_outcome":"Splitting is dominated by drive nonlinearity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":54,"query":"A suspended oscillator estimate support compliance from its amplitude-dependent resonance splitting. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Vary known support stiffness."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0484","id":"S4-0484","volume":"900v4","title":"A rotating clutch should transmit steady torque but release during rapid torque reversal.","prediction":"A rotating clutch should transmit steady torque but release during rapid torque reversal.","test":"Measure torque histories.","contrary":"Release depends only on magnitude.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0484","hypothesis":"A rotating clutch should transmit steady torque but release during rapid torque reversal.","prediction":"A rotating clutch should transmit steady torque but release during rapid torque reversal.","test":"Measure torque histories.","contrary_outcome":"Release depends only on magnitude.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0485","id":"S4-0485","volume":"900v4","title":"A rolling guide should compensate lateral track error through a freely tilting axle.","prediction":"A rolling guide should compensate lateral track error through a freely tilting axle.","test":"Measure trajectory.","contrary":"Axle tilt introduces larger error.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0485","hypothesis":"A rolling guide should compensate lateral track error through a freely tilting axle.","prediction":"A rolling guide should compensate lateral track error through a freely tilting axle.","test":"Measure trajectory.","contrary_outcome":"Axle tilt introduces larger error.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0486","id":"S4-0486","volume":"900v4","title":"A mechanical resonator should distinguish a sparse impulse train from continuous noise through occupancy of bistable states.","prediction":"A mechanical resonator should distinguish a sparse impulse train from continuous noise through occupancy of bistable states.","test":"Apply equal-power forcing.","contrary":"State occupancy is identical.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0486","hypothesis":"A mechanical resonator should distinguish a sparse impulse train from continuous noise through occupancy of bistable states.","prediction":"A mechanical resonator should distinguish a sparse impulse train from continuous noise through occupancy of bistable states.","test":"Apply equal-power forcing.","contrary_outcome":"State occupancy is identical.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0487","id":"S4-0487","volume":"900v4","title":"A rocking linkage should amplify a weak periodic input only near a chosen phase relative to gravity.","prediction":"A rocking linkage should amplify a weak periodic input only near a chosen phase relative to gravity.","test":"Measure gain versus phase.","contrary":"Gain lacks phase selectivity.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0487","hypothesis":"A rocking linkage should amplify a weak periodic input only near a chosen phase relative to gravity.","prediction":"A rocking linkage should amplify a weak periodic input only near a chosen phase relative to gravity.","test":"Measure gain versus phase.","contrary_outcome":"Gain lacks phase selectivity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0488","id":"S4-0488","volume":"900v4","title":"A suspended platform should distribute shock energy into orthogonal modes through a curved tether arrangement.","prediction":"A suspended platform should distribute shock energy into orthogonal modes through a curved tether arrangement.","test":"Measure modal energies.","contrary":"One mode retains almost all energy.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0488","hypothesis":"A suspended platform should distribute shock energy into orthogonal modes through a curved tether arrangement.","prediction":"A suspended platform should distribute shock energy into orthogonal modes through a curved tether arrangement.","test":"Measure modal energies.","contrary_outcome":"One mode retains almost all energy.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0489","id":"S4-0489","volume":"900v4","title":"A free rotor should detect flow pulsation asymmetry through unequal acceleration and deceleration intervals.","prediction":"A free rotor should detect flow pulsation asymmetry through unequal acceleration and deceleration intervals.","test":"Apply known waveforms.","contrary":"Intervals reflect mean flow only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0489","hypothesis":"A free rotor should detect flow pulsation asymmetry through unequal acceleration and deceleration intervals.","prediction":"A free rotor should detect flow pulsation asymmetry through unequal acceleration and deceleration intervals.","test":"Apply known waveforms.","contrary_outcome":"Intervals reflect mean flow only.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0490","id":"S4-0490","volume":"900v4","title":"A compliant oscillator should lower its own frequency before reaching a damaging amplitude.","prediction":"A compliant oscillator should lower its own frequency before reaching a damaging amplitude.","test":"Measure backbone curve and peak strain.","contrary":"Softening begins after damage.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0490","hypothesis":"A compliant oscillator should lower its own frequency before reaching a damaging amplitude.","prediction":"A compliant oscillator should lower its own frequency before reaching a damaging amplitude.","test":"Measure backbone curve and peak strain.","contrary_outcome":"Softening begins after damage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0491","id":"S4-0491","volume":"900v4","title":"A rolling body should preserve travel direction after brief contact loss through internal angular momentum storage.","prediction":"A rolling body should preserve travel direction after brief contact loss through internal angular momentum storage.","test":"Measure landing direction.","contrary":"Recontact direction remains random.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0491","hypothesis":"A rolling body should preserve travel direction after brief contact loss through internal angular momentum storage.","prediction":"A rolling body should preserve travel direction after brief contact loss through internal angular momentum storage.","test":"Measure landing direction.","contrary_outcome":"Recontact direction remains random.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0492","id":"S4-0492","volume":"900v4","title":"A passive inertial switch should distinguish repeated small shocks from one equal-energy large shock.","prediction":"A passive inertial switch should distinguish repeated small shocks from one equal-energy large shock.","test":"Apply controlled sequences.","contrary":"Both yield identical switching.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0492","hypothesis":"A passive inertial switch should distinguish repeated small shocks from one equal-energy large shock.","prediction":"A passive inertial switch should distinguish repeated small shocks from one equal-energy large shock.","test":"Apply controlled sequences.","contrary_outcome":"Both yield identical switching.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0493","id":"S4-0493","volume":"900v4","title":"A chain of rocking elements should amplify timing differences between two arrival pulses.","prediction":"A chain of rocking elements should amplify timing differences between two arrival pulses.","test":"Measure output separation.","contrary":"Timing differences shrink or become noisy.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0493","hypothesis":"A chain of rocking elements should amplify timing differences between two arrival pulses.","prediction":"A chain of rocking elements should amplify timing differences between two arrival pulses.","test":"Measure output separation.","contrary_outcome":"Timing differences shrink or become noisy.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0494","id":"S4-0494","volume":"900v4","title":"A rotating elastic hoop should reveal a local mass defect through a stationary deformation harmonic.","prediction":"A rotating elastic hoop should reveal a local mass defect through a stationary deformation harmonic.","test":"Add calibrated masses.","contrary":"Harmonic orientation fails to track defect.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0494","hypothesis":"A rotating elastic hoop should reveal a local mass defect through a stationary deformation harmonic.","prediction":"A rotating elastic hoop should reveal a local mass defect through a stationary deformation harmonic.","test":"Add calibrated masses.","contrary_outcome":"Harmonic orientation fails to track defect.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0495","id":"S4-0495","volume":"900v4","title":"A suspended counterweight should compensate load changes without shifting a platform's nominal height substantially.","prediction":"A suspended counterweight should compensate load changes without shifting a platform's nominal height substantially.","test":"Measure height across loads.","contrary":"Compensation requires large height changes.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0495","hypothesis":"A suspended counterweight should compensate load changes without shifting a platform's nominal height substantially.","prediction":"A suspended counterweight should compensate load changes without shifting a platform's nominal height substantially.","test":"Measure height across loads.","contrary_outcome":"Compensation requires large height changes.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0496","id":"S4-0496","volume":"900v4","title":"A rocking pendulum should estimate impact location from the ratio of rotation to translation.","prediction":"A rocking pendulum should estimate impact location from the ratio of rotation to translation.","test":"Strike known positions.","contrary":"Contact compliance destroys the ratio.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0496","hypothesis":"A rocking pendulum should estimate impact location from the ratio of rotation to translation.","prediction":"A rocking pendulum should estimate impact location from the ratio of rotation to translation.","test":"Strike known positions.","contrary_outcome":"Contact compliance destroys the ratio.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0497","id":"S4-0497","volume":"900v4","title":"A passive frequency divider should produce one output stroke per two drive cycles through alternating contact paths.","prediction":"A passive frequency divider should produce one output stroke per two drive cycles through alternating contact paths.","test":"Count strokes over frequency.","contrary":"Skipped states destroy division.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0497","hypothesis":"A passive frequency divider should produce one output stroke per two drive cycles through alternating contact paths.","prediction":"A passive frequency divider should produce one output stroke per two drive cycles through alternating contact paths.","test":"Count strokes over frequency.","contrary_outcome":"Skipped states destroy division.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0498","id":"S4-0498","volume":"900v4","title":"A rolling ring should reduce orientation sensitivity to floor slope through a moving internal ballast.","prediction":"A rolling ring should reduce orientation sensitivity to floor slope through a moving internal ballast.","test":"Measure steady orientation.","contrary":"Ballast increases slope sensitivity.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0498","hypothesis":"A rolling ring should reduce orientation sensitivity to floor slope through a moving internal ballast.","prediction":"A rolling ring should reduce orientation sensitivity to floor slope through a moving internal ballast.","test":"Measure steady orientation.","contrary_outcome":"Ballast increases slope sensitivity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0498","hypothesis":"A rolling ring should reduce orientation sensitivity to floor slope through a moving internal ballast.","prediction":"A rolling ring should reduce orientation sensitivity to floor slope through a moving internal ballast.","test":"Measure steady orientation.","contrary_outcome":"Ballast increases slope sensitivity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":55,"query":"A rolling ring reduce orientation sensitivity to floor slope through a moving internal ballast. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure steady orientation."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0499","id":"S4-0499","volume":"900v4","title":"A coupled oscillator should isolate a narrow harmful mode through a reversible change in coupling sign.","prediction":"A coupled oscillator should isolate a narrow harmful mode through a reversible change in coupling sign.","test":"Measure mode shapes and transfer.","contrary":"Sign change adds instability.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0499","hypothesis":"A coupled oscillator should isolate a narrow harmful mode through a reversible change in coupling sign.","prediction":"A coupled oscillator should isolate a narrow harmful mode through a reversible change in coupling sign.","test":"Measure mode shapes and transfer.","contrary_outcome":"Sign change adds instability.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0500","id":"S4-0500","volume":"900v4","title":"A suspended inertial latch should reset only after vibration energy falls below a separate lower threshold.","prediction":"A suspended inertial latch should reset only after vibration energy falls below a separate lower threshold.","test":"Sweep excitation up/down.","contrary":"Distinct reset threshold is absent.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0500","hypothesis":"A suspended inertial latch should reset only after vibration energy falls below a separate lower threshold.","prediction":"A suspended inertial latch should reset only after vibration energy falls below a separate lower threshold.","test":"Sweep excitation up/down.","contrary_outcome":"Distinct reset threshold is absent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0501","id":"S4-0501","volume":"900v4","title":"A textured rolling contact should expel liquid sideways before solid contact begins.","prediction":"A textured rolling contact should expel liquid sideways before solid contact begins.","test":"Image contact and liquid motion.","contrary":"Liquid remains trapped centrally.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0501","hypothesis":"A textured rolling contact should expel liquid sideways before solid contact begins.","prediction":"A textured rolling contact should expel liquid sideways before solid contact begins.","test":"Image contact and liquid motion.","contrary_outcome":"Liquid remains trapped centrally.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0502","id":"S4-0502","volume":"900v4","title":"A freely tilting bearing pad should reduce edge pressure during shaft misalignment.","prediction":"A freely tilting bearing pad should reduce edge pressure during shaft misalignment.","test":"Map contact load.","contrary":"Tilting creates a different edge maximum.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0502","hypothesis":"A freely tilting bearing pad should reduce edge pressure during shaft misalignment.","prediction":"A freely tilting bearing pad should reduce edge pressure during shaft misalignment.","test":"Map contact load.","contrary_outcome":"Tilting creates a different edge maximum.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0503","id":"S4-0503","volume":"900v4","title":"A compliant thread should distribute screw load across more engaged turns.","prediction":"A compliant thread should distribute screw load across more engaged turns.","test":"Measure turn-by-turn strain.","contrary":"The first turn still carries most load.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0503","hypothesis":"A compliant thread should distribute screw load across more engaged turns.","prediction":"A compliant thread should distribute screw load across more engaged turns.","test":"Measure turn-by-turn strain.","contrary_outcome":"The first turn still carries most load.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0503","hypothesis":"A compliant thread should distribute screw load across more engaged turns.","prediction":"A compliant thread should distribute screw load across more engaged turns.","test":"Measure turn-by-turn strain.","contrary_outcome":"The first turn still carries most load.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":56,"query":"A compliant thread distribute screw load across more engaged turns. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure turn-by-turn strain."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0504","id":"S4-0504","volume":"900v4","title":"A sliding joint should reveal incipient galling through a rising asymmetry between forward and reverse friction.","prediction":"A sliding joint should reveal incipient galling through a rising asymmetry between forward and reverse friction.","test":"Cycle benign metal contacts.","contrary":"Asymmetry appears only after severe damage.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0504","hypothesis":"A sliding joint should reveal incipient galling through a rising asymmetry between forward and reverse friction.","prediction":"A sliding joint should reveal incipient galling through a rising asymmetry between forward and reverse friction.","test":"Cycle benign metal contacts.","contrary_outcome":"Asymmetry appears only after severe damage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0505","id":"S4-0505","volume":"900v4","title":"A porous dry bearing should retain its friction after dust exposure when recesses isolate debris from load paths.","prediction":"A porous dry bearing should retain its friction after dust exposure when recesses isolate debris from load paths.","test":"Measure torque and inspect debris.","contrary":"Debris remains in the main contact.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0505","hypothesis":"A porous dry bearing should retain its friction after dust exposure when recesses isolate debris from load paths.","prediction":"A porous dry bearing should retain its friction after dust exposure when recesses isolate debris from load paths.","test":"Measure torque and inspect debris.","contrary_outcome":"Debris remains in the main contact.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0506","id":"S4-0506","volume":"900v4","title":"A hinged scraper should maintain nearly constant normal force across a curved surface.","prediction":"A hinged scraper should maintain nearly constant normal force across a curved surface.","test":"Measure contact force versus position.","contrary":"Force varies strongly with curvature.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0506","hypothesis":"A hinged scraper should maintain nearly constant normal force across a curved surface.","prediction":"A hinged scraper should maintain nearly constant normal force across a curved surface.","test":"Measure contact force versus position.","contrary_outcome":"Force varies strongly with curvature.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0507","id":"S4-0507","volume":"900v4","title":"A rolling seal should reduce wear by moving its highest-strain region each cycle.","prediction":"A rolling seal should reduce wear by moving its highest-strain region each cycle.","test":"Map strain and damage.","contrary":"Damage remains localized.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0507","hypothesis":"A rolling seal should reduce wear by moving its highest-strain region each cycle.","prediction":"A rolling seal should reduce wear by moving its highest-strain region each cycle.","test":"Map strain and damage.","contrary_outcome":"Damage remains localized.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0508","id":"S4-0508","volume":"900v4","title":"A patterned contact pad should distinguish static aging from contamination through relaxation after a small shear reversal.","prediction":"A patterned contact pad should distinguish static aging from contamination through relaxation after a small shear reversal.","test":"Apply controlled conditions.","contrary":"Relaxation signatures overlap.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0508","hypothesis":"A patterned contact pad should distinguish static aging from contamination through relaxation after a small shear reversal.","prediction":"A patterned contact pad should distinguish static aging from contamination through relaxation after a small shear reversal.","test":"Apply controlled conditions.","contrary_outcome":"Relaxation signatures overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0509","id":"S4-0509","volume":"900v4","title":"A compliant spline should tolerate shaft eccentricity through reversible tooth bending.","prediction":"A compliant spline should tolerate shaft eccentricity through reversible tooth bending.","test":"Measure torque ripple and strain.","contrary":"Bending increases ripple.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0509","hypothesis":"A compliant spline should tolerate shaft eccentricity through reversible tooth bending.","prediction":"A compliant spline should tolerate shaft eccentricity through reversible tooth bending.","test":"Measure torque ripple and strain.","contrary_outcome":"Bending increases ripple.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0510","id":"S4-0510","volume":"900v4","title":"A tapered key should self-center under alternating torque without axial migration.","prediction":"A tapered key should self-center under alternating torque without axial migration.","test":"Track position over reversals.","contrary":"Key walks out.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0510","hypothesis":"A tapered key should self-center under alternating torque without axial migration.","prediction":"A tapered key should self-center under alternating torque without axial migration.","test":"Track position over reversals.","contrary_outcome":"Key walks out.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0511","id":"S4-0511","volume":"900v4","title":"A segmented bearing should preserve lubrication-free low drag after one segment jams.","prediction":"A segmented bearing should preserve lubrication-free low drag after one segment jams.","test":"Jam known segments.","contrary":"Drag rises catastrophically.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0511","hypothesis":"A segmented bearing should preserve lubrication-free low drag after one segment jams.","prediction":"A segmented bearing should preserve lubrication-free low drag after one segment jams.","test":"Jam known segments.","contrary_outcome":"Drag rises catastrophically.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0512","id":"S4-0512","volume":"900v4","title":"A floating clamp jaw should reduce object indentation by rotating its pressure footprint.","prediction":"A floating clamp jaw should reduce object indentation by rotating its pressure footprint.","test":"Measure surface deformation.","contrary":"Rotation creates higher local pressure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0512","hypothesis":"A floating clamp jaw should reduce object indentation by rotating its pressure footprint.","prediction":"A floating clamp jaw should reduce object indentation by rotating its pressure footprint.","test":"Measure surface deformation.","contrary_outcome":"Rotation creates higher local pressure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0513","id":"S4-0513","volume":"900v4","title":"A helical surface groove should return displaced lubricant to a contact during reciprocal sliding.","prediction":"A helical surface groove should return displaced lubricant to a contact during reciprocal sliding.","test":"Image tracer lubricant.","contrary":"Reciprocation pumps lubricant away.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0513","hypothesis":"A helical surface groove should return displaced lubricant to a contact during reciprocal sliding.","prediction":"A helical surface groove should return displaced lubricant to a contact during reciprocal sliding.","test":"Image tracer lubricant.","contrary_outcome":"Reciprocation pumps lubricant away.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0514","id":"S4-0514","volume":"900v4","title":"A compliant pin should signal wear through a measurable shift in lateral stiffness before clearance grows visibly.","prediction":"A compliant pin should signal wear through a measurable shift in lateral stiffness before clearance grows visibly.","test":"Abrade calibrated pins.","contrary":"Stiffness signal appears too late.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0514","hypothesis":"A compliant pin should signal wear through a measurable shift in lateral stiffness before clearance grows visibly.","prediction":"A compliant pin should signal wear through a measurable shift in lateral stiffness before clearance grows visibly.","test":"Abrade calibrated pins.","contrary_outcome":"Stiffness signal appears too late.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0514","hypothesis":"A compliant pin should signal wear through a measurable shift in lateral stiffness before clearance grows visibly.","prediction":"A compliant pin should signal wear through a measurable shift in lateral stiffness before clearance grows visibly.","test":"Abrade calibrated pins.","contrary_outcome":"Stiffness signal appears too late.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":57,"query":"A compliant pin signal wear through a measurable shift in lateral stiffness before clearance grows visibly. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Abrade calibrated pins."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0515","id":"S4-0515","volume":"900v4","title":"A rolling tendon guide should detect strand flattening through periodic changes in contact width.","prediction":"A rolling tendon guide should detect strand flattening through periodic changes in contact width.","test":"Feed calibrated damaged tendons.","contrary":"Contact-width modulation cannot identify flattening.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0515","hypothesis":"A rolling tendon guide should detect strand flattening through periodic changes in contact width.","prediction":"A rolling tendon guide should detect strand flattening through periodic changes in contact width.","test":"Feed calibrated damaged tendons.","contrary_outcome":"Contact-width modulation cannot identify flattening.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0516","id":"S4-0516","volume":"900v4","title":"A split collet should release more uniformly when its fingers are linked by an elastic averaging ring.","prediction":"A split collet should release more uniformly when its fingers are linked by an elastic averaging ring.","test":"Measure contact release timing.","contrary":"Fingers remain asynchronous.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0516","hypothesis":"A split collet should release more uniformly when its fingers are linked by an elastic averaging ring.","prediction":"A split collet should release more uniformly when its fingers are linked by an elastic averaging ring.","test":"Measure contact release timing.","contrary_outcome":"Fingers remain asynchronous.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0517","id":"S4-0517","volume":"900v4","title":"A contact pad with shallow isolated pockets should reduce stick-slip by interrupting collective junction growth.","prediction":"A contact pad with shallow isolated pockets should reduce stick-slip by interrupting collective junction growth.","test":"Measure velocity and force.","contrary":"Pockets increase stick-slip.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0517","hypothesis":"A contact pad with shallow isolated pockets should reduce stick-slip by interrupting collective junction growth.","prediction":"A contact pad with shallow isolated pockets should reduce stick-slip by interrupting collective junction growth.","test":"Measure velocity and force.","contrary_outcome":"Pockets increase stick-slip.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0518","id":"S4-0518","volume":"900v4","title":"A floating washer should maintain bolt preload during small joint settlement through geometric rotation.","prediction":"A floating washer should maintain bolt preload during small joint settlement through geometric rotation.","test":"Measure preload and settlement.","contrary":"Rotation does not recover force.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0518","hypothesis":"A floating washer should maintain bolt preload during small joint settlement through geometric rotation.","prediction":"A floating washer should maintain bolt preload during small joint settlement through geometric rotation.","test":"Measure preload and settlement.","contrary_outcome":"Rotation does not recover force.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0519","id":"S4-0519","volume":"900v4","title":"A compliant rack should reveal a mounting crack through a localized phase delay in a traveling tooth-contact wave.","prediction":"A compliant rack should reveal a mounting crack through a localized phase delay in a traveling tooth-contact wave.","test":"Introduce known support cracks.","contrary":"Phase delay is not spatially localized.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0519","hypothesis":"A compliant rack should reveal a mounting crack through a localized phase delay in a traveling tooth-contact wave.","prediction":"A compliant rack should reveal a mounting crack through a localized phase delay in a traveling tooth-contact wave.","test":"Introduce known support cracks.","contrary_outcome":"Phase delay is not spatially localized.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0520","id":"S4-0520","volume":"900v4","title":"A sliding seal should shed particles during reversal when its lip temporarily rolls outward.","prediction":"A sliding seal should shed particles during reversal when its lip temporarily rolls outward.","test":"Image particle removal.","contrary":"Reversal embeds particles deeper.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0520","hypothesis":"A sliding seal should shed particles during reversal when its lip temporarily rolls outward.","prediction":"A sliding seal should shed particles during reversal when its lip temporarily rolls outward.","test":"Image particle removal.","contrary_outcome":"Reversal embeds particles deeper.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0521","id":"S4-0521","volume":"900v4","title":"A curved contact track should turn a friction increase into a visible lateral displacement.","prediction":"A curved contact track should turn a friction increase into a visible lateral displacement.","test":"Vary friction under fixed normal load.","contrary":"Displacement is not friction-specific.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0521","hypothesis":"A curved contact track should turn a friction increase into a visible lateral displacement.","prediction":"A curved contact track should turn a friction increase into a visible lateral displacement.","test":"Vary friction under fixed normal load.","contrary_outcome":"Displacement is not friction-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0522","id":"S4-0522","volume":"900v4","title":"A porous friction pad should reduce temperature peaks by redistributing contact over time.","prediction":"A porous friction pad should reduce temperature peaks by redistributing contact over time.","test":"Measure thermal maps.","contrary":"Hotspots remain stationary.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0522","hypothesis":"A porous friction pad should reduce temperature peaks by redistributing contact over time.","prediction":"A porous friction pad should reduce temperature peaks by redistributing contact over time.","test":"Measure thermal maps.","contrary_outcome":"Hotspots remain stationary.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0523","id":"S4-0523","volume":"900v4","title":"A freely rotating contact disk should reduce lateral scuffing in a turning support.","prediction":"A freely rotating contact disk should reduce lateral scuffing in a turning support.","test":"Measure wear during curved travel.","contrary":"Disk rotation adds scuffing.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0523","hypothesis":"A freely rotating contact disk should reduce lateral scuffing in a turning support.","prediction":"A freely rotating contact disk should reduce lateral scuffing in a turning support.","test":"Measure wear during curved travel.","contrary_outcome":"Disk rotation adds scuffing.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0524","id":"S4-0524","volume":"900v4","title":"A compliant wedge lock should hold under sustained force but release during a prescribed transverse tap.","prediction":"A compliant wedge lock should hold under sustained force but release during a prescribed transverse tap.","test":"Measure release thresholds.","contrary":"Random vibration also releases it.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0524","hypothesis":"A compliant wedge lock should hold under sustained force but release during a prescribed transverse tap.","prediction":"A compliant wedge lock should hold under sustained force but release during a prescribed transverse tap.","test":"Measure release thresholds.","contrary_outcome":"Random vibration also releases it.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0525","id":"S4-0525","volume":"900v4","title":"A layered bearing liner should expose subsurface wear through a changed acoustic echo before breakthrough.","prediction":"A layered bearing liner should expose subsurface wear through a changed acoustic echo before breakthrough.","test":"Abrade controlled thicknesses.","contrary":"Echo changes are below noise.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0525","hypothesis":"A layered bearing liner should expose subsurface wear through a changed acoustic echo before breakthrough.","prediction":"A layered bearing liner should expose subsurface wear through a changed acoustic echo before breakthrough.","test":"Abrade controlled thicknesses.","contrary_outcome":"Echo changes are below noise.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0526","id":"S4-0526","volume":"900v4","title":"A thread with variable flank compliance should equalize loading without changing pitch.","prediction":"A thread with variable flank compliance should equalize loading without changing pitch.","test":"Measure strain across turns.","contrary":"Loads remain unequal.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0526","hypothesis":"A thread with variable flank compliance should equalize loading without changing pitch.","prediction":"A thread with variable flank compliance should equalize loading without changing pitch.","test":"Measure strain across turns.","contrary_outcome":"Loads remain unequal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0527","id":"S4-0527","volume":"900v4","title":"A rolling contact should reveal a hidden surface step through an asymmetric force pulse.","prediction":"A rolling contact should reveal a hidden surface step through an asymmetric force pulse.","test":"Traverse calibrated steps.","contrary":"Pulse cannot distinguish height from speed.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0527","hypothesis":"A rolling contact should reveal a hidden surface step through an asymmetric force pulse.","prediction":"A rolling contact should reveal a hidden surface step through an asymmetric force pulse.","test":"Traverse calibrated steps.","contrary_outcome":"Pulse cannot distinguish height from speed.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0527","hypothesis":"A rolling contact should reveal a hidden surface step through an asymmetric force pulse.","prediction":"A rolling contact should reveal a hidden surface step through an asymmetric force pulse.","test":"Traverse calibrated steps.","contrary_outcome":"Pulse cannot distinguish height from speed.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":58,"query":"A rolling contact reveal a hidden surface step through an asymmetric force pulse. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Traverse calibrated steps."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0528","id":"S4-0528","volume":"900v4","title":"A floating brake shoe should reduce torque sensitivity to drum eccentricity.","prediction":"A floating brake shoe should reduce torque sensitivity to drum eccentricity.","test":"Measure torque ripple.","contrary":"Floating motion amplifies ripple.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0528","hypothesis":"A floating brake shoe should reduce torque sensitivity to drum eccentricity.","prediction":"A floating brake shoe should reduce torque sensitivity to drum eccentricity.","test":"Measure torque ripple.","contrary_outcome":"Floating motion amplifies ripple.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0529","id":"S4-0529","volume":"900v4","title":"A compliant joint seat should preserve alignment after repeated disassembly through three rolling constraints.","prediction":"A compliant joint seat should preserve alignment after repeated disassembly through three rolling constraints.","test":"Measure remounting error.","contrary":"Repeatability is worse than fixed seats.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0529","hypothesis":"A compliant joint seat should preserve alignment after repeated disassembly through three rolling constraints.","prediction":"A compliant joint seat should preserve alignment after repeated disassembly through three rolling constraints.","test":"Measure remounting error.","contrary_outcome":"Repeatability is worse than fixed seats.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0530","id":"S4-0530","volume":"900v4","title":"A narrow liquid-free contact should reduce adhesion when its edge peels continuously during translation.","prediction":"A narrow liquid-free contact should reduce adhesion when its edge peels continuously during translation.","test":"Measure friction and contact.","contrary":"Peeling adds equal energy loss.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0530","hypothesis":"A narrow liquid-free contact should reduce adhesion when its edge peels continuously during translation.","prediction":"A narrow liquid-free contact should reduce adhesion when its edge peels continuously during translation.","test":"Measure friction and contact.","contrary_outcome":"Peeling adds equal energy loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0531","id":"S4-0531","volume":"900v4","title":"A self-adjusting pulley should keep tendon contact angle constant during joint motion.","prediction":"A self-adjusting pulley should keep tendon contact angle constant during joint motion.","test":"Measure routing geometry.","contrary":"Angle varies strongly.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0531","hypothesis":"A self-adjusting pulley should keep tendon contact angle constant during joint motion.","prediction":"A self-adjusting pulley should keep tendon contact angle constant during joint motion.","test":"Measure routing geometry.","contrary_outcome":"Angle varies strongly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0532","id":"S4-0532","volume":"900v4","title":"A textured seal should retain contact after local abrasion by recruiting previously unloaded ridges.","prediction":"A textured seal should retain contact after local abrasion by recruiting previously unloaded ridges.","test":"Measure leak onset.","contrary":"Ridge recruitment fails.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0532","hypothesis":"A textured seal should retain contact after local abrasion by recruiting previously unloaded ridges.","prediction":"A textured seal should retain contact after local abrasion by recruiting previously unloaded ridges.","test":"Measure leak onset.","contrary_outcome":"Ridge recruitment fails.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0533","id":"S4-0533","volume":"900v4","title":"A compliant roller should reduce particle crushing by deforming around isolated hard inclusions.","prediction":"A compliant roller should reduce particle crushing by deforming around isolated hard inclusions.","test":"Measure fragment counts.","contrary":"Deformation raises local pressure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0533","hypothesis":"A compliant roller should reduce particle crushing by deforming around isolated hard inclusions.","prediction":"A compliant roller should reduce particle crushing by deforming around isolated hard inclusions.","test":"Measure fragment counts.","contrary_outcome":"Deformation raises local pressure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0534","id":"S4-0534","volume":"900v4","title":"A sliding interface should distinguish roughness direction from friction magnitude through two orthogonal force harmonics.","prediction":"A sliding interface should distinguish roughness direction from friction magnitude through two orthogonal force harmonics.","test":"Test controlled textures.","contrary":"Harmonics remain confounded.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0534","hypothesis":"A sliding interface should distinguish roughness direction from friction magnitude through two orthogonal force harmonics.","prediction":"A sliding interface should distinguish roughness direction from friction magnitude through two orthogonal force harmonics.","test":"Test controlled textures.","contrary_outcome":"Harmonics remain confounded.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0535","id":"S4-0535","volume":"900v4","title":"A flexible shaft coupling should isolate axial vibration through torsional deformation.","prediction":"A flexible shaft coupling should isolate axial vibration through torsional deformation.","test":"Measure cross-axis transfer.","contrary":"Torsion creates equal vibration elsewhere.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0535","hypothesis":"A flexible shaft coupling should isolate axial vibration through torsional deformation.","prediction":"A flexible shaft coupling should isolate axial vibration through torsional deformation.","test":"Measure cross-axis transfer.","contrary_outcome":"Torsion creates equal vibration elsewhere.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0536","id":"S4-0536","volume":"900v4","title":"A rolling cam follower should retain contact during rapid return through a passive auxiliary inertial mass.","prediction":"A rolling cam follower should retain contact during rapid return through a passive auxiliary inertial mass.","test":"Measure follower separation.","contrary":"Mass increases separation.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0536","hypothesis":"A rolling cam follower should retain contact during rapid return through a passive auxiliary inertial mass.","prediction":"A rolling cam follower should retain contact during rapid return through a passive auxiliary inertial mass.","test":"Measure follower separation.","contrary_outcome":"Mass increases separation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0536","hypothesis":"A rolling cam follower should retain contact during rapid return through a passive auxiliary inertial mass.","prediction":"A rolling cam follower should retain contact during rapid return through a passive auxiliary inertial mass.","test":"Measure follower separation.","contrary_outcome":"Mass increases separation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":59,"query":"A rolling cam follower retain contact during rapid return through a passive auxiliary inertial mass. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure follower separation."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0537","id":"S4-0537","volume":"900v4","title":"A porous contact layer should reveal trapped gas through a distinct unloading force plateau.","prediction":"A porous contact layer should reveal trapped gas through a distinct unloading force plateau.","test":"Compare gas-filled and vented states.","contrary":"Plateau is not gas-specific.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0537","hypothesis":"A porous contact layer should reveal trapped gas through a distinct unloading force plateau.","prediction":"A porous contact layer should reveal trapped gas through a distinct unloading force plateau.","test":"Compare gas-filled and vented states.","contrary_outcome":"Plateau is not gas-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0538","id":"S4-0538","volume":"900v4","title":"A floating friction disk should center itself under equal opposing drives.","prediction":"A floating friction disk should center itself under equal opposing drives.","test":"Measure eccentricity.","contrary":"It drifts toward one drive.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0538","hypothesis":"A floating friction disk should center itself under equal opposing drives.","prediction":"A floating friction disk should center itself under equal opposing drives.","test":"Measure eccentricity.","contrary_outcome":"It drifts toward one drive.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0539","id":"S4-0539","volume":"900v4","title":"A compliant latch tooth should reject shallow engagement by elastically ejecting the mating part before load transfer.","prediction":"A compliant latch tooth should reject shallow engagement by elastically ejecting the mating part before load transfer.","test":"Test controlled engagement depths.","contrary":"Shallow engagement still carries load.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0539","hypothesis":"A compliant latch tooth should reject shallow engagement by elastically ejecting the mating part before load transfer.","prediction":"A compliant latch tooth should reject shallow engagement by elastically ejecting the mating part before load transfer.","test":"Test controlled engagement depths.","contrary_outcome":"Shallow engagement still carries load.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0540","id":"S4-0540","volume":"900v4","title":"A helical wrap should grip more uniformly when its free end can slide through a low-friction guide.","prediction":"A helical wrap should grip more uniformly when its free end can slide through a low-friction guide.","test":"Map contact pressure.","contrary":"Free-end motion causes slip.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0540","hypothesis":"A helical wrap should grip more uniformly when its free end can slide through a low-friction guide.","prediction":"A helical wrap should grip more uniformly when its free end can slide through a low-friction guide.","test":"Map contact pressure.","contrary_outcome":"Free-end motion causes slip.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0541","id":"S4-0541","volume":"900v4","title":"A segmented scraper should clear uneven deposits with less substrate force than a rigid blade.","prediction":"A segmented scraper should clear uneven deposits with less substrate force than a rigid blade.","test":"Use standardized inert deposits.","contrary":"Removal requires equal force.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0541","hypothesis":"A segmented scraper should clear uneven deposits with less substrate force than a rigid blade.","prediction":"A segmented scraper should clear uneven deposits with less substrate force than a rigid blade.","test":"Use standardized inert deposits.","contrary_outcome":"Removal requires equal force.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0542","id":"S4-0542","volume":"900v4","title":"A rolling seal should maintain low leakage during lateral shaft displacement through a moving contact line.","prediction":"A rolling seal should maintain low leakage during lateral shaft displacement through a moving contact line.","test":"Measure leakage versus offset.","contrary":"Offset opens a persistent gap.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0542","hypothesis":"A rolling seal should maintain low leakage during lateral shaft displacement through a moving contact line.","prediction":"A rolling seal should maintain low leakage during lateral shaft displacement through a moving contact line.","test":"Measure leakage versus offset.","contrary_outcome":"Offset opens a persistent gap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0543","id":"S4-0543","volume":"900v4","title":"A compliant bearing cage should reduce ball collision noise under changing speed.","prediction":"A compliant bearing cage should reduce ball collision noise under changing speed.","test":"Measure sound and cage motion.","contrary":"Cage flexibility increases impacts.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0543","hypothesis":"A compliant bearing cage should reduce ball collision noise under changing speed.","prediction":"A compliant bearing cage should reduce ball collision noise under changing speed.","test":"Measure sound and cage motion.","contrary_outcome":"Cage flexibility increases impacts.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0544","id":"S4-0544","volume":"900v4","title":"A patterned friction interface should encode previous sliding direction in its next breakaway force.","prediction":"A patterned friction interface should encode previous sliding direction in its next breakaway force.","test":"Reverse controlled histories.","contrary":"Breakaway force has no directional memory.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0544","hypothesis":"A patterned friction interface should encode previous sliding direction in its next breakaway force.","prediction":"A patterned friction interface should encode previous sliding direction in its next breakaway force.","test":"Reverse controlled histories.","contrary_outcome":"Breakaway force has no directional memory.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0545","id":"S4-0545","volume":"900v4","title":"A floating joint insert should reduce thermal preload drift by moving along an oblique seat.","prediction":"A floating joint insert should reduce thermal preload drift by moving along an oblique seat.","test":"Measure force-temperature curves.","contrary":"Motion increases drift.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0545","hypothesis":"A floating joint insert should reduce thermal preload drift by moving along an oblique seat.","prediction":"A floating joint insert should reduce thermal preload drift by moving along an oblique seat.","test":"Measure force-temperature curves.","contrary_outcome":"Motion increases drift.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0546","id":"S4-0546","volume":"900v4","title":"A tapered tendon sheath should prevent local kinking by shifting curvature toward a wider region.","prediction":"A tapered tendon sheath should prevent local kinking by shifting curvature toward a wider region.","test":"Map curvature.","contrary":"The narrow end still kinks.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0546","hypothesis":"A tapered tendon sheath should prevent local kinking by shifting curvature toward a wider region.","prediction":"A tapered tendon sheath should prevent local kinking by shifting curvature toward a wider region.","test":"Map curvature.","contrary_outcome":"The narrow end still kinks.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0547","id":"S4-0547","volume":"900v4","title":"A porous sliding pad should release absorbed liquid under load and recover it during unloading.","prediction":"A porous sliding pad should release absorbed liquid under load and recover it during unloading.","test":"Weigh transfer over cycles.","contrary":"Liquid is lost irreversibly.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0547","hypothesis":"A porous sliding pad should release absorbed liquid under load and recover it during unloading.","prediction":"A porous sliding pad should release absorbed liquid under load and recover it during unloading.","test":"Weigh transfer over cycles.","contrary_outcome":"Liquid is lost irreversibly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0548","id":"S4-0548","volume":"900v4","title":"A compliant screw seat should limit tightening torque without permanent deformation.","prediction":"A compliant screw seat should limit tightening torque without permanent deformation.","test":"Measure torque-angle loops.","contrary":"Limiting requires plastic damage.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0548","hypothesis":"A compliant screw seat should limit tightening torque without permanent deformation.","prediction":"A compliant screw seat should limit tightening torque without permanent deformation.","test":"Measure torque-angle loops.","contrary_outcome":"Limiting requires plastic damage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0548","hypothesis":"A compliant screw seat should limit tightening torque without permanent deformation.","prediction":"A compliant screw seat should limit tightening torque without permanent deformation.","test":"Measure torque-angle loops.","contrary_outcome":"Limiting requires plastic damage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":60,"query":"A compliant screw seat limit tightening torque without permanent deformation. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure torque-angle loops."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0549","id":"S4-0549","volume":"900v4","title":"A rolling contact array should estimate load position from differential roller speeds.","prediction":"A rolling contact array should estimate load position from differential roller speeds.","test":"Apply known loads.","contrary":"Speeds reflect surface imperfections instead.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0549","hypothesis":"A rolling contact array should estimate load position from differential roller speeds.","prediction":"A rolling contact array should estimate load position from differential roller speeds.","test":"Apply known loads.","contrary_outcome":"Speeds reflect surface imperfections instead.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0550","id":"S4-0550","volume":"900v4","title":"A flexible brake band should maintain torque after local contamination through load redistribution.","prediction":"A flexible brake band should maintain torque after local contamination through load redistribution.","test":"Contaminate known sectors.","contrary":"Torque collapses at the contaminated sector.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0550","hypothesis":"A flexible brake band should maintain torque after local contamination through load redistribution.","prediction":"A flexible brake band should maintain torque after local contamination through load redistribution.","test":"Contaminate known sectors.","contrary_outcome":"Torque collapses at the contaminated sector.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0551","id":"S4-0551","volume":"900v4","title":"A self-opening wedge should prevent a friction clamp from remaining jammed after overload.","prediction":"A self-opening wedge should prevent a friction clamp from remaining jammed after overload.","test":"Measure release force.","contrary":"Overload creates persistent jamming.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0551","hypothesis":"A self-opening wedge should prevent a friction clamp from remaining jammed after overload.","prediction":"A self-opening wedge should prevent a friction clamp from remaining jammed after overload.","test":"Measure release force.","contrary_outcome":"Overload creates persistent jamming.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0552","id":"S4-0552","volume":"900v4","title":"A textured bearing surface should reduce sensitivity to initial lubricant volume through connected reserve grooves.","prediction":"A textured bearing surface should reduce sensitivity to initial lubricant volume through connected reserve grooves.","test":"Measure friction across doses.","contrary":"Dose sensitivity remains unchanged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0552","hypothesis":"A textured bearing surface should reduce sensitivity to initial lubricant volume through connected reserve grooves.","prediction":"A textured bearing surface should reduce sensitivity to initial lubricant volume through connected reserve grooves.","test":"Measure friction across doses.","contrary_outcome":"Dose sensitivity remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0553","id":"S4-0553","volume":"900v4","title":"A compliant gear tooth should expose fatigue through an altered contact dwell time.","prediction":"A compliant gear tooth should expose fatigue through an altered contact dwell time.","test":"Cycle controlled teeth.","contrary":"Dwell changes only after cracking is severe.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0553","hypothesis":"A compliant gear tooth should expose fatigue through an altered contact dwell time.","prediction":"A compliant gear tooth should expose fatigue through an altered contact dwell time.","test":"Cycle controlled teeth.","contrary_outcome":"Dwell changes only after cracking is severe.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0554","id":"S4-0554","volume":"900v4","title":"A floating contact plate should average substrate waviness through three distributed pivots.","prediction":"A floating contact plate should average substrate waviness through three distributed pivots.","test":"Measure pressure uniformity.","contrary":"Pivots imprint new pressure peaks.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0554","hypothesis":"A floating contact plate should average substrate waviness through three distributed pivots.","prediction":"A floating contact plate should average substrate waviness through three distributed pivots.","test":"Measure pressure uniformity.","contrary_outcome":"Pivots imprint new pressure peaks.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0555","id":"S4-0555","volume":"900v4","title":"A rolling cable anchor should distinguish cable torsion from axial extension through separate rotation and payout signals.","prediction":"A rolling cable anchor should distinguish cable torsion from axial extension through separate rotation and payout signals.","test":"Apply known deformations.","contrary":"Signals remain confounded.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0555","hypothesis":"A rolling cable anchor should distinguish cable torsion from axial extension through separate rotation and payout signals.","prediction":"A rolling cable anchor should distinguish cable torsion from axial extension through separate rotation and payout signals.","test":"Apply known deformations.","contrary_outcome":"Signals remain confounded.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0556","id":"S4-0556","volume":"900v4","title":"A split friction ring should cap holding force through controlled circumferential opening.","prediction":"A split friction ring should cap holding force through controlled circumferential opening.","test":"Measure force versus displacement.","contrary":"Force rises without capping.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0556","hypothesis":"A split friction ring should cap holding force through controlled circumferential opening.","prediction":"A split friction ring should cap holding force through controlled circumferential opening.","test":"Measure force versus displacement.","contrary_outcome":"Force rises without capping.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0557","id":"S4-0557","volume":"900v4","title":"A porous seal should reject dust through pressure-driven outward seepage without losing substantial holding pressure.","prediction":"A porous seal should reject dust through pressure-driven outward seepage without losing substantial holding pressure.","test":"Measure contamination and leakage.","contrary":"Protection requires excessive leakage.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0557","hypothesis":"A porous seal should reject dust through pressure-driven outward seepage without losing substantial holding pressure.","prediction":"A porous seal should reject dust through pressure-driven outward seepage without losing substantial holding pressure.","test":"Measure contamination and leakage.","contrary_outcome":"Protection requires excessive leakage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0558","id":"S4-0558","volume":"900v4","title":"A compliant dovetail should tolerate assembly misalignment through local finger rotation.","prediction":"A compliant dovetail should tolerate assembly misalignment through local finger rotation.","test":"Measure insertion force.","contrary":"Fingers jam under offset.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0558","hypothesis":"A compliant dovetail should tolerate assembly misalignment through local finger rotation.","prediction":"A compliant dovetail should tolerate assembly misalignment through local finger rotation.","test":"Measure insertion force.","contrary_outcome":"Fingers jam under offset.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0559","id":"S4-0559","volume":"900v4","title":"A sliding contact should reveal surface-film formation through a changed reversal-distance dependence.","prediction":"A sliding contact should reveal surface-film formation through a changed reversal-distance dependence.","test":"Grow controlled benign films.","contrary":"Bulk friction drift masks the effect.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0559","hypothesis":"A sliding contact should reveal surface-film formation through a changed reversal-distance dependence.","prediction":"A sliding contact should reveal surface-film formation through a changed reversal-distance dependence.","test":"Grow controlled benign films.","contrary_outcome":"Bulk friction drift masks the effect.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0560","id":"S4-0560","volume":"900v4","title":"A floating roller should reduce lateral force during diagonal motion by changing its spin axis.","prediction":"A floating roller should reduce lateral force during diagonal motion by changing its spin axis.","test":"Measure force vector.","contrary":"Axis motion is unstable.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0560","hypothesis":"A floating roller should reduce lateral force during diagonal motion by changing its spin axis.","prediction":"A floating roller should reduce lateral force during diagonal motion by changing its spin axis.","test":"Measure force vector.","contrary_outcome":"Axis motion is unstable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0561","id":"S4-0561","volume":"900v4","title":"A textured clamp pad should preserve grip after wetting by routing liquid away from contact ridges.","prediction":"A textured clamp pad should preserve grip after wetting by routing liquid away from contact ridges.","test":"Measure slip threshold.","contrary":"Wet grip remains unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0561","hypothesis":"A textured clamp pad should preserve grip after wetting by routing liquid away from contact ridges.","prediction":"A textured clamp pad should preserve grip after wetting by routing liquid away from contact ridges.","test":"Measure slip threshold.","contrary_outcome":"Wet grip remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0562","id":"S4-0562","volume":"900v4","title":"A compliant bearing seat should isolate high-frequency shaft motion while maintaining static alignment.","prediction":"A compliant bearing seat should isolate high-frequency shaft motion while maintaining static alignment.","test":"Measure transfer and alignment.","contrary":"Isolation introduces unacceptable runout.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0562","hypothesis":"A compliant bearing seat should isolate high-frequency shaft motion while maintaining static alignment.","prediction":"A compliant bearing seat should isolate high-frequency shaft motion while maintaining static alignment.","test":"Measure transfer and alignment.","contrary_outcome":"Isolation introduces unacceptable runout.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0562","hypothesis":"A compliant bearing seat should isolate high-frequency shaft motion while maintaining static alignment.","prediction":"A compliant bearing seat should isolate high-frequency shaft motion while maintaining static alignment.","test":"Measure transfer and alignment.","contrary_outcome":"Isolation introduces unacceptable runout.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":61,"query":"A compliant bearing seat isolate high-frequency shaft motion while maintaining static alignment. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure transfer and alignment."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0563","id":"S4-0563","volume":"900v4","title":"A rolling detent should provide a repeatable tactile-free force threshold with low wear.","prediction":"A rolling detent should provide a repeatable tactile-free force threshold with low wear.","test":"Measure switching force over cycles.","contrary":"Threshold drifts with wear.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0563","hypothesis":"A rolling detent should provide a repeatable tactile-free force threshold with low wear.","prediction":"A rolling detent should provide a repeatable tactile-free force threshold with low wear.","test":"Measure switching force over cycles.","contrary_outcome":"Threshold drifts with wear.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0564","id":"S4-0564","volume":"900v4","title":"A segmented seal should localize damage from one trapped particle.","prediction":"A segmented seal should localize damage from one trapped particle.","test":"Insert controlled inert particles.","contrary":"Leak propagates around the circumference.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0564","hypothesis":"A segmented seal should localize damage from one trapped particle.","prediction":"A segmented seal should localize damage from one trapped particle.","test":"Insert controlled inert particles.","contrary_outcome":"Leak propagates around the circumference.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0565","id":"S4-0565","volume":"900v4","title":"A floating pulley should detect unequal tendon friction through a measurable equilibrium shift.","prediction":"A floating pulley should detect unequal tendon friction through a measurable equilibrium shift.","test":"Vary path friction.","contrary":"Shift is dominated by tension mismatch alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0565","hypothesis":"A floating pulley should detect unequal tendon friction through a measurable equilibrium shift.","prediction":"A floating pulley should detect unequal tendon friction through a measurable equilibrium shift.","test":"Vary path friction.","contrary_outcome":"Shift is dominated by tension mismatch alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0566","id":"S4-0566","volume":"900v4","title":"A compliant surface should suppress stick-slip by storing shear over a longer length than the contact patch.","prediction":"A compliant surface should suppress stick-slip by storing shear over a longer length than the contact patch.","test":"Measure slip fronts.","contrary":"Stored shear increases event size.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0566","hypothesis":"A compliant surface should suppress stick-slip by storing shear over a longer length than the contact patch.","prediction":"A compliant surface should suppress stick-slip by storing shear over a longer length than the contact patch.","test":"Measure slip fronts.","contrary_outcome":"Stored shear increases event size.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0567","id":"S4-0567","volume":"900v4","title":"A helical contact ramp should transform wear depth into a self-compensating axial adjustment.","prediction":"A helical contact ramp should transform wear depth into a self-compensating axial adjustment.","test":"Abrade known depths.","contrary":"Adjustment fails to restore contact.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0567","hypothesis":"A helical contact ramp should transform wear depth into a self-compensating axial adjustment.","prediction":"A helical contact ramp should transform wear depth into a self-compensating axial adjustment.","test":"Abrade known depths.","contrary_outcome":"Adjustment fails to restore contact.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0568","id":"S4-0568","volume":"900v4","title":"A porous brake pad should reduce cooling-induced torque drift by equalizing internal airflow.","prediction":"A porous brake pad should reduce cooling-induced torque drift by equalizing internal airflow.","test":"Measure torque after controlled cooling.","contrary":"Airflow adds variability.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0568","hypothesis":"A porous brake pad should reduce cooling-induced torque drift by equalizing internal airflow.","prediction":"A porous brake pad should reduce cooling-induced torque drift by equalizing internal airflow.","test":"Measure torque after controlled cooling.","contrary_outcome":"Airflow adds variability.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0569","id":"S4-0569","volume":"900v4","title":"A rolling clamp should release with lower peak force when contact migration precedes normal unloading.","prediction":"A rolling clamp should release with lower peak force when contact migration precedes normal unloading.","test":"Measure release paths.","contrary":"Migration gives no peak reduction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0569","hypothesis":"A rolling clamp should release with lower peak force when contact migration precedes normal unloading.","prediction":"A rolling clamp should release with lower peak force when contact migration precedes normal unloading.","test":"Measure release paths.","contrary_outcome":"Migration gives no peak reduction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0570","id":"S4-0570","volume":"900v4","title":"A flexible shaft seal should reveal eccentric motion through a phase-shifted lip displacement.","prediction":"A flexible shaft seal should reveal eccentric motion through a phase-shifted lip displacement.","test":"Measure known offsets.","contrary":"Lip motion cannot separate offset from pressure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0570","hypothesis":"A flexible shaft seal should reveal eccentric motion through a phase-shifted lip displacement.","prediction":"A flexible shaft seal should reveal eccentric motion through a phase-shifted lip displacement.","test":"Measure known offsets.","contrary_outcome":"Lip motion cannot separate offset from pressure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0571","id":"S4-0571","volume":"900v4","title":"A textured friction wheel should retain traction after one region wears smooth through passive load shifting.","prediction":"A textured friction wheel should retain traction after one region wears smooth through passive load shifting.","test":"Measure traction over wear.","contrary":"Load remains on the smooth region.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0571","hypothesis":"A textured friction wheel should retain traction after one region wears smooth through passive load shifting.","prediction":"A textured friction wheel should retain traction after one region wears smooth through passive load shifting.","test":"Measure traction over wear.","contrary_outcome":"Load remains on the smooth region.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0572","id":"S4-0572","volume":"900v4","title":"A compliant contact ring should reduce assembly torque variation by averaging local surface height errors.","prediction":"A compliant contact ring should reduce assembly torque variation by averaging local surface height errors.","test":"Measure repeated assemblies.","contrary":"Variation remains equal.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0572","hypothesis":"A compliant contact ring should reduce assembly torque variation by averaging local surface height errors.","prediction":"A compliant contact ring should reduce assembly torque variation by averaging local surface height errors.","test":"Measure repeated assemblies.","contrary_outcome":"Variation remains equal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0573","id":"S4-0573","volume":"900v4","title":"A floating scraper should avoid chatter by moving its effective pivot with contact force.","prediction":"A floating scraper should avoid chatter by moving its effective pivot with contact force.","test":"Measure vibration spectra.","contrary":"Pivot motion creates a new instability.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0573","hypothesis":"A floating scraper should avoid chatter by moving its effective pivot with contact force.","prediction":"A floating scraper should avoid chatter by moving its effective pivot with contact force.","test":"Measure vibration spectra.","contrary_outcome":"Pivot motion creates a new instability.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0574","id":"S4-0574","volume":"900v4","title":"A rolling support should detect local surface compliance through contact-time asymmetry.","prediction":"A rolling support should detect local surface compliance through contact-time asymmetry.","test":"Traverse calibrated soft patches.","contrary":"Roughness creates identical asymmetry.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0574","hypothesis":"A rolling support should detect local surface compliance through contact-time asymmetry.","prediction":"A rolling support should detect local surface compliance through contact-time asymmetry.","test":"Traverse calibrated soft patches.","contrary_outcome":"Roughness creates identical asymmetry.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0574","hypothesis":"A rolling support should detect local surface compliance through contact-time asymmetry.","prediction":"A rolling support should detect local surface compliance through contact-time asymmetry.","test":"Traverse calibrated soft patches.","contrary_outcome":"Roughness creates identical asymmetry.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":62,"query":"A rolling support detect local surface compliance through contact-time asymmetry. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Traverse calibrated soft patches."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0575","id":"S4-0575","volume":"900v4","title":"A porous tendon liner should reduce water-induced friction changes by storing a stable interfacial liquid volume.","prediction":"A porous tendon liner should reduce water-induced friction changes by storing a stable interfacial liquid volume.","test":"Measure wet/dry transitions.","contrary":"Storage increases hysteresis.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0575","hypothesis":"A porous tendon liner should reduce water-induced friction changes by storing a stable interfacial liquid volume.","prediction":"A porous tendon liner should reduce water-induced friction changes by storing a stable interfacial liquid volume.","test":"Measure wet/dry transitions.","contrary_outcome":"Storage increases hysteresis.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0576","id":"S4-0576","volume":"900v4","title":"A compliant gear mesh should tolerate a missing tooth by temporarily increasing adjacent engagement.","prediction":"A compliant gear mesh should tolerate a missing tooth by temporarily increasing adjacent engagement.","test":"Remove one tooth and measure torque.","contrary":"Transmission stalls.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0576","hypothesis":"A compliant gear mesh should tolerate a missing tooth by temporarily increasing adjacent engagement.","prediction":"A compliant gear mesh should tolerate a missing tooth by temporarily increasing adjacent engagement.","test":"Remove one tooth and measure torque.","contrary_outcome":"Transmission stalls.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0577","id":"S4-0577","volume":"900v4","title":"A self-centering wedge pair should preserve contact symmetry under unequal normal loads.","prediction":"A self-centering wedge pair should preserve contact symmetry under unequal normal loads.","test":"Map contact areas.","contrary":"Symmetry is not restored.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0577","hypothesis":"A self-centering wedge pair should preserve contact symmetry under unequal normal loads.","prediction":"A self-centering wedge pair should preserve contact symmetry under unequal normal loads.","test":"Map contact areas.","contrary_outcome":"Symmetry is not restored.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0578","id":"S4-0578","volume":"900v4","title":"A textured seal seat should prevent liquid films bridging a vent after shutdown.","prediction":"A textured seal seat should prevent liquid films bridging a vent after shutdown.","test":"Image residual films.","contrary":"Vent remains sealed by liquid.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0578","hypothesis":"A textured seal seat should prevent liquid films bridging a vent after shutdown.","prediction":"A textured seal seat should prevent liquid films bridging a vent after shutdown.","test":"Image residual films.","contrary_outcome":"Vent remains sealed by liquid.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0579","id":"S4-0579","volume":"900v4","title":"A floating bearing segment should reduce thermal ovalization by rotating toward lower-pressure regions.","prediction":"A floating bearing segment should reduce thermal ovalization by rotating toward lower-pressure regions.","test":"Measure geometry under heating.","contrary":"Rotation worsens ovality.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0579","hypothesis":"A floating bearing segment should reduce thermal ovalization by rotating toward lower-pressure regions.","prediction":"A floating bearing segment should reduce thermal ovalization by rotating toward lower-pressure regions.","test":"Measure geometry under heating.","contrary_outcome":"Rotation worsens ovality.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0580","id":"S4-0580","volume":"900v4","title":"A compliant friction clutch should expose overload through a visible circumferential expansion before slipping.","prediction":"A compliant friction clutch should expose overload through a visible circumferential expansion before slipping.","test":"Measure shape and torque.","contrary":"Slip begins before visible change.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0580","hypothesis":"A compliant friction clutch should expose overload through a visible circumferential expansion before slipping.","prediction":"A compliant friction clutch should expose overload through a visible circumferential expansion before slipping.","test":"Measure shape and torque.","contrary_outcome":"Slip begins before visible change.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0581","id":"S4-0581","volume":"900v4","title":"A rolling guide should maintain nearly constant tendon path length during lateral articulation.","prediction":"A rolling guide should maintain nearly constant tendon path length during lateral articulation.","test":"Measure path length.","contrary":"Length error remains large.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0581","hypothesis":"A rolling guide should maintain nearly constant tendon path length during lateral articulation.","prediction":"A rolling guide should maintain nearly constant tendon path length during lateral articulation.","test":"Measure path length.","contrary_outcome":"Length error remains large.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0582","id":"S4-0582","volume":"900v4","title":"A porous contact sensor should distinguish normal pressure from wetting through separate mechanical and optical signals.","prediction":"A porous contact sensor should distinguish normal pressure from wetting through separate mechanical and optical signals.","test":"Calibrate both.","contrary":"Signals remain coupled.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0582","hypothesis":"A porous contact sensor should distinguish normal pressure from wetting through separate mechanical and optical signals.","prediction":"A porous contact sensor should distinguish normal pressure from wetting through separate mechanical and optical signals.","test":"Calibrate both.","contrary_outcome":"Signals remain coupled.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0583","id":"S4-0583","volume":"900v4","title":"A segmented clamp should preserve holding force after one jaw loses contact.","prediction":"A segmented clamp should preserve holding force after one jaw loses contact.","test":"Remove one contact and measure force.","contrary":"Remaining jaws overload or slip.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0583","hypothesis":"A segmented clamp should preserve holding force after one jaw loses contact.","prediction":"A segmented clamp should preserve holding force after one jaw loses contact.","test":"Remove one contact and measure force.","contrary_outcome":"Remaining jaws overload or slip.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0584","id":"S4-0584","volume":"900v4","title":"A floating screw nut should reduce thread binding under lateral load through controlled tilt.","prediction":"A floating screw nut should reduce thread binding under lateral load through controlled tilt.","test":"Measure drive torque.","contrary":"Tilt increases binding.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0584","hypothesis":"A floating screw nut should reduce thread binding under lateral load through controlled tilt.","prediction":"A floating screw nut should reduce thread binding under lateral load through controlled tilt.","test":"Measure drive torque.","contrary_outcome":"Tilt increases binding.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0585","id":"S4-0585","volume":"900v4","title":"A compliant contact pad should recover grip after oil-free dust exposure through cyclic surface stretching.","prediction":"A compliant contact pad should recover grip after oil-free dust exposure through cyclic surface stretching.","test":"Measure slip force before and after stretching.","contrary":"Dust remains trapped.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0585","hypothesis":"A compliant contact pad should recover grip after oil-free dust exposure through cyclic surface stretching.","prediction":"A compliant contact pad should recover grip after oil-free dust exposure through cyclic surface stretching.","test":"Measure slip force before and after stretching.","contrary_outcome":"Dust remains trapped.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0586","id":"S4-0586","volume":"900v4","title":"A rolling friction reference should measure instrument drag independently of the tested sliding contact.","prediction":"A rolling friction reference should measure instrument drag independently of the tested sliding contact.","test":"Compare with calibrated drag.","contrary":"Reference is not mechanically independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0586","hypothesis":"A rolling friction reference should measure instrument drag independently of the tested sliding contact.","prediction":"A rolling friction reference should measure instrument drag independently of the tested sliding contact.","test":"Compare with calibrated drag.","contrary_outcome":"Reference is not mechanically independent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0587","id":"S4-0587","volume":"900v4","title":"A textured bearing should delay lubricant starvation by moving liquid toward the inlet during speed reduction.","prediction":"A textured bearing should delay lubricant starvation by moving liquid toward the inlet during speed reduction.","test":"Image tracer liquid.","contrary":"Deceleration drains the inlet.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0587","hypothesis":"A textured bearing should delay lubricant starvation by moving liquid toward the inlet during speed reduction.","prediction":"A textured bearing should delay lubricant starvation by moving liquid toward the inlet during speed reduction.","test":"Image tracer liquid.","contrary_outcome":"Deceleration drains the inlet.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0588","id":"S4-0588","volume":"900v4","title":"A flexible latch should resist accidental release from vibration through opposing contact-phase requirements.","prediction":"A flexible latch should resist accidental release from vibration through opposing contact-phase requirements.","test":"Apply vibration and deliberate release.","contrary":"Vibration satisfies both phases.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0588","hypothesis":"A flexible latch should resist accidental release from vibration through opposing contact-phase requirements.","prediction":"A flexible latch should resist accidental release from vibration through opposing contact-phase requirements.","test":"Apply vibration and deliberate release.","contrary_outcome":"Vibration satisfies both phases.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0589","id":"S4-0589","volume":"900v4","title":"A floating torque sensor should reject bending moments through a freely aligning contact ring.","prediction":"A floating torque sensor should reject bending moments through a freely aligning contact ring.","test":"Apply combined loads.","contrary":"Bending cross-talk remains high.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0589","hypothesis":"A floating torque sensor should reject bending moments through a freely aligning contact ring.","prediction":"A floating torque sensor should reject bending moments through a freely aligning contact ring.","test":"Apply combined loads.","contrary_outcome":"Bending cross-talk remains high.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0589","hypothesis":"A floating torque sensor should reject bending moments through a freely aligning contact ring.","prediction":"A floating torque sensor should reject bending moments through a freely aligning contact ring.","test":"Apply combined loads.","contrary_outcome":"Bending cross-talk remains high.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":63,"query":"A floating torque sensor reject bending moments through a freely aligning contact ring. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Apply combined loads."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0590","id":"S4-0590","volume":"900v4","title":"A compliant seal support should maintain pressure under small thermal cycling through reversible radial breathing.","prediction":"A compliant seal support should maintain pressure under small thermal cycling through reversible radial breathing.","test":"Measure leakage cycles.","contrary":"Breathing pumps contamination inward.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0590","hypothesis":"A compliant seal support should maintain pressure under small thermal cycling through reversible radial breathing.","prediction":"A compliant seal support should maintain pressure under small thermal cycling through reversible radial breathing.","test":"Measure leakage cycles.","contrary_outcome":"Breathing pumps contamination inward.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0591","id":"S4-0591","volume":"900v4","title":"A rolling contact should estimate abrasive-particle size from the duration of transient force spikes.","prediction":"A rolling contact should estimate abrasive-particle size from the duration of transient force spikes.","test":"Introduce known inert grit.","contrary":"Duration depends mainly on speed.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0591","hypothesis":"A rolling contact should estimate abrasive-particle size from the duration of transient force spikes.","prediction":"A rolling contact should estimate abrasive-particle size from the duration of transient force spikes.","test":"Introduce known inert grit.","contrary_outcome":"Duration depends mainly on speed.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0592","id":"S4-0592","volume":"900v4","title":"A porous sliding layer should reduce debris recirculation by moving particles into dead-end recesses.","prediction":"A porous sliding layer should reduce debris recirculation by moving particles into dead-end recesses.","test":"Inspect trajectories and wear.","contrary":"Particles return to the contact.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0592","hypothesis":"A porous sliding layer should reduce debris recirculation by moving particles into dead-end recesses.","prediction":"A porous sliding layer should reduce debris recirculation by moving particles into dead-end recesses.","test":"Inspect trajectories and wear.","contrary_outcome":"Particles return to the contact.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0593","id":"S4-0593","volume":"900v4","title":"A segmented wheel tread should reduce force peaks over sharp edges through staggered engagement.","prediction":"A segmented wheel tread should reduce force peaks over sharp edges through staggered engagement.","test":"Measure axle forces.","contrary":"Segments strike simultaneously.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0593","hypothesis":"A segmented wheel tread should reduce force peaks over sharp edges through staggered engagement.","prediction":"A segmented wheel tread should reduce force peaks over sharp edges through staggered engagement.","test":"Measure axle forces.","contrary_outcome":"Segments strike simultaneously.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0594","id":"S4-0594","volume":"900v4","title":"A floating clamp should reveal loss of preload through a visible change in jaw angle.","prediction":"A floating clamp should reveal loss of preload through a visible change in jaw angle.","test":"Measure force and angle.","contrary":"Angle is insensitive near useful loads.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0594","hypothesis":"A floating clamp should reveal loss of preload through a visible change in jaw angle.","prediction":"A floating clamp should reveal loss of preload through a visible change in jaw angle.","test":"Measure force and angle.","contrary_outcome":"Angle is insensitive near useful loads.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0595","id":"S4-0595","volume":"900v4","title":"A compliant contact geometry should make release force less sensitive to dwell time.","prediction":"A compliant contact geometry should make release force less sensitive to dwell time.","test":"Measure breakaway after varied dwell.","contrary":"Aging remains unchanged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0595","hypothesis":"A compliant contact geometry should make release force less sensitive to dwell time.","prediction":"A compliant contact geometry should make release force less sensitive to dwell time.","test":"Measure breakaway after varied dwell.","contrary_outcome":"Aging remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0596","id":"S4-0596","volume":"900v4","title":"A rolling shaft support should isolate one seized element through automatic load transfer.","prediction":"A rolling shaft support should isolate one seized element through automatic load transfer.","test":"Seize controlled rollers.","contrary":"Seizure locks the shaft.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0596","hypothesis":"A rolling shaft support should isolate one seized element through automatic load transfer.","prediction":"A rolling shaft support should isolate one seized element through automatic load transfer.","test":"Seize controlled rollers.","contrary_outcome":"Seizure locks the shaft.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0597","id":"S4-0597","volume":"900v4","title":"A textured squeeze pad should expel water before its frictional load path engages.","prediction":"A textured squeeze pad should expel water before its frictional load path engages.","test":"Measure contact sequence.","contrary":"Grip engages while liquid remains trapped.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0597","hypothesis":"A textured squeeze pad should expel water before its frictional load path engages.","prediction":"A textured squeeze pad should expel water before its frictional load path engages.","test":"Measure contact sequence.","contrary_outcome":"Grip engages while liquid remains trapped.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0598","id":"S4-0598","volume":"900v4","title":"A flexible contact ring should preserve its calibrated force after a minor permanent surface dent.","prediction":"A flexible contact ring should preserve its calibrated force after a minor permanent surface dent.","test":"Indent controlled regions.","contrary":"Dent shifts the force curve.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0598","hypothesis":"A flexible contact ring should preserve its calibrated force after a minor permanent surface dent.","prediction":"A flexible contact ring should preserve its calibrated force after a minor permanent surface dent.","test":"Indent controlled regions.","contrary_outcome":"Dent shifts the force curve.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0599","id":"S4-0599","volume":"900v4","title":"A floating friction element should distinguish torque reversal from torque unloading through different stable positions.","prediction":"A floating friction element should distinguish torque reversal from torque unloading through different stable positions.","test":"Apply both histories.","contrary":"Positions are identical.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0599","hypothesis":"A floating friction element should distinguish torque reversal from torque unloading through different stable positions.","prediction":"A floating friction element should distinguish torque reversal from torque unloading through different stable positions.","test":"Apply both histories.","contrary_outcome":"Positions are identical.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0600","id":"S4-0600","volume":"900v4","title":"A compliant bearing liner should warn of approaching seizure through an amplified temperature-gradient displacement.","prediction":"A compliant bearing liner should warn of approaching seizure through an amplified temperature-gradient displacement.","test":"Measure motion and friction.","contrary":"Warning appears after seizure begins.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0600","hypothesis":"A compliant bearing liner should warn of approaching seizure through an amplified temperature-gradient displacement.","prediction":"A compliant bearing liner should warn of approaching seizure through an amplified temperature-gradient displacement.","test":"Measure motion and friction.","contrary_outcome":"Warning appears after seizure begins.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0600","hypothesis":"A compliant bearing liner should warn of approaching seizure through an amplified temperature-gradient displacement.","prediction":"A compliant bearing liner should warn of approaching seizure through an amplified temperature-gradient displacement.","test":"Measure motion and friction.","contrary_outcome":"Warning appears after seizure begins.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":64,"query":"A compliant bearing liner warn of approaching seizure through an amplified temperature-gradient displacement. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure motion and friction."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0601","id":"S4-0601","volume":"900v4","title":"A rotating conductive shell should reveal wall-thickness variation through angle-dependent magnetic drag.","prediction":"A rotating conductive shell should reveal wall-thickness variation through angle-dependent magnetic drag.","test":"Measure torque on machined standards.","contrary":"Drag harmonics do not track thickness.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0601","hypothesis":"A rotating conductive shell should reveal wall-thickness variation through angle-dependent magnetic drag.","prediction":"A rotating conductive shell should reveal wall-thickness variation through angle-dependent magnetic drag.","test":"Measure torque on machined standards.","contrary_outcome":"Drag harmonics do not track thickness.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0602","id":"S4-0602","volume":"900v4","title":"A suspended magnet should distinguish a conductive plate edge from a crack through the spatial width of damping changes.","prediction":"A suspended magnet should distinguish a conductive plate edge from a crack through the spatial width of damping changes.","test":"Scan known features.","contrary":"Widths overlap.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0602","hypothesis":"A suspended magnet should distinguish a conductive plate edge from a crack through the spatial width of damping changes.","prediction":"A suspended magnet should distinguish a conductive plate edge from a crack through the spatial width of damping changes.","test":"Scan known features.","contrary_outcome":"Widths overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0602","hypothesis":"A suspended magnet should distinguish a conductive plate edge from a crack through the spatial width of damping changes.","prediction":"A suspended magnet should distinguish a conductive plate edge from a crack through the spatial width of damping changes.","test":"Scan known features.","contrary_outcome":"Widths overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":65,"query":"A suspended magnet distinguish a conductive plate edge from a crack through the spatial width of damping changes. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Scan known features."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0603","id":"S4-0603","volume":"900v4","title":"A passive flux shunt should reduce magnetic holding-force sensitivity to small target gaps.","prediction":"A passive flux shunt should reduce magnetic holding-force sensitivity to small target gaps.","test":"Measure pull force versus gap.","contrary":"Sensitivity remains unchanged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0603","hypothesis":"A passive flux shunt should reduce magnetic holding-force sensitivity to small target gaps.","prediction":"A passive flux shunt should reduce magnetic holding-force sensitivity to small target gaps.","test":"Measure pull force versus gap.","contrary_outcome":"Sensitivity remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0604","id":"S4-0604","volume":"900v4","title":"A compliant magnetic circuit should open a visible gap when a target loses permeability through heating.","prediction":"A compliant magnetic circuit should open a visible gap when a target loses permeability through heating.","test":"Heat calibrated targets.","contrary":"Gap responds mainly to support expansion.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0604","hypothesis":"A compliant magnetic circuit should open a visible gap when a target loses permeability through heating.","prediction":"A compliant magnetic circuit should open a visible gap when a target loses permeability through heating.","test":"Heat calibrated targets.","contrary_outcome":"Gap responds mainly to support expansion.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0605","id":"S4-0605","volume":"900v4","title":"A conducting loop should sense torsional vibration through motional voltage while rejecting axial translation.","prediction":"A conducting loop should sense torsional vibration through motional voltage while rejecting axial translation.","test":"Apply calibrated motions.","contrary":"Translation creates comparable voltage.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0605","hypothesis":"A conducting loop should sense torsional vibration through motional voltage while rejecting axial translation.","prediction":"A conducting loop should sense torsional vibration through motional voltage while rejecting axial translation.","test":"Apply calibrated motions.","contrary_outcome":"Translation creates comparable voltage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0606","id":"S4-0606","volume":"900v4","title":"A floating magnetic guide should center a steel rod without contact over a bounded lateral range.","prediction":"A floating magnetic guide should center a steel rod without contact over a bounded lateral range.","test":"Measure restoring force.","contrary":"Equilibrium is unstable in an uncontrolled direction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0606","hypothesis":"A floating magnetic guide should center a steel rod without contact over a bounded lateral range.","prediction":"A floating magnetic guide should center a steel rod without contact over a bounded lateral range.","test":"Measure restoring force.","contrary_outcome":"Equilibrium is unstable in an uncontrolled direction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0607","id":"S4-0607","volume":"900v4","title":"A segmented conductor should reduce eddy-current heating while preserving magnetic-force sensing.","prediction":"A segmented conductor should reduce eddy-current heating while preserving magnetic-force sensing.","test":"Measure heating and force sensitivity.","contrary":"Segmentation erases useful sensitivity.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0607","hypothesis":"A segmented conductor should reduce eddy-current heating while preserving magnetic-force sensing.","prediction":"A segmented conductor should reduce eddy-current heating while preserving magnetic-force sensing.","test":"Measure heating and force sensitivity.","contrary_outcome":"Segmentation erases useful sensitivity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0608","id":"S4-0608","volume":"900v4","title":"A mechanically modulated inductive gap should separate target conductivity from lift-off distance.","prediction":"A mechanically modulated inductive gap should separate target conductivity from lift-off distance.","test":"Vary both independently.","contrary":"Signals remain inseparable.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0608","hypothesis":"A mechanically modulated inductive gap should separate target conductivity from lift-off distance.","prediction":"A mechanically modulated inductive gap should separate target conductivity from lift-off distance.","test":"Vary both independently.","contrary_outcome":"Signals remain inseparable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0609","id":"S4-0609","volume":"900v4","title":"A rotating magnet pair should generate a nearly constant restoring torque through shaped angular spacing.","prediction":"A rotating magnet pair should generate a nearly constant restoring torque through shaped angular spacing.","test":"Measure torque-angle curves.","contrary":"Torque remains strongly angle-dependent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0609","hypothesis":"A rotating magnet pair should generate a nearly constant restoring torque through shaped angular spacing.","prediction":"A rotating magnet pair should generate a nearly constant restoring torque through shaped angular spacing.","test":"Measure torque-angle curves.","contrary_outcome":"Torque remains strongly angle-dependent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0610","id":"S4-0610","volume":"900v4","title":"A suspended conductive vane should reveal gas damping independently of eddy damping through field reversal timing.","prediction":"A suspended conductive vane should reveal gas damping independently of eddy damping through field reversal timing.","test":"Measure decay with controlled pressure.","contrary":"Contributions remain confounded.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0610","hypothesis":"A suspended conductive vane should reveal gas damping independently of eddy damping through field reversal timing.","prediction":"A suspended conductive vane should reveal gas damping independently of eddy damping through field reversal timing.","test":"Measure decay with controlled pressure.","contrary_outcome":"Contributions remain confounded.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0611","id":"S4-0611","volume":"900v4","title":"A passive magnetic latch should reject brief field pulses through an inertial delay.","prediction":"A passive magnetic latch should reject brief field pulses through an inertial delay.","test":"Apply equal-peak pulses.","contrary":"Pulse duration does not affect switching.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0611","hypothesis":"A passive magnetic latch should reject brief field pulses through an inertial delay.","prediction":"A passive magnetic latch should reject brief field pulses through an inertial delay.","test":"Apply equal-peak pulses.","contrary_outcome":"Pulse duration does not affect switching.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0612","id":"S4-0612","volume":"900v4","title":"A compliant coil support should reduce vibration-induced inductance drift by maintaining mutual geometry.","prediction":"A compliant coil support should reduce vibration-induced inductance drift by maintaining mutual geometry.","test":"Measure inductance under shaking.","contrary":"Support deformation worsens drift.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0612","hypothesis":"A compliant coil support should reduce vibration-induced inductance drift by maintaining mutual geometry.","prediction":"A compliant coil support should reduce vibration-induced inductance drift by maintaining mutual geometry.","test":"Measure inductance under shaking.","contrary_outcome":"Support deformation worsens drift.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0613","id":"S4-0613","volume":"900v4","title":"A conductive mesh should detect a broken strand through rotation-dependent impedance anisotropy.","prediction":"A conductive mesh should detect a broken strand through rotation-dependent impedance anisotropy.","test":"Break known strands.","contrary":"Anisotropy is below baseline variation.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0613","hypothesis":"A conductive mesh should detect a broken strand through rotation-dependent impedance anisotropy.","prediction":"A conductive mesh should detect a broken strand through rotation-dependent impedance anisotropy.","test":"Break known strands.","contrary_outcome":"Anisotropy is below baseline variation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0613","hypothesis":"A conductive mesh should detect a broken strand through rotation-dependent impedance anisotropy.","prediction":"A conductive mesh should detect a broken strand through rotation-dependent impedance anisotropy.","test":"Break known strands.","contrary_outcome":"Anisotropy is below baseline variation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":66,"query":"A conductive mesh detect a broken strand through rotation-dependent impedance anisotropy. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Break known strands."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0614","id":"S4-0614","volume":"900v4","title":"A moving permanent magnet should estimate liquid flow through drag on an electrically isolated conductive channel.","prediction":"A moving permanent magnet should estimate liquid flow through drag on an electrically isolated conductive channel.","test":"Compare with flow reference.","contrary":"Wall effects dominate flow response.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0614","hypothesis":"A moving permanent magnet should estimate liquid flow through drag on an electrically isolated conductive channel.","prediction":"A moving permanent magnet should estimate liquid flow through drag on an electrically isolated conductive channel.","test":"Compare with flow reference.","contrary_outcome":"Wall effects dominate flow response.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0615","id":"S4-0615","volume":"900v4","title":"A flux-guided balance should compare two magnetic susceptibilities while rejecting uniform external fields.","prediction":"A flux-guided balance should compare two magnetic susceptibilities while rejecting uniform external fields.","test":"Test standards and applied fields.","contrary":"Common-mode rejection fails.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0615","hypothesis":"A flux-guided balance should compare two magnetic susceptibilities while rejecting uniform external fields.","prediction":"A flux-guided balance should compare two magnetic susceptibilities while rejecting uniform external fields.","test":"Test standards and applied fields.","contrary_outcome":"Common-mode rejection fails.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0616","id":"S4-0616","volume":"900v4","title":"A rotating slotted conductor should produce distinguishable drag signatures for surface and through-thickness cracks.","prediction":"A rotating slotted conductor should produce distinguishable drag signatures for surface and through-thickness cracks.","test":"Scan known defects.","contrary":"Signatures overlap.","layers":[1,2,3],"categories":[],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0616","hypothesis":"A rotating slotted conductor should produce distinguishable drag signatures for surface and through-thickness cracks.","prediction":"A rotating slotted conductor should produce distinguishable drag signatures for surface and through-thickness cracks.","test":"Scan known defects.","contrary_outcome":"Signatures overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0616","hypothesis":"A rotating slotted conductor should produce distinguishable drag signatures for surface and through-thickness cracks.","prediction":"A rotating slotted conductor should produce distinguishable drag signatures for surface and through-thickness cracks.","test":"Scan known defects.","contrary_outcome":"Signatures overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":6,"query":"A rotating slotted conductor produce distinguishable drag signatures for surface and through-thickness cracks. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Scan known defects."},"dossier":{"id":"S4-0616","title":"Mechanical gap modulation for conductivity/lift-off separation","why_selected":"A practical nuisance parameter can be deliberately modulated, allowing a quantitative identifiability test before claiming better measurements.","sources":[{"title":"A dual-stage dimensionless method for simultaneous estimation of electrical conductivity, lift-off, and thickness in Eddy Current Testing","url":"https://doi.org/10.1016/j.measurement.2026.120640","access":"Primary publisher search-accessible abstract read; direct page denied access","finding":"The authors report simultaneous conductivity/lift-off estimation using frequency-dependent measurements. This is close prior art and shows that the broad inverse problem is already studied; it does not validate mechanical gap modulation."},{"title":"Study of Lift-Off Invariance for Pulsed Eddy-Current Signals","url":"https://doi.org/10.1109/TMAG.2008.2006246","access":"Author-institution abstract read","finding":"The work studies lift-off invariance and its dependence on probe geometry and conductivity. It cautions that compensation features are not universal."}],"design":"Place an inductive probe on a calibrated small-amplitude translation stage above nonmagnetic conductive standards of independently measured conductivity and thickness. Record complex impedance and its synchronous change during gap modulation. Vary mean lift-off, conductivity, tilt, and temperature independently. Reserve new plates and gaps for held-out validation.","endpoints":"Primary: conductivity error under unknown lift-off using modulated versus unmodulated measurements. Secondary: estimated gap error, sensitivity singular values, and sensitivity to tilt. Predefine the acceptable uncertainty after instrument-noise calibration.","controls":"Fixed-gap measurement, direct optical gap reference, nonconductive target, known thickness changes, tilt perturbations, and cable-motion-only control. Mechanical modulation can itself change wiring impedance.","conditional_analysis":"Let measured complex impedance be Z(sigma,h). Small gap modulation h=h0+a*cos(wt) gives a first-harmonic approximately a*dZ/dh. The observable pair (Z,dZ/dh) can locally identify (sigma,h) only if its real-valued sensitivity matrix has rank two at the noise level. Full rank gives local linear inversion; it does not guarantee global uniqueness, numerical stability, or correctness of the electromagnetic model. No unconditional separation theorem follows.","analysis_plan":"Estimate sensitivities from independent standards, quantify conditioning, then evaluate held-out plates without fitting their true conductivity. Compare against a frequency-based baseline and publish all high-error cases. Reject the proposal if modulation adds wiring artifacts or fails to improve uncertainty.","limitations":"Unproved protocol; conductivity/lift-off inversion has substantial prior art. No measured accuracy or novelty certified.","rank":6,"hypothesis":"A rotating slotted conductor should produce distinguishable drag signatures for surface and through-thickness cracks.","status":"speculative; no physical data or proof"},"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0617","id":"S4-0617","volume":"900v4","title":"A compliant magnetic coupler should release at a repeatable torque despite moderate axial gap variation.","prediction":"A compliant magnetic coupler should release at a repeatable torque despite moderate axial gap variation.","test":"Measure thresholds.","contrary":"Gap sensitivity remains large.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0617","hypothesis":"A compliant magnetic coupler should release at a repeatable torque despite moderate axial gap variation.","prediction":"A compliant magnetic coupler should release at a repeatable torque despite moderate axial gap variation.","test":"Measure thresholds.","contrary_outcome":"Gap sensitivity remains large.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0618","id":"S4-0618","volume":"900v4","title":"A passive inductive liquid-level sensor should reject vessel tilt through differential circumferential windings.","prediction":"A passive inductive liquid-level sensor should reject vessel tilt through differential circumferential windings.","test":"Calibrate level and tilt.","contrary":"Tilt bias remains dominant.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0618","hypothesis":"A passive inductive liquid-level sensor should reject vessel tilt through differential circumferential windings.","prediction":"A passive inductive liquid-level sensor should reject vessel tilt through differential circumferential windings.","test":"Calibrate level and tilt.","contrary_outcome":"Tilt bias remains dominant.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0619","id":"S4-0619","volume":"900v4","title":"A suspended magnetic ring should reveal joint preload through a change in its stable angular positions.","prediction":"A suspended magnetic ring should reveal joint preload through a change in its stable angular positions.","test":"Vary measured preload.","contrary":"Positions depend only on mounting geometry.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0619","hypothesis":"A suspended magnetic ring should reveal joint preload through a change in its stable angular positions.","prediction":"A suspended magnetic ring should reveal joint preload through a change in its stable angular positions.","test":"Vary measured preload.","contrary_outcome":"Positions depend only on mounting geometry.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0620","id":"S4-0620","volume":"900v4","title":"A conducting spiral should convert a transient magnetic pulse into a measurable mechanical twist.","prediction":"A conducting spiral should convert a transient magnetic pulse into a measurable mechanical twist.","test":"Measure current and motion.","contrary":"Twist is below thermal motion or support vibration.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0620","hypothesis":"A conducting spiral should convert a transient magnetic pulse into a measurable mechanical twist.","prediction":"A conducting spiral should convert a transient magnetic pulse into a measurable mechanical twist.","test":"Measure current and motion.","contrary_outcome":"Twist is below thermal motion or support vibration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0621","id":"S4-0621","volume":"900v4","title":"A rotating magnetic shield should separate target remanence from applied-field response through harmonic symmetry.","prediction":"A rotating magnetic shield should separate target remanence from applied-field response through harmonic symmetry.","test":"Test known targets.","contrary":"Harmonics remain mixed.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0621","hypothesis":"A rotating magnetic shield should separate target remanence from applied-field response through harmonic symmetry.","prediction":"A rotating magnetic shield should separate target remanence from applied-field response through harmonic symmetry.","test":"Test known targets.","contrary_outcome":"Harmonics remain mixed.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0622","id":"S4-0622","volume":"900v4","title":"A compliant eddy-current brake should limit its own heating by increasing its gap as temperature rises.","prediction":"A compliant eddy-current brake should limit its own heating by increasing its gap as temperature rises.","test":"Measure temperature and braking torque.","contrary":"Feedback fails to prevent overheating.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0622","hypothesis":"A compliant eddy-current brake should limit its own heating by increasing its gap as temperature rises.","prediction":"A compliant eddy-current brake should limit its own heating by increasing its gap as temperature rises.","test":"Measure temperature and braking torque.","contrary_outcome":"Feedback fails to prevent overheating.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0623","id":"S4-0623","volume":"900v4","title":"A passive magnetic pointer should indicate the direction of a nearby current without substantial response to uniform field drift.","prediction":"A passive magnetic pointer should indicate the direction of a nearby current without substantial response to uniform field drift.","test":"Apply calibrated current and fields.","contrary":"External fields dominate orientation.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0623","hypothesis":"A passive magnetic pointer should indicate the direction of a nearby current without substantial response to uniform field drift.","prediction":"A passive magnetic pointer should indicate the direction of a nearby current without substantial response to uniform field drift.","test":"Apply calibrated current and fields.","contrary_outcome":"External fields dominate orientation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0624","id":"S4-0624","volume":"900v4","title":"A segmented flux return should reduce force spikes as a magnetic rotor crosses pole boundaries.","prediction":"A segmented flux return should reduce force spikes as a magnetic rotor crosses pole boundaries.","test":"Measure torque ripple.","contrary":"Segmentation increases ripple.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0624","hypothesis":"A segmented flux return should reduce force spikes as a magnetic rotor crosses pole boundaries.","prediction":"A segmented flux return should reduce force spikes as a magnetic rotor crosses pole boundaries.","test":"Measure torque ripple.","contrary_outcome":"Segmentation increases ripple.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0625","id":"S4-0625","volume":"900v4","title":"A conductive liquid-free contact should reveal oxidation through a rate-dependent mechanical damping change under magnetic excitation.","prediction":"A conductive liquid-free contact should reveal oxidation through a rate-dependent mechanical damping change under magnetic excitation.","test":"Age controlled contacts.","contrary":"Damping is not oxidation-specific.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0625","hypothesis":"A conductive liquid-free contact should reveal oxidation through a rate-dependent mechanical damping change under magnetic excitation.","prediction":"A conductive liquid-free contact should reveal oxidation through a rate-dependent mechanical damping change under magnetic excitation.","test":"Age controlled contacts.","contrary_outcome":"Damping is not oxidation-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0625","hypothesis":"A conductive liquid-free contact should reveal oxidation through a rate-dependent mechanical damping change under magnetic excitation.","prediction":"A conductive liquid-free contact should reveal oxidation through a rate-dependent mechanical damping change under magnetic excitation.","test":"Age controlled contacts.","contrary_outcome":"Damping is not oxidation-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":67,"query":"A conductive liquid-free contact reveal oxidation through a rate-dependent mechanical damping change under magnetic excitation. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Age controlled contacts."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0626","id":"S4-0626","volume":"900v4","title":"A floating magnet should detect container-wall thinning through equilibrium-height shifts after temperature correction.","prediction":"A floating magnet should detect container-wall thinning through equilibrium-height shifts after temperature correction.","test":"Machine standards.","contrary":"Height shifts are dominated by magnetic drift.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0626","hypothesis":"A floating magnet should detect container-wall thinning through equilibrium-height shifts after temperature correction.","prediction":"A floating magnet should detect container-wall thinning through equilibrium-height shifts after temperature correction.","test":"Machine standards.","contrary_outcome":"Height shifts are dominated by magnetic drift.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0627","id":"S4-0627","volume":"900v4","title":"A rotating coil should infer anisotropic conductivity from phase differences between orthogonal measurements.","prediction":"A rotating coil should infer anisotropic conductivity from phase differences between orthogonal measurements.","test":"Test known plates.","contrary":"Geometry errors mimic anisotropy.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0627","hypothesis":"A rotating coil should infer anisotropic conductivity from phase differences between orthogonal measurements.","prediction":"A rotating coil should infer anisotropic conductivity from phase differences between orthogonal measurements.","test":"Test known plates.","contrary_outcome":"Geometry errors mimic anisotropy.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0628","id":"S4-0628","volume":"900v4","title":"A compliant magnetic detent should provide distinct hold and reset torques without frictional contact.","prediction":"A compliant magnetic detent should provide distinct hold and reset torques without frictional contact.","test":"Measure torque cycles.","contrary":"Hysteresis requires contact friction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0628","hypothesis":"A compliant magnetic detent should provide distinct hold and reset torques without frictional contact.","prediction":"A compliant magnetic detent should provide distinct hold and reset torques without frictional contact.","test":"Measure torque cycles.","contrary_outcome":"Hysteresis requires contact friction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0629","id":"S4-0629","volume":"900v4","title":"A passive inductive bridge should reveal an off-center conductive inclusion through an antisymmetric signal.","prediction":"A passive inductive bridge should reveal an off-center conductive inclusion through an antisymmetric signal.","test":"Move calibrated inclusions.","contrary":"Signal cannot resolve position.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0629","hypothesis":"A passive inductive bridge should reveal an off-center conductive inclusion through an antisymmetric signal.","prediction":"A passive inductive bridge should reveal an off-center conductive inclusion through an antisymmetric signal.","test":"Move calibrated inclusions.","contrary_outcome":"Signal cannot resolve position.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0630","id":"S4-0630","volume":"900v4","title":"A suspended conductor should measure magnetic-field gradients through differential force while rejecting uniform field strength.","prediction":"A suspended conductor should measure magnetic-field gradients through differential force while rejecting uniform field strength.","test":"Apply known fields.","contrary":"Uniform-field leakage dominates.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0630","hypothesis":"A suspended conductor should measure magnetic-field gradients through differential force while rejecting uniform field strength.","prediction":"A suspended conductor should measure magnetic-field gradients through differential force while rejecting uniform field strength.","test":"Apply known fields.","contrary_outcome":"Uniform-field leakage dominates.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0631","id":"S4-0631","volume":"900v4","title":"A rotating magnetic target should reveal an eccentric conductive inclusion through a split modulation envelope.","prediction":"A rotating magnetic target should reveal an eccentric conductive inclusion through a split modulation envelope.","test":"Test known embedded inclusions.","contrary":"The envelope cannot separate eccentricity from target tilt.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0631","hypothesis":"A rotating magnetic target should reveal an eccentric conductive inclusion through a split modulation envelope.","prediction":"A rotating magnetic target should reveal an eccentric conductive inclusion through a split modulation envelope.","test":"Test known embedded inclusions.","contrary_outcome":"The envelope cannot separate eccentricity from target tilt.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0632","id":"S4-0632","volume":"900v4","title":"A compliant flux shutter should switch a magnetic path through buckling rather than sliding.","prediction":"A compliant flux shutter should switch a magnetic path through buckling rather than sliding.","test":"Measure switching work.","contrary":"Buckling consumes equal or greater work.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0632","hypothesis":"A compliant flux shutter should switch a magnetic path through buckling rather than sliding.","prediction":"A compliant flux shutter should switch a magnetic path through buckling rather than sliding.","test":"Measure switching work.","contrary_outcome":"Buckling consumes equal or greater work.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0633","id":"S4-0633","volume":"900v4","title":"A conductive ring array should localize a moving crack tip from sequential damping changes.","prediction":"A conductive ring array should localize a moving crack tip from sequential damping changes.","test":"Propagate controlled notches.","contrary":"Changes are spatially nonlocal.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0633","hypothesis":"A conductive ring array should localize a moving crack tip from sequential damping changes.","prediction":"A conductive ring array should localize a moving crack tip from sequential damping changes.","test":"Propagate controlled notches.","contrary_outcome":"Changes are spatially nonlocal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0634","id":"S4-0634","volume":"900v4","title":"A passive magnetic suspension should reduce contact wear in a load-carrying pivot while preserving mechanical stability.","prediction":"A passive magnetic suspension should reduce contact wear in a load-carrying pivot while preserving mechanical stability.","test":"Measure contact force and motion.","contrary":"Instability offsets wear reduction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0634","hypothesis":"A passive magnetic suspension should reduce contact wear in a load-carrying pivot while preserving mechanical stability.","prediction":"A passive magnetic suspension should reduce contact wear in a load-carrying pivot while preserving mechanical stability.","test":"Measure contact force and motion.","contrary_outcome":"Instability offsets wear reduction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0635","id":"S4-0635","volume":"900v4","title":"A rotating magnet should reveal hidden conductive layers through frequency-dependent drag depth.","prediction":"A rotating magnet should reveal hidden conductive layers through frequency-dependent drag depth.","test":"Test layered standards.","contrary":"Depth effects cannot be separated from conductivity.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0635","hypothesis":"A rotating magnet should reveal hidden conductive layers through frequency-dependent drag depth.","prediction":"A rotating magnet should reveal hidden conductive layers through frequency-dependent drag depth.","test":"Test layered standards.","contrary_outcome":"Depth effects cannot be separated from conductivity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0636","id":"S4-0636","volume":"900v4","title":"A flexible coil should estimate bending direction from differential inductance in opposing loops.","prediction":"A flexible coil should estimate bending direction from differential inductance in opposing loops.","test":"Calibrate curvature.","contrary":"Temperature and stretch dominate the response.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0636","hypothesis":"A flexible coil should estimate bending direction from differential inductance in opposing loops.","prediction":"A flexible coil should estimate bending direction from differential inductance in opposing loops.","test":"Calibrate curvature.","contrary_outcome":"Temperature and stretch dominate the response.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0637","id":"S4-0637","volume":"900v4","title":"A magnetic-free reference spring should cancel thermal drift in a magnetic force gauge through paired displacement.","prediction":"A magnetic-free reference spring should cancel thermal drift in a magnetic force gauge through paired displacement.","test":"Measure calibration over temperature.","contrary":"Compensation does not improve stability.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0637","hypothesis":"A magnetic-free reference spring should cancel thermal drift in a magnetic force gauge through paired displacement.","prediction":"A magnetic-free reference spring should cancel thermal drift in a magnetic force gauge through paired displacement.","test":"Measure calibration over temperature.","contrary_outcome":"Compensation does not improve stability.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0638","id":"S4-0638","volume":"900v4","title":"A suspended magnetic blade should detect particle accumulation through its angular resonance rather than static deflection.","prediction":"A suspended magnetic blade should detect particle accumulation through its angular resonance rather than static deflection.","test":"Add calibrated ferrous particles.","contrary":"Resonance changes are not monotonic.","layers":[1,2],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0638","hypothesis":"A suspended magnetic blade should detect particle accumulation through its angular resonance rather than static deflection.","prediction":"A suspended magnetic blade should detect particle accumulation through its angular resonance rather than static deflection.","test":"Add calibrated ferrous particles.","contrary_outcome":"Resonance changes are not monotonic.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0638","hypothesis":"A suspended magnetic blade should detect particle accumulation through its angular resonance rather than static deflection.","prediction":"A suspended magnetic blade should detect particle accumulation through its angular resonance rather than static deflection.","test":"Add calibrated ferrous particles.","contrary_outcome":"Resonance changes are not monotonic.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":68,"query":"A suspended magnetic blade detect particle accumulation through its angular resonance rather than static deflection. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Add calibrated ferrous particles."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0639","id":"S4-0639","volume":"900v4","title":"A conducting plate should generate a measurable drag anisotropy after plastic strain changes its geometry without cracking.","prediction":"A conducting plate should generate a measurable drag anisotropy after plastic strain changes its geometry without cracking.","test":"Compare strain states.","contrary":"Signal is below geometric uncertainty.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0639","hypothesis":"A conducting plate should generate a measurable drag anisotropy after plastic strain changes its geometry without cracking.","prediction":"A conducting plate should generate a measurable drag anisotropy after plastic strain changes its geometry without cracking.","test":"Compare strain states.","contrary_outcome":"Signal is below geometric uncertainty.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0640","id":"S4-0640","volume":"900v4","title":"A rotating flux gate should distinguish a stationary target from moving background metal by modulation phase.","prediction":"A rotating flux gate should distinguish a stationary target from moving background metal by modulation phase.","test":"Move background objects.","contrary":"Background aliases into the target channel.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0640","hypothesis":"A rotating flux gate should distinguish a stationary target from moving background metal by modulation phase.","prediction":"A rotating flux gate should distinguish a stationary target from moving background metal by modulation phase.","test":"Move background objects.","contrary_outcome":"Background aliases into the target channel.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0641","id":"S4-0641","volume":"900v4","title":"A compliant magnetic clamp should equalize force across irregular targets through independent pole motion.","prediction":"A compliant magnetic clamp should equalize force across irregular targets through independent pole motion.","test":"Map forces.","contrary":"Poles compete and concentrate load.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0641","hypothesis":"A compliant magnetic clamp should equalize force across irregular targets through independent pole motion.","prediction":"A compliant magnetic clamp should equalize force across irregular targets through independent pole motion.","test":"Map forces.","contrary_outcome":"Poles compete and concentrate load.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0642","id":"S4-0642","volume":"900v4","title":"A passive eddy-current sensor should detect a liquid-metal-free conductive film breaking into isolated islands.","prediction":"A passive eddy-current sensor should detect a liquid-metal-free conductive film breaking into isolated islands.","test":"Break controlled metal films.","contrary":"Signal cannot distinguish breakup from thinning.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0642","hypothesis":"A passive eddy-current sensor should detect a liquid-metal-free conductive film breaking into isolated islands.","prediction":"A passive eddy-current sensor should detect a liquid-metal-free conductive film breaking into isolated islands.","test":"Break controlled metal films.","contrary_outcome":"Signal cannot distinguish breakup from thinning.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0643","id":"S4-0643","volume":"900v4","title":"A floating magnetic rotor should estimate shear stress from angular lag while compensating bulk drag with a reference rotor.","prediction":"A floating magnetic rotor should estimate shear stress from angular lag while compensating bulk drag with a reference rotor.","test":"Test known stresses.","contrary":"Reference subtraction amplifies noise.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0643","hypothesis":"A floating magnetic rotor should estimate shear stress from angular lag while compensating bulk drag with a reference rotor.","prediction":"A floating magnetic rotor should estimate shear stress from angular lag while compensating bulk drag with a reference rotor.","test":"Test known stresses.","contrary_outcome":"Reference subtraction amplifies noise.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0644","id":"S4-0644","volume":"900v4","title":"A rotating conductive cage should suppress external magnetic transients more than slowly varying fields.","prediction":"A rotating conductive cage should suppress external magnetic transients more than slowly varying fields.","test":"Measure transfer function.","contrary":"Shielding lacks useful timescale separation.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0644","hypothesis":"A rotating conductive cage should suppress external magnetic transients more than slowly varying fields.","prediction":"A rotating conductive cage should suppress external magnetic transients more than slowly varying fields.","test":"Measure transfer function.","contrary_outcome":"Shielding lacks useful timescale separation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0645","id":"S4-0645","volume":"900v4","title":"A compliant inductive target should indicate pressure through a controlled change in loop area.","prediction":"A compliant inductive target should indicate pressure through a controlled change in loop area.","test":"Calibrate pressure and geometry.","contrary":"Material hysteresis prevents repeatable readout.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0645","hypothesis":"A compliant inductive target should indicate pressure through a controlled change in loop area.","prediction":"A compliant inductive target should indicate pressure through a controlled change in loop area.","test":"Calibrate pressure and geometry.","contrary_outcome":"Material hysteresis prevents repeatable readout.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0646","id":"S4-0646","volume":"900v4","title":"A passive magnetic threshold device should preserve a visible state after a strong field excursion.","prediction":"A passive magnetic threshold device should preserve a visible state after a strong field excursion.","test":"Apply known fields.","contrary":"State relaxes immediately.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0646","hypothesis":"A passive magnetic threshold device should preserve a visible state after a strong field excursion.","prediction":"A passive magnetic threshold device should preserve a visible state after a strong field excursion.","test":"Apply known fields.","contrary_outcome":"State relaxes immediately.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0647","id":"S4-0647","volume":"900v4","title":"A suspended loop should distinguish magnetic torque from thermal expansion through opposite response under current reversal.","prediction":"A suspended loop should distinguish magnetic torque from thermal expansion through opposite response under current reversal.","test":"Measure reversed-current traces.","contrary":"Thermal transients mimic torque symmetry.","layers":[1,2],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0647","hypothesis":"A suspended loop should distinguish magnetic torque from thermal expansion through opposite response under current reversal.","prediction":"A suspended loop should distinguish magnetic torque from thermal expansion through opposite response under current reversal.","test":"Measure reversed-current traces.","contrary_outcome":"Thermal transients mimic torque symmetry.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0647","hypothesis":"A suspended loop should distinguish magnetic torque from thermal expansion through opposite response under current reversal.","prediction":"A suspended loop should distinguish magnetic torque from thermal expansion through opposite response under current reversal.","test":"Measure reversed-current traces.","contrary_outcome":"Thermal transients mimic torque symmetry.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":69,"query":"A suspended loop distinguish magnetic torque from thermal expansion through opposite response under current reversal. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure reversed-current traces."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0648","id":"S4-0648","volume":"900v4","title":"A rotating conductor should reveal local delamination in a metal-backed laminate through phase-shifted heating.","prediction":"A rotating conductor should reveal local delamination in a metal-backed laminate through phase-shifted heating.","test":"Map thermal response.","contrary":"Heat spreading prevents localization.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0648","hypothesis":"A rotating conductor should reveal local delamination in a metal-backed laminate through phase-shifted heating.","prediction":"A rotating conductor should reveal local delamination in a metal-backed laminate through phase-shifted heating.","test":"Map thermal response.","contrary_outcome":"Heat spreading prevents localization.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0649","id":"S4-0649","volume":"900v4","title":"A flexible flux guide should reduce sensor cross-talk by redirecting leakage fields during overload.","prediction":"A flexible flux guide should reduce sensor cross-talk by redirecting leakage fields during overload.","test":"Measure neighboring channels.","contrary":"Redirection increases cross-talk.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0649","hypothesis":"A flexible flux guide should reduce sensor cross-talk by redirecting leakage fields during overload.","prediction":"A flexible flux guide should reduce sensor cross-talk by redirecting leakage fields during overload.","test":"Measure neighboring channels.","contrary_outcome":"Redirection increases cross-talk.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0650","id":"S4-0650","volume":"900v4","title":"A magnetic coupler should tolerate angular misalignment through a floating intermediate rotor.","prediction":"A magnetic coupler should tolerate angular misalignment through a floating intermediate rotor.","test":"Measure torque and axial force.","contrary":"Intermediate motion causes unstable locking.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0650","hypothesis":"A magnetic coupler should tolerate angular misalignment through a floating intermediate rotor.","prediction":"A magnetic coupler should tolerate angular misalignment through a floating intermediate rotor.","test":"Measure torque and axial force.","contrary_outcome":"Intermediate motion causes unstable locking.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0651","id":"S4-0651","volume":"900v4","title":"A passive inductive displacement sensor should reject target-temperature changes through two excitation frequencies.","prediction":"A passive inductive displacement sensor should reject target-temperature changes through two excitation frequencies.","test":"Calibrate distance and temperature.","contrary":"Frequency responses remain degenerate.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0651","hypothesis":"A passive inductive displacement sensor should reject target-temperature changes through two excitation frequencies.","prediction":"A passive inductive displacement sensor should reject target-temperature changes through two excitation frequencies.","test":"Calibrate distance and temperature.","contrary_outcome":"Frequency responses remain degenerate.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0652","id":"S4-0652","volume":"900v4","title":"A suspended magnet should estimate thin-film elasticity from the recoil of an attached nonconductive vane.","prediction":"A suspended magnet should estimate thin-film elasticity from the recoil of an attached nonconductive vane.","test":"Measure calibrated films.","contrary":"Magnetic drag dominates recoil.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0652","hypothesis":"A suspended magnet should estimate thin-film elasticity from the recoil of an attached nonconductive vane.","prediction":"A suspended magnet should estimate thin-film elasticity from the recoil of an attached nonconductive vane.","test":"Measure calibrated films.","contrary_outcome":"Magnetic drag dominates recoil.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0653","id":"S4-0653","volume":"900v4","title":"A rotating patterned conductor should encode absolute angle in a unique inductive amplitude ratio.","prediction":"A rotating patterned conductor should encode absolute angle in a unique inductive amplitude ratio.","test":"Measure full rotations.","contrary":"Ratios repeat ambiguously.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0653","hypothesis":"A rotating patterned conductor should encode absolute angle in a unique inductive amplitude ratio.","prediction":"A rotating patterned conductor should encode absolute angle in a unique inductive amplitude ratio.","test":"Measure full rotations.","contrary_outcome":"Ratios repeat ambiguously.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0654","id":"S4-0654","volume":"900v4","title":"A compliant magnetic bearing should detect overload through a reversible shift to a second stable gap.","prediction":"A compliant magnetic bearing should detect overload through a reversible shift to a second stable gap.","test":"Measure gap versus load.","contrary":"Transition is irreversible or unstable.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0654","hypothesis":"A compliant magnetic bearing should detect overload through a reversible shift to a second stable gap.","prediction":"A compliant magnetic bearing should detect overload through a reversible shift to a second stable gap.","test":"Measure gap versus load.","contrary_outcome":"Transition is irreversible or unstable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0655","id":"S4-0655","volume":"900v4","title":"A conducting mesh should damp vibration without forming large circulating currents that cause excessive heating.","prediction":"A conducting mesh should damp vibration without forming large circulating currents that cause excessive heating.","test":"Measure loss and temperature.","contrary":"Useful damping requires equal heating.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0655","hypothesis":"A conducting mesh should damp vibration without forming large circulating currents that cause excessive heating.","prediction":"A conducting mesh should damp vibration without forming large circulating currents that cause excessive heating.","test":"Measure loss and temperature.","contrary_outcome":"Useful damping requires equal heating.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0656","id":"S4-0656","volume":"900v4","title":"A passive flux comparator should identify unequal magnet strengths through a centered armature displacement.","prediction":"A passive flux comparator should identify unequal magnet strengths through a centered armature displacement.","test":"Test known pairs.","contrary":"Geometry mismatch dominates the comparison.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0656","hypothesis":"A passive flux comparator should identify unequal magnet strengths through a centered armature displacement.","prediction":"A passive flux comparator should identify unequal magnet strengths through a centered armature displacement.","test":"Test known pairs.","contrary_outcome":"Geometry mismatch dominates the comparison.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0657","id":"S4-0657","volume":"900v4","title":"A rotating inductive probe should distinguish a shallow dent from a buried void through angular phase dependence.","prediction":"A rotating inductive probe should distinguish a shallow dent from a buried void through angular phase dependence.","test":"Scan controlled standards.","contrary":"Signatures remain inseparable.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0657","hypothesis":"A rotating inductive probe should distinguish a shallow dent from a buried void through angular phase dependence.","prediction":"A rotating inductive probe should distinguish a shallow dent from a buried void through angular phase dependence.","test":"Scan controlled standards.","contrary_outcome":"Signatures remain inseparable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0658","id":"S4-0658","volume":"900v4","title":"A flexible magnetic shutter should reset using stored elastic energy after field removal.","prediction":"A flexible magnetic shutter should reset using stored elastic energy after field removal.","test":"Cycle switching.","contrary":"Remanence prevents reliable reset.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0658","hypothesis":"A flexible magnetic shutter should reset using stored elastic energy after field removal.","prediction":"A flexible magnetic shutter should reset using stored elastic energy after field removal.","test":"Cycle switching.","contrary_outcome":"Remanence prevents reliable reset.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0658","hypothesis":"A flexible magnetic shutter should reset using stored elastic energy after field removal.","prediction":"A flexible magnetic shutter should reset using stored elastic energy after field removal.","test":"Cycle switching.","contrary_outcome":"Remanence prevents reliable reset.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":70,"query":"A flexible magnetic shutter reset using stored elastic energy after field removal. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Cycle switching."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0659","id":"S4-0659","volume":"900v4","title":"A suspended conductive ring should detect joint slip through abrupt changes in magnetic damping.","prediction":"A suspended conductive ring should detect joint slip through abrupt changes in magnetic damping.","test":"Apply controlled slip.","contrary":"Damping changes are not slip-specific.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0659","hypothesis":"A suspended conductive ring should detect joint slip through abrupt changes in magnetic damping.","prediction":"A suspended conductive ring should detect joint slip through abrupt changes in magnetic damping.","test":"Apply controlled slip.","contrary_outcome":"Damping changes are not slip-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0660","id":"S4-0660","volume":"900v4","title":"A magnetic force gradient should sort equal-size inert particles by susceptibility without bulk contact.","prediction":"A magnetic force gradient should sort equal-size inert particles by susceptibility without bulk contact.","test":"Track calibrated particles.","contrary":"Hydrodynamic or gravitational effects dominate.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0660","hypothesis":"A magnetic force gradient should sort equal-size inert particles by susceptibility without bulk contact.","prediction":"A magnetic force gradient should sort equal-size inert particles by susceptibility without bulk contact.","test":"Track calibrated particles.","contrary_outcome":"Hydrodynamic or gravitational effects dominate.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0661","id":"S4-0661","volume":"900v4","title":"A rotating conductor should reduce torque ripple when its slots follow a chirped rather than periodic spacing.","prediction":"A rotating conductor should reduce torque ripple when its slots follow a chirped rather than periodic spacing.","test":"Measure spectra.","contrary":"Chirping merely spreads equal peak noise.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0661","hypothesis":"A rotating conductor should reduce torque ripple when its slots follow a chirped rather than periodic spacing.","prediction":"A rotating conductor should reduce torque ripple when its slots follow a chirped rather than periodic spacing.","test":"Measure spectra.","contrary_outcome":"Chirping merely spreads equal peak noise.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0662","id":"S4-0662","volume":"900v4","title":"A compliant flux shunt should maintain a fixed sensor field while an external magnet approaches.","prediction":"A compliant flux shunt should maintain a fixed sensor field while an external magnet approaches.","test":"Measure field and shunt motion.","contrary":"Field continues increasing strongly.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0662","hypothesis":"A compliant flux shunt should maintain a fixed sensor field while an external magnet approaches.","prediction":"A compliant flux shunt should maintain a fixed sensor field while an external magnet approaches.","test":"Measure field and shunt motion.","contrary_outcome":"Field continues increasing strongly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0663","id":"S4-0663","volume":"900v4","title":"A passive inductive reference should expose cable-motion artifacts in a remote sensor.","prediction":"A passive inductive reference should expose cable-motion artifacts in a remote sensor.","test":"Move cables independently.","contrary":"Reference does not predict artifacts.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0663","hypothesis":"A passive inductive reference should expose cable-motion artifacts in a remote sensor.","prediction":"A passive inductive reference should expose cable-motion artifacts in a remote sensor.","test":"Move cables independently.","contrary_outcome":"Reference does not predict artifacts.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0664","id":"S4-0664","volume":"900v4","title":"A suspended magnetic pointer should estimate field curvature from its amplitude-dependent period.","prediction":"A suspended magnetic pointer should estimate field curvature from its amplitude-dependent period.","test":"Apply known nonuniform fields.","contrary":"Period reflects field magnitude alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0664","hypothesis":"A suspended magnetic pointer should estimate field curvature from its amplitude-dependent period.","prediction":"A suspended magnetic pointer should estimate field curvature from its amplitude-dependent period.","test":"Apply known nonuniform fields.","contrary_outcome":"Period reflects field magnitude alone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0665","id":"S4-0665","volume":"900v4","title":"A rotating eddy brake should reveal lubricant contamination indirectly through changes in bearing-loss symmetry.","prediction":"A rotating eddy brake should reveal lubricant contamination indirectly through changes in bearing-loss symmetry.","test":"Introduce controlled contamination.","contrary":"Magnetic loss masks the bearing signal.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0665","hypothesis":"A rotating eddy brake should reveal lubricant contamination indirectly through changes in bearing-loss symmetry.","prediction":"A rotating eddy brake should reveal lubricant contamination indirectly through changes in bearing-loss symmetry.","test":"Introduce controlled contamination.","contrary_outcome":"Magnetic loss masks the bearing signal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0666","id":"S4-0666","volume":"900v4","title":"A flexible coil pair should distinguish twist from uniform stretch through opposing mutual-inductance shifts.","prediction":"A flexible coil pair should distinguish twist from uniform stretch through opposing mutual-inductance shifts.","test":"Calibrate deformations.","contrary":"Signals remain coupled.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0666","hypothesis":"A flexible coil pair should distinguish twist from uniform stretch through opposing mutual-inductance shifts.","prediction":"A flexible coil pair should distinguish twist from uniform stretch through opposing mutual-inductance shifts.","test":"Calibrate deformations.","contrary_outcome":"Signals remain coupled.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0667","id":"S4-0667","volume":"900v4","title":"A magnetic latch should resist accidental opening during transverse vibration through a geometric flux trap.","prediction":"A magnetic latch should resist accidental opening during transverse vibration through a geometric flux trap.","test":"Measure release under shaking.","contrary":"Vibration readily opens the trap.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0667","hypothesis":"A magnetic latch should resist accidental opening during transverse vibration through a geometric flux trap.","prediction":"A magnetic latch should resist accidental opening during transverse vibration through a geometric flux trap.","test":"Measure release under shaking.","contrary_outcome":"Vibration readily opens the trap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0668","id":"S4-0668","volume":"900v4","title":"A conductive shell should detect local wall contact through a sudden change in ring-down damping.","prediction":"A conductive shell should detect local wall contact through a sudden change in ring-down damping.","test":"Apply known contacts.","contrary":"Damping is dominated by supports.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0668","hypothesis":"A conductive shell should detect local wall contact through a sudden change in ring-down damping.","prediction":"A conductive shell should detect local wall contact through a sudden change in ring-down damping.","test":"Apply known contacts.","contrary_outcome":"Damping is dominated by supports.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0669","id":"S4-0669","volume":"900v4","title":"A rotating magnetic gradiometer should estimate the depth of a buried ferrous particle from harmonic decay with sensor height.","prediction":"A rotating magnetic gradiometer should estimate the depth of a buried ferrous particle from harmonic decay with sensor height.","test":"Test calibrated depths.","contrary":"Depth and particle moment remain inseparable.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0669","hypothesis":"A rotating magnetic gradiometer should estimate the depth of a buried ferrous particle from harmonic decay with sensor height.","prediction":"A rotating magnetic gradiometer should estimate the depth of a buried ferrous particle from harmonic decay with sensor height.","test":"Test calibrated depths.","contrary_outcome":"Depth and particle moment remain inseparable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0670","id":"S4-0670","volume":"900v4","title":"A compliant magnetic drive should limit transmitted shock without losing slow torque transfer.","prediction":"A compliant magnetic drive should limit transmitted shock without losing slow torque transfer.","test":"Measure fast and slow inputs.","contrary":"Isolation removes useful torque equally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0670","hypothesis":"A compliant magnetic drive should limit transmitted shock without losing slow torque transfer.","prediction":"A compliant magnetic drive should limit transmitted shock without losing slow torque transfer.","test":"Measure fast and slow inputs.","contrary_outcome":"Isolation removes useful torque equally.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0671","id":"S4-0671","volume":"900v4","title":"A passive inductive pressure gauge should retain zero after overload through a kinematic travel limit.","prediction":"A passive inductive pressure gauge should retain zero after overload through a kinematic travel limit.","test":"Measure calibration before and after overload.","contrary":"Zero shifts permanently.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0671","hypothesis":"A passive inductive pressure gauge should retain zero after overload through a kinematic travel limit.","prediction":"A passive inductive pressure gauge should retain zero after overload through a kinematic travel limit.","test":"Measure calibration before and after overload.","contrary_outcome":"Zero shifts permanently.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0672","id":"S4-0672","volume":"900v4","title":"A suspended conductor should reveal a nearby plate's anisotropic grain structure through orientation-dependent damping.","prediction":"A suspended conductor should reveal a nearby plate's anisotropic grain structure through orientation-dependent damping.","test":"Test characterized metal sheets.","contrary":"Geometry dominates the effect.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0672","hypothesis":"A suspended conductor should reveal a nearby plate's anisotropic grain structure through orientation-dependent damping.","prediction":"A suspended conductor should reveal a nearby plate's anisotropic grain structure through orientation-dependent damping.","test":"Test characterized metal sheets.","contrary_outcome":"Geometry dominates the effect.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0673","id":"S4-0673","volume":"900v4","title":"A rotating flux pattern should expose target motion below one pole pitch through phase interpolation.","prediction":"A rotating flux pattern should expose target motion below one pole pitch through phase interpolation.","test":"Compare with calibrated stage.","contrary":"Interpolation is biased by amplitude variation.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0673","hypothesis":"A rotating flux pattern should expose target motion below one pole pitch through phase interpolation.","prediction":"A rotating flux pattern should expose target motion below one pole pitch through phase interpolation.","test":"Compare with calibrated stage.","contrary_outcome":"Interpolation is biased by amplitude variation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0674","id":"S4-0674","volume":"900v4","title":"A flexible magnetic coupler should self-align before carrying substantial torque.","prediction":"A flexible magnetic coupler should self-align before carrying substantial torque.","test":"Measure alignment and torque timing.","contrary":"Torque rises before alignment.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0674","hypothesis":"A flexible magnetic coupler should self-align before carrying substantial torque.","prediction":"A flexible magnetic coupler should self-align before carrying substantial torque.","test":"Measure alignment and torque timing.","contrary_outcome":"Torque rises before alignment.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0674","hypothesis":"A flexible magnetic coupler should self-align before carrying substantial torque.","prediction":"A flexible magnetic coupler should self-align before carrying substantial torque.","test":"Measure alignment and torque timing.","contrary_outcome":"Torque rises before alignment.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":71,"query":"A flexible magnetic coupler self-align before carrying substantial torque. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure alignment and torque timing."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0675","id":"S4-0675","volume":"900v4","title":"A passive eddy-current damper should preserve its response after one conductor segment cracks through redundant loops.","prediction":"A passive eddy-current damper should preserve its response after one conductor segment cracks through redundant loops.","test":"Cut known segments.","contrary":"Damping collapses disproportionately.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0675","hypothesis":"A passive eddy-current damper should preserve its response after one conductor segment cracks through redundant loops.","prediction":"A passive eddy-current damper should preserve its response after one conductor segment cracks through redundant loops.","test":"Cut known segments.","contrary_outcome":"Damping collapses disproportionately.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0676","id":"S4-0676","volume":"900v4","title":"A magnetic balance should distinguish target mass change from susceptibility change using gravity reversal and field reversal.","prediction":"A magnetic balance should distinguish target mass change from susceptibility change using gravity reversal and field reversal.","test":"Apply calibrated standards.","contrary":"Contributions remain inseparable.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0676","hypothesis":"A magnetic balance should distinguish target mass change from susceptibility change using gravity reversal and field reversal.","prediction":"A magnetic balance should distinguish target mass change from susceptibility change using gravity reversal and field reversal.","test":"Apply calibrated standards.","contrary_outcome":"Contributions remain inseparable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0677","id":"S4-0677","volume":"900v4","title":"A rotating coil should measure conducting-film continuity without contacting its surface.","prediction":"A rotating coil should measure conducting-film continuity without contacting its surface.","test":"Break controlled paths.","contrary":"Signal remains insensitive to path connectivity.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0677","hypothesis":"A rotating coil should measure conducting-film continuity without contacting its surface.","prediction":"A rotating coil should measure conducting-film continuity without contacting its surface.","test":"Break controlled paths.","contrary_outcome":"Signal remains insensitive to path connectivity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0678","id":"S4-0678","volume":"900v4","title":"A compliant flux concentrator should amplify small target motion while limiting large-displacement sensitivity.","prediction":"A compliant flux concentrator should amplify small target motion while limiting large-displacement sensitivity.","test":"Measure field-displacement curve.","contrary":"Amplification persists into saturation unpredictably.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0678","hypothesis":"A compliant flux concentrator should amplify small target motion while limiting large-displacement sensitivity.","prediction":"A compliant flux concentrator should amplify small target motion while limiting large-displacement sensitivity.","test":"Measure field-displacement curve.","contrary_outcome":"Amplification persists into saturation unpredictably.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0679","id":"S4-0679","volume":"900v4","title":"A suspended magnet should detect capillary attachment to a surface through a change in angular relaxation.","prediction":"A suspended magnet should detect capillary attachment to a surface through a change in angular relaxation.","test":"Apply controlled liquid bridges.","contrary":"Dry friction creates identical signatures.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0679","hypothesis":"A suspended magnet should detect capillary attachment to a surface through a change in angular relaxation.","prediction":"A suspended magnet should detect capillary attachment to a surface through a change in angular relaxation.","test":"Apply controlled liquid bridges.","contrary_outcome":"Dry friction creates identical signatures.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0680","id":"S4-0680","volume":"900v4","title":"A conductive rotor should reduce startup heating through a speed-dependent widening magnetic gap.","prediction":"A conductive rotor should reduce startup heating through a speed-dependent widening magnetic gap.","test":"Measure thermal transients.","contrary":"Gap change occurs too late.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0680","hypothesis":"A conductive rotor should reduce startup heating through a speed-dependent widening magnetic gap.","prediction":"A conductive rotor should reduce startup heating through a speed-dependent widening magnetic gap.","test":"Measure thermal transients.","contrary_outcome":"Gap change occurs too late.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0681","id":"S4-0681","volume":"900v4","title":"A passive magnetic indicator should encode peak torque in a retained armature position.","prediction":"A passive magnetic indicator should encode peak torque in a retained armature position.","test":"Apply known torque histories.","contrary":"Position depends mostly on duration.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0681","hypothesis":"A passive magnetic indicator should encode peak torque in a retained armature position.","prediction":"A passive magnetic indicator should encode peak torque in a retained armature position.","test":"Apply known torque histories.","contrary_outcome":"Position depends mostly on duration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0682","id":"S4-0682","volume":"900v4","title":"A rotating inductive sensor should reject uniform lift-off by comparing opposite azimuthal sectors.","prediction":"A rotating inductive sensor should reject uniform lift-off by comparing opposite azimuthal sectors.","test":"Vary gap and defect position.","contrary":"Lift-off leakage dominates.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0682","hypothesis":"A rotating inductive sensor should reject uniform lift-off by comparing opposite azimuthal sectors.","prediction":"A rotating inductive sensor should reject uniform lift-off by comparing opposite azimuthal sectors.","test":"Vary gap and defect position.","contrary_outcome":"Lift-off leakage dominates.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0683","id":"S4-0683","volume":"900v4","title":"A flexible coil support should survive repeated folding without a large calibration shift through neutral-axis routing.","prediction":"A flexible coil support should survive repeated folding without a large calibration shift through neutral-axis routing.","test":"Measure resistance and inductance.","contrary":"Calibration drifts despite routing.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0683","hypothesis":"A flexible coil support should survive repeated folding without a large calibration shift through neutral-axis routing.","prediction":"A flexible coil support should survive repeated folding without a large calibration shift through neutral-axis routing.","test":"Measure resistance and inductance.","contrary_outcome":"Calibration drifts despite routing.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0684","id":"S4-0684","volume":"900v4","title":"A magnetic shutter should route a weak field between two outputs with less mechanical work than translating the source magnet.","prediction":"A magnetic shutter should route a weak field between two outputs with less mechanical work than translating the source magnet.","test":"Measure switching work.","contrary":"Shutter work is not lower.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0684","hypothesis":"A magnetic shutter should route a weak field between two outputs with less mechanical work than translating the source magnet.","prediction":"A magnetic shutter should route a weak field between two outputs with less mechanical work than translating the source magnet.","test":"Measure switching work.","contrary_outcome":"Shutter work is not lower.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0685","id":"S4-0685","volume":"900v4","title":"A suspended conductor should estimate local airflow from the difference between field-on and field-off decay.","prediction":"A suspended conductor should estimate local airflow from the difference between field-on and field-off decay.","test":"Calibrate flows.","contrary":"Field switching alters the mechanical baseline.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0685","hypothesis":"A suspended conductor should estimate local airflow from the difference between field-on and field-off decay.","prediction":"A suspended conductor should estimate local airflow from the difference between field-on and field-off decay.","test":"Calibrate flows.","contrary_outcome":"Field switching alters the mechanical baseline.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0686","id":"S4-0686","volume":"900v4","title":"A rotating magnetic target should reveal an internal loose inclusion through intermittent phase lag.","prediction":"A rotating magnetic target should reveal an internal loose inclusion through intermittent phase lag.","test":"Test known inclusions.","contrary":"Phase lag cannot distinguish looseness from imbalance.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0686","hypothesis":"A rotating magnetic target should reveal an internal loose inclusion through intermittent phase lag.","prediction":"A rotating magnetic target should reveal an internal loose inclusion through intermittent phase lag.","test":"Test known inclusions.","contrary_outcome":"Phase lag cannot distinguish looseness from imbalance.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0687","id":"S4-0687","volume":"900v4","title":"A compliant eddy-current damper should increase damping near end-of-travel through a shaped overlap.","prediction":"A compliant eddy-current damper should increase damping near end-of-travel through a shaped overlap.","test":"Measure force versus position and speed.","contrary":"Damping lacks positional selectivity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0687","hypothesis":"A compliant eddy-current damper should increase damping near end-of-travel through a shaped overlap.","prediction":"A compliant eddy-current damper should increase damping near end-of-travel through a shaped overlap.","test":"Measure force versus position and speed.","contrary_outcome":"Damping lacks positional selectivity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0688","id":"S4-0688","volume":"900v4","title":"A passive inductive bridge should detect partial contact between overlapping metal sheets through changing current paths.","prediction":"A passive inductive bridge should detect partial contact between overlapping metal sheets through changing current paths.","test":"Vary contact area.","contrary":"Oxide variability prevents calibration.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0688","hypothesis":"A passive inductive bridge should detect partial contact between overlapping metal sheets through changing current paths.","prediction":"A passive inductive bridge should detect partial contact between overlapping metal sheets through changing current paths.","test":"Vary contact area.","contrary_outcome":"Oxide variability prevents calibration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0688","hypothesis":"A passive inductive bridge should detect partial contact between overlapping metal sheets through changing current paths.","prediction":"A passive inductive bridge should detect partial contact between overlapping metal sheets through changing current paths.","test":"Vary contact area.","contrary_outcome":"Oxide variability prevents calibration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":72,"query":"A passive inductive bridge detect partial contact between overlapping metal sheets through changing current paths. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Vary contact area."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0689","id":"S4-0689","volume":"900v4","title":"A magnetic gradient should center a freely moving conductive disk only during rotation.","prediction":"A magnetic gradient should center a freely moving conductive disk only during rotation.","test":"Measure stability versus speed.","contrary":"No stable speed-dependent centering occurs.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0689","hypothesis":"A magnetic gradient should center a freely moving conductive disk only during rotation.","prediction":"A magnetic gradient should center a freely moving conductive disk only during rotation.","test":"Measure stability versus speed.","contrary_outcome":"No stable speed-dependent centering occurs.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0690","id":"S4-0690","volume":"900v4","title":"A rotating flux guide should reduce hysteresis in a magnetic measurement by averaging directional domain response.","prediction":"A rotating flux guide should reduce hysteresis in a magnetic measurement by averaging directional domain response.","test":"Measure loop area.","contrary":"Averaging adds systematic bias.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0690","hypothesis":"A rotating flux guide should reduce hysteresis in a magnetic measurement by averaging directional domain response.","prediction":"A rotating flux guide should reduce hysteresis in a magnetic measurement by averaging directional domain response.","test":"Measure loop area.","contrary_outcome":"Averaging adds systematic bias.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0691","id":"S4-0691","volume":"900v4","title":"A flexible magnetic latch should expose incomplete closure through a distinct vibration mode.","prediction":"A flexible magnetic latch should expose incomplete closure through a distinct vibration mode.","test":"Measure modes at known gaps.","contrary":"Modes cannot resolve small gaps.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0691","hypothesis":"A flexible magnetic latch should expose incomplete closure through a distinct vibration mode.","prediction":"A flexible magnetic latch should expose incomplete closure through a distinct vibration mode.","test":"Measure modes at known gaps.","contrary_outcome":"Modes cannot resolve small gaps.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0692","id":"S4-0692","volume":"900v4","title":"A suspended ring should distinguish external magnetic interference from local target motion using opposite force symmetries.","prediction":"A suspended ring should distinguish external magnetic interference from local target motion using opposite force symmetries.","test":"Apply both disturbances.","contrary":"Symmetry separation fails.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0692","hypothesis":"A suspended ring should distinguish external magnetic interference from local target motion using opposite force symmetries.","prediction":"A suspended ring should distinguish external magnetic interference from local target motion using opposite force symmetries.","test":"Apply both disturbances.","contrary_outcome":"Symmetry separation fails.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0693","id":"S4-0693","volume":"900v4","title":"A conductive pattern should measure strain concentration through a local change in eddy-current path length.","prediction":"A conductive pattern should measure strain concentration through a local change in eddy-current path length.","test":"Load calibrated specimens.","contrary":"Signal reflects only average strain.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0693","hypothesis":"A conductive pattern should measure strain concentration through a local change in eddy-current path length.","prediction":"A conductive pattern should measure strain concentration through a local change in eddy-current path length.","test":"Load calibrated specimens.","contrary_outcome":"Signal reflects only average strain.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0694","id":"S4-0694","volume":"900v4","title":"A rotating magnet pair should produce a low-ripple translational force on a constrained follower.","prediction":"A rotating magnet pair should produce a low-ripple translational force on a constrained follower.","test":"Measure force over rotation.","contrary":"Ripple remains large.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0694","hypothesis":"A rotating magnet pair should produce a low-ripple translational force on a constrained follower.","prediction":"A rotating magnet pair should produce a low-ripple translational force on a constrained follower.","test":"Measure force over rotation.","contrary_outcome":"Ripple remains large.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0695","id":"S4-0695","volume":"900v4","title":"A compliant flux return should preserve sensor sensitivity after small mounting offsets.","prediction":"A compliant flux return should preserve sensor sensitivity after small mounting offsets.","test":"Measure calibration across offsets.","contrary":"Offsets still dominate error.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0695","hypothesis":"A compliant flux return should preserve sensor sensitivity after small mounting offsets.","prediction":"A compliant flux return should preserve sensor sensitivity after small mounting offsets.","test":"Measure calibration across offsets.","contrary_outcome":"Offsets still dominate error.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0696","id":"S4-0696","volume":"900v4","title":"A passive magnetic counter should advance once per complete field reversal and ignore partial reversals.","prediction":"A passive magnetic counter should advance once per complete field reversal and ignore partial reversals.","test":"Apply known sequences.","contrary":"Partial reversals produce false steps.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0696","hypothesis":"A passive magnetic counter should advance once per complete field reversal and ignore partial reversals.","prediction":"A passive magnetic counter should advance once per complete field reversal and ignore partial reversals.","test":"Apply known sequences.","contrary_outcome":"Partial reversals produce false steps.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0697","id":"S4-0697","volume":"900v4","title":"A suspended conductor should reveal a buried air gap through frequency-dependent magnetic-force phase.","prediction":"A suspended conductor should reveal a buried air gap through frequency-dependent magnetic-force phase.","test":"Test controlled laminates.","contrary":"Phase cannot separate gap from thickness.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0697","hypothesis":"A suspended conductor should reveal a buried air gap through frequency-dependent magnetic-force phase.","prediction":"A suspended conductor should reveal a buried air gap through frequency-dependent magnetic-force phase.","test":"Test controlled laminates.","contrary_outcome":"Phase cannot separate gap from thickness.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0698","id":"S4-0698","volume":"900v4","title":"A rotating inductive probe should quantify surface waviness while rejecting roughness through spatial averaging.","prediction":"A rotating inductive probe should quantify surface waviness while rejecting roughness through spatial averaging.","test":"Scan calibrated artifacts.","contrary":"Roughness aliases into waviness.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0698","hypothesis":"A rotating inductive probe should quantify surface waviness while rejecting roughness through spatial averaging.","prediction":"A rotating inductive probe should quantify surface waviness while rejecting roughness through spatial averaging.","test":"Scan calibrated artifacts.","contrary_outcome":"Roughness aliases into waviness.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0699","id":"S4-0699","volume":"900v4","title":"A flexible magnetic target should indicate distributed pressure through a changing multipole field.","prediction":"A flexible magnetic target should indicate distributed pressure through a changing multipole field.","test":"Apply known loads.","contrary":"Different pressure maps yield identical fields.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0699","hypothesis":"A flexible magnetic target should indicate distributed pressure through a changing multipole field.","prediction":"A flexible magnetic target should indicate distributed pressure through a changing multipole field.","test":"Apply known loads.","contrary_outcome":"Different pressure maps yield identical fields.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0699","hypothesis":"A flexible magnetic target should indicate distributed pressure through a changing multipole field.","prediction":"A flexible magnetic target should indicate distributed pressure through a changing multipole field.","test":"Apply known loads.","contrary_outcome":"Different pressure maps yield identical fields.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":73,"query":"A flexible magnetic target indicate distributed pressure through a changing multipole field. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Apply known loads."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0700","id":"S4-0700","volume":"900v4","title":"A passive eddy-current reference should track temperature drift in a neighboring displacement sensor.","prediction":"A passive eddy-current reference should track temperature drift in a neighboring displacement sensor.","test":"Heat both independently.","contrary":"Reference fails to predict drift.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0700","hypothesis":"A passive eddy-current reference should track temperature drift in a neighboring displacement sensor.","prediction":"A passive eddy-current reference should track temperature drift in a neighboring displacement sensor.","test":"Heat both independently.","contrary_outcome":"Reference fails to predict drift.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0701","id":"S4-0701","volume":"900v4","title":"A sealed gas pocket should distinguish a fast compression from slow heating through the sign of its early temperature-pressure lag.","prediction":"A sealed gas pocket should distinguish a fast compression from slow heating through the sign of its early temperature-pressure lag.","test":"Apply independent perturbations.","contrary":"Lag signatures overlap.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0701","hypothesis":"A sealed gas pocket should distinguish a fast compression from slow heating through the sign of its early temperature-pressure lag.","prediction":"A sealed gas pocket should distinguish a fast compression from slow heating through the sign of its early temperature-pressure lag.","test":"Apply independent perturbations.","contrary_outcome":"Lag signatures overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0702","id":"S4-0702","volume":"900v4","title":"A long narrow vent should reject airborne pressure spikes while admitting slow barometric changes.","prediction":"A long narrow vent should reject airborne pressure spikes while admitting slow barometric changes.","test":"Measure pressure transfer.","contrary":"Useful timescale separation is absent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0702","hypothesis":"A long narrow vent should reject airborne pressure spikes while admitting slow barometric changes.","prediction":"A long narrow vent should reject airborne pressure spikes while admitting slow barometric changes.","test":"Measure pressure transfer.","contrary_outcome":"Useful timescale separation is absent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0703","id":"S4-0703","volume":"900v4","title":"A porous gas diffuser should reduce flow maldistribution when its upstream chamber changes shape under pressure.","prediction":"A porous gas diffuser should reduce flow maldistribution when its upstream chamber changes shape under pressure.","test":"Map outlet velocities.","contrary":"Deformation worsens maldistribution.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0703","hypothesis":"A porous gas diffuser should reduce flow maldistribution when its upstream chamber changes shape under pressure.","prediction":"A porous gas diffuser should reduce flow maldistribution when its upstream chamber changes shape under pressure.","test":"Map outlet velocities.","contrary_outcome":"Deformation worsens maldistribution.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0703","hypothesis":"A porous gas diffuser should reduce flow maldistribution when its upstream chamber changes shape under pressure.","prediction":"A porous gas diffuser should reduce flow maldistribution when its upstream chamber changes shape under pressure.","test":"Map outlet velocities.","contrary_outcome":"Deformation worsens maldistribution.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":74,"query":"A porous gas diffuser reduce flow maldistribution when its upstream chamber changes shape under pressure. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Map outlet velocities."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0704","id":"S4-0704","volume":"900v4","title":"A passive gas sampler should reveal diffusion-channel contamination through a delayed internal reference pulse.","prediction":"A passive gas sampler should reveal diffusion-channel contamination through a delayed internal reference pulse.","test":"Contaminate controlled channels.","contrary":"Reference delay does not track contamination.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0704","hypothesis":"A passive gas sampler should reveal diffusion-channel contamination through a delayed internal reference pulse.","prediction":"A passive gas sampler should reveal diffusion-channel contamination through a delayed internal reference pulse.","test":"Contaminate controlled channels.","contrary_outcome":"Reference delay does not track contamination.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0705","id":"S4-0705","volume":"900v4","title":"A flexible vacuum chamber wall should indicate leak location through spatially unequal relaxation after isolation.","prediction":"A flexible vacuum chamber wall should indicate leak location through spatially unequal relaxation after isolation.","test":"Introduce known leaks.","contrary":"Wall relaxation cannot localize leaks.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0705","hypothesis":"A flexible vacuum chamber wall should indicate leak location through spatially unequal relaxation after isolation.","prediction":"A flexible vacuum chamber wall should indicate leak location through spatially unequal relaxation after isolation.","test":"Introduce known leaks.","contrary_outcome":"Wall relaxation cannot localize leaks.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0706","id":"S4-0706","volume":"900v4","title":"A rotating gas cavity should expose temperature stratification through opposite acoustic-path shifts.","prediction":"A rotating gas cavity should expose temperature stratification through opposite acoustic-path shifts.","test":"Control known gradients.","contrary":"Rotation-induced pressure masks the signal.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0706","hypothesis":"A rotating gas cavity should expose temperature stratification through opposite acoustic-path shifts.","prediction":"A rotating gas cavity should expose temperature stratification through opposite acoustic-path shifts.","test":"Control known gradients.","contrary_outcome":"Rotation-induced pressure masks the signal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0707","id":"S4-0707","volume":"900v4","title":"A capillary pressure reference should distinguish gas permeation from a discrete leak through area scaling.","prediction":"A capillary pressure reference should distinguish gas permeation from a discrete leak through area scaling.","test":"Test membranes and pinholes.","contrary":"Scaling remains indistinguishable.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0707","hypothesis":"A capillary pressure reference should distinguish gas permeation from a discrete leak through area scaling.","prediction":"A capillary pressure reference should distinguish gas permeation from a discrete leak through area scaling.","test":"Test membranes and pinholes.","contrary_outcome":"Scaling remains indistinguishable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0708","id":"S4-0708","volume":"900v4","title":"A porous bellows should equalize pressure while filtering dust without a large reset delay.","prediction":"A porous bellows should equalize pressure while filtering dust without a large reset delay.","test":"Measure pressure response and inert dust passage.","contrary":"Filtering causes excessive delay.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0708","hypothesis":"A porous bellows should equalize pressure while filtering dust without a large reset delay.","prediction":"A porous bellows should equalize pressure while filtering dust without a large reset delay.","test":"Measure pressure response and inert dust passage.","contrary_outcome":"Filtering causes excessive delay.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0709","id":"S4-0709","volume":"900v4","title":"A passive gas-flow divider should maintain equal molar flows during moderate downstream-temperature differences.","prediction":"A passive gas-flow divider should maintain equal molar flows during moderate downstream-temperature differences.","test":"Measure branch flows.","contrary":"Thermal imbalance dominates.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0709","hypothesis":"A passive gas-flow divider should maintain equal molar flows during moderate downstream-temperature differences.","prediction":"A passive gas-flow divider should maintain equal molar flows during moderate downstream-temperature differences.","test":"Measure branch flows.","contrary_outcome":"Thermal imbalance dominates.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0710","id":"S4-0710","volume":"900v4","title":"A flexible vent cover should open during outward gas flow but resist inward splashed water.","prediction":"A flexible vent cover should open during outward gas flow but resist inward splashed water.","test":"Measure both transfer directions.","contrary":"Water rejection blocks gas venting.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0710","hypothesis":"A flexible vent cover should open during outward gas flow but resist inward splashed water.","prediction":"A flexible vent cover should open during outward gas flow but resist inward splashed water.","test":"Measure both transfer directions.","contrary_outcome":"Water rejection blocks gas venting.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0711","id":"S4-0711","volume":"900v4","title":"A sealed reference bulb should reveal slow gas loss through a changing ratio of two resonant modes.","prediction":"A sealed reference bulb should reveal slow gas loss through a changing ratio of two resonant modes.","test":"Introduce calibrated leaks.","contrary":"Mode ratio is insensitive to gas loss.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0711","hypothesis":"A sealed reference bulb should reveal slow gas loss through a changing ratio of two resonant modes.","prediction":"A sealed reference bulb should reveal slow gas loss through a changing ratio of two resonant modes.","test":"Introduce calibrated leaks.","contrary_outcome":"Mode ratio is insensitive to gas loss.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0712","id":"S4-0712","volume":"900v4","title":"A rotating microfan analogue should measure gas density from startup acceleration after subtracting bearing drag.","prediction":"A rotating microfan analogue should measure gas density from startup acceleration after subtracting bearing drag.","test":"Test inert gas standards.","contrary":"Viscosity confounds density inference.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0712","hypothesis":"A rotating microfan analogue should measure gas density from startup acceleration after subtracting bearing drag.","prediction":"A rotating microfan analogue should measure gas density from startup acceleration after subtracting bearing drag.","test":"Test inert gas standards.","contrary_outcome":"Viscosity confounds density inference.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0713","id":"S4-0713","volume":"900v4","title":"A porous expansion chamber should lower decompression noise by distributing the release in space.","prediction":"A porous expansion chamber should lower decompression noise by distributing the release in space.","test":"Measure sound and pressure.","contrary":"Noise is merely shifted to another band.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0713","hypothesis":"A porous expansion chamber should lower decompression noise by distributing the release in space.","prediction":"A porous expansion chamber should lower decompression noise by distributing the release in space.","test":"Measure sound and pressure.","contrary_outcome":"Noise is merely shifted to another band.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0714","id":"S4-0714","volume":"900v4","title":"A passive diaphragm should distinguish ambient-pressure drift from local gas generation through differential vent paths.","prediction":"A passive diaphragm should distinguish ambient-pressure drift from local gas generation through differential vent paths.","test":"Apply calibrated inputs.","contrary":"Responses remain degenerate.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0714","hypothesis":"A passive diaphragm should distinguish ambient-pressure drift from local gas generation through differential vent paths.","prediction":"A passive diaphragm should distinguish ambient-pressure drift from local gas generation through differential vent paths.","test":"Apply calibrated inputs.","contrary_outcome":"Responses remain degenerate.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0715","id":"S4-0715","volume":"900v4","title":"A flexible gas bag should maintain a fixed optical sampling thickness using a tensioned internal spacer.","prediction":"A flexible gas bag should maintain a fixed optical sampling thickness using a tensioned internal spacer.","test":"Measure path length over volume.","contrary":"Spacer buckles or distorts the path.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0715","hypothesis":"A flexible gas bag should maintain a fixed optical sampling thickness using a tensioned internal spacer.","prediction":"A flexible gas bag should maintain a fixed optical sampling thickness using a tensioned internal spacer.","test":"Measure path length over volume.","contrary_outcome":"Spacer buckles or distorts the path.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0715","hypothesis":"A flexible gas bag should maintain a fixed optical sampling thickness using a tensioned internal spacer.","prediction":"A flexible gas bag should maintain a fixed optical sampling thickness using a tensioned internal spacer.","test":"Measure path length over volume.","contrary_outcome":"Spacer buckles or distorts the path.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":75,"query":"A flexible gas bag maintain a fixed optical sampling thickness using a tensioned internal spacer. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure path length over volume."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0716","id":"S4-0716","volume":"900v4","title":"A capillary vent should resist condensation blockage when its wall warms preferentially through gas flow.","prediction":"A capillary vent should resist condensation blockage when its wall warms preferentially through gas flow.","test":"Measure flow during cooling.","contrary":"Condensation still seals the vent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0716","hypothesis":"A capillary vent should resist condensation blockage when its wall warms preferentially through gas flow.","prediction":"A capillary vent should resist condensation blockage when its wall warms preferentially through gas flow.","test":"Measure flow during cooling.","contrary_outcome":"Condensation still seals the vent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0717","id":"S4-0717","volume":"900v4","title":"A sealed gas spring should estimate humidity from damping after independent temperature compensation.","prediction":"A sealed gas spring should estimate humidity from damping after independent temperature compensation.","test":"Test controlled humidity.","contrary":"Gas composition changes are below mechanical drift.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0717","hypothesis":"A sealed gas spring should estimate humidity from damping after independent temperature compensation.","prediction":"A sealed gas spring should estimate humidity from damping after independent temperature compensation.","test":"Test controlled humidity.","contrary_outcome":"Gas composition changes are below mechanical drift.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0718","id":"S4-0718","volume":"900v4","title":"A porous reservoir should release absorbed benign vapor in a reproducible pulse after rapid decompression.","prediction":"A porous reservoir should release absorbed benign vapor in a reproducible pulse after rapid decompression.","test":"Measure release curves.","contrary":"Pulse shape depends strongly on history.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0718","hypothesis":"A porous reservoir should release absorbed benign vapor in a reproducible pulse after rapid decompression.","prediction":"A porous reservoir should release absorbed benign vapor in a reproducible pulse after rapid decompression.","test":"Measure release curves.","contrary_outcome":"Pulse shape depends strongly on history.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0719","id":"S4-0719","volume":"900v4","title":"A passive gas mixer should reduce composition gradients through buoyancy-driven circulation without moving parts.","prediction":"A passive gas mixer should reduce composition gradients through buoyancy-driven circulation without moving parts.","test":"Map inert tracer concentration.","contrary":"Stratification persists.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0719","hypothesis":"A passive gas mixer should reduce composition gradients through buoyancy-driven circulation without moving parts.","prediction":"A passive gas mixer should reduce composition gradients through buoyancy-driven circulation without moving parts.","test":"Map inert tracer concentration.","contrary_outcome":"Stratification persists.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0720","id":"S4-0720","volume":"900v4","title":"A flexible inlet should suppress compressible-flow whistle onset by moving its lip away from resonance.","prediction":"A flexible inlet should suppress compressible-flow whistle onset by moving its lip away from resonance.","test":"Measure onset pressure.","contrary":"Lip motion creates another tone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0720","hypothesis":"A flexible inlet should suppress compressible-flow whistle onset by moving its lip away from resonance.","prediction":"A flexible inlet should suppress compressible-flow whistle onset by moving its lip away from resonance.","test":"Measure onset pressure.","contrary_outcome":"Lip motion creates another tone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0721","id":"S4-0721","volume":"900v4","title":"A rotating pressure tap should distinguish static pressure from directional dynamic pressure through angular harmonics.","prediction":"A rotating pressure tap should distinguish static pressure from directional dynamic pressure through angular harmonics.","test":"Calibrate flow fields.","contrary":"Harmonics remain mixed.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0721","hypothesis":"A rotating pressure tap should distinguish static pressure from directional dynamic pressure through angular harmonics.","prediction":"A rotating pressure tap should distinguish static pressure from directional dynamic pressure through angular harmonics.","test":"Calibrate flow fields.","contrary_outcome":"Harmonics remain mixed.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0722","id":"S4-0722","volume":"900v4","title":"A porous gas seal should reduce leakage after compression by closing its largest connected pathways first.","prediction":"A porous gas seal should reduce leakage after compression by closing its largest connected pathways first.","test":"Measure permeability and pore images.","contrary":"Small pathways close first without useful sealing.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0722","hypothesis":"A porous gas seal should reduce leakage after compression by closing its largest connected pathways first.","prediction":"A porous gas seal should reduce leakage after compression by closing its largest connected pathways first.","test":"Measure permeability and pore images.","contrary_outcome":"Small pathways close first without useful sealing.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0723","id":"S4-0723","volume":"900v4","title":"A passive gas-volume comparator should compare two unknown volumes through equalization displacement rather than absolute pressure.","prediction":"A passive gas-volume comparator should compare two unknown volumes through equalization displacement rather than absolute pressure.","test":"Test calibrated chambers.","contrary":"Thermal transients dominate the comparison.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0723","hypothesis":"A passive gas-volume comparator should compare two unknown volumes through equalization displacement rather than absolute pressure.","prediction":"A passive gas-volume comparator should compare two unknown volumes through equalization displacement rather than absolute pressure.","test":"Test calibrated chambers.","contrary_outcome":"Thermal transients dominate the comparison.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0724","id":"S4-0724","volume":"900v4","title":"A flexible purge chamber should sweep stagnant corners through pressure-driven wall motion.","prediction":"A flexible purge chamber should sweep stagnant corners through pressure-driven wall motion.","test":"Measure tracer washout.","contrary":"Dead zones remain.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0724","hypothesis":"A flexible purge chamber should sweep stagnant corners through pressure-driven wall motion.","prediction":"A flexible purge chamber should sweep stagnant corners through pressure-driven wall motion.","test":"Measure tracer washout.","contrary_outcome":"Dead zones remain.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0725","id":"S4-0725","volume":"900v4","title":"A capillary gas restrictor should self-clean condensed liquid through a pressure-triggered shape change.","prediction":"A capillary gas restrictor should self-clean condensed liquid through a pressure-triggered shape change.","test":"Measure recovery after condensation.","contrary":"Shape change traps liquid.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0725","hypothesis":"A capillary gas restrictor should self-clean condensed liquid through a pressure-triggered shape change.","prediction":"A capillary gas restrictor should self-clean condensed liquid through a pressure-triggered shape change.","test":"Measure recovery after condensation.","contrary_outcome":"Shape change traps liquid.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0726","id":"S4-0726","volume":"900v4","title":"A sealed acoustic bulb should reveal gas contamination through dispersion between low and high modes.","prediction":"A sealed acoustic bulb should reveal gas contamination through dispersion between low and high modes.","test":"Test known inert mixtures.","contrary":"Dispersion is below wall-loss uncertainty.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0726","hypothesis":"A sealed acoustic bulb should reveal gas contamination through dispersion between low and high modes.","prediction":"A sealed acoustic bulb should reveal gas contamination through dispersion between low and high modes.","test":"Test known inert mixtures.","contrary_outcome":"Dispersion is below wall-loss uncertainty.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0727","id":"S4-0727","volume":"900v4","title":"A porous pressure buffer should preserve mean pressure while reducing pump-induced concentration oscillations.","prediction":"A porous pressure buffer should preserve mean pressure while reducing pump-induced concentration oscillations.","test":"Measure pressure and tracer signals.","contrary":"Concentration oscillations remain unchanged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0727","hypothesis":"A porous pressure buffer should preserve mean pressure while reducing pump-induced concentration oscillations.","prediction":"A porous pressure buffer should preserve mean pressure while reducing pump-induced concentration oscillations.","test":"Measure pressure and tracer signals.","contrary_outcome":"Concentration oscillations remain unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0728","id":"S4-0728","volume":"900v4","title":"A passive vent should close before a rising liquid reaches its gas outlet through buoyancy-amplified motion.","prediction":"A passive vent should close before a rising liquid reaches its gas outlet through buoyancy-amplified motion.","test":"Measure closure timing.","contrary":"Liquid enters before closure.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0728","hypothesis":"A passive vent should close before a rising liquid reaches its gas outlet through buoyancy-amplified motion.","prediction":"A passive vent should close before a rising liquid reaches its gas outlet through buoyancy-amplified motion.","test":"Measure closure timing.","contrary_outcome":"Liquid enters before closure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0728","hypothesis":"A passive vent should close before a rising liquid reaches its gas outlet through buoyancy-amplified motion.","prediction":"A passive vent should close before a rising liquid reaches its gas outlet through buoyancy-amplified motion.","test":"Measure closure timing.","contrary_outcome":"Liquid enters before closure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":76,"query":"A passive vent close before a rising liquid reaches its gas outlet through buoyancy-amplified motion. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure closure timing."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0729","id":"S4-0729","volume":"900v4","title":"A flexible gas channel should distinguish blockage from outlet-pressure rise through a local wall-shape ratio.","prediction":"A flexible gas channel should distinguish blockage from outlet-pressure rise through a local wall-shape ratio.","test":"Apply both disturbances.","contrary":"Shape ratios overlap.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0729","hypothesis":"A flexible gas channel should distinguish blockage from outlet-pressure rise through a local wall-shape ratio.","prediction":"A flexible gas channel should distinguish blockage from outlet-pressure rise through a local wall-shape ratio.","test":"Apply both disturbances.","contrary_outcome":"Shape ratios overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0730","id":"S4-0730","volume":"900v4","title":"A rotating gas sampler should reduce directional bias in concentration measurement near a source.","prediction":"A rotating gas sampler should reduce directional bias in concentration measurement near a source.","test":"Compare known concentration fields.","contrary":"Rotation averages away useful gradients.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0730","hypothesis":"A rotating gas sampler should reduce directional bias in concentration measurement near a source.","prediction":"A rotating gas sampler should reduce directional bias in concentration measurement near a source.","test":"Compare known concentration fields.","contrary_outcome":"Rotation averages away useful gradients.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0731","id":"S4-0731","volume":"900v4","title":"A porous chamber wall should reveal absorbed moisture through a changed pressure-relaxation tail.","prediction":"A porous chamber wall should reveal absorbed moisture through a changed pressure-relaxation tail.","test":"Control moisture loading.","contrary":"Tail is dominated by leaks.","layers":[1,2,3],"categories":["physical"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0731","hypothesis":"A porous chamber wall should reveal absorbed moisture through a changed pressure-relaxation tail.","prediction":"A porous chamber wall should reveal absorbed moisture through a changed pressure-relaxation tail.","test":"Control moisture loading.","contrary_outcome":"Tail is dominated by leaks.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0731","hypothesis":"A porous chamber wall should reveal absorbed moisture through a changed pressure-relaxation tail.","prediction":"A porous chamber wall should reveal absorbed moisture through a changed pressure-relaxation tail.","test":"Control moisture loading.","contrary_outcome":"Tail is dominated by leaks.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":7,"query":"A porous chamber wall reveal absorbed moisture through a changed pressure-relaxation tail. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Control moisture loading."},"dossier":{"id":"S4-0731","title":"Moisture-dependent pressure-relaxation tails","why_selected":"Moisture can be independently weighed, and a pressure-decay protocol makes competing leak and permeability explanations testable.","sources":[{"title":"Effect of air pressure on moisture transfer inside porous building materials","url":"https://onlinelibrary.wiley.com/doi/full/10.1002/2475-8876.12047","access":"Primary publisher abstract read","finding":"Fukui and colleagues compare water uptake when air escape is restricted and model coupled air/moisture transfer. This supports coupling between moisture and pore-gas pressure, not uniqueness of a relaxation-tail moisture indicator."}],"design":"Condition porous wall coupons to known gravimetric moisture contents, mount them around a small reference chamber, and apply a modest repeatable pressure step. Measure full pressure decay and specimen mass. Use independent coupons, randomized moisture states where reversible, and blank chamber tests before each run. Track temperature and any liquid motion.","endpoints":"Primary: held-out moisture-estimation error from a preregistered decay-tail feature. Secondary: fitted fast and slow timescales, leak-rate sensitivity, and recovery after drying. A useful indicator must distinguish adjacent moisture states beyond chamber drift.","controls":"Nonporous wall, calibrated pinhole leaks, dry porous coupons with changed permeability, equal-mass surface water, temperature steps, and sealed/vented pore boundaries. Moisture changes both storage and transport and can alter chamber volume.","conditional_analysis":"In a lumped linear model Ceff*dp/dt=-G*p, the decay time is tau=Ceff/G. Added sorption storage could increase Ceff, but moisture may decrease or increase conductance G. Thus a longer tail is not uniquely attributable to moisture, and no monotonicity theorem is defensible without independently constraining G. A multiexponential fit can describe data while remaining physically nonidentifiable.","analysis_plan":"Compare moisture-only predictions against leak-only and permeability controls using held-out coupons. Publish parameter covariance and residual structure, not just fit quality. Reject the diagnostic claim if different dry/leak conditions reproduce the same tail or if calibration fails after wet-dry cycling.","limitations":"Unproved sensor concept; primary related work establishes coupled transport only. No experimental moisture estimates or novelty claim.","rank":7,"hypothesis":"A porous chamber wall should reveal absorbed moisture through a changed pressure-relaxation tail.","status":"speculative; no physical data or proof"},"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0732","id":"S4-0732","volume":"900v4","title":"A passive gas-driven oscillator should stop cleanly when flow falls below a threshold instead of producing irregular pulses.","prediction":"A passive gas-driven oscillator should stop cleanly when flow falls below a threshold instead of producing irregular pulses.","test":"Measure low-flow behavior.","contrary":"Intermittent pulsing persists.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0732","hypothesis":"A passive gas-driven oscillator should stop cleanly when flow falls below a threshold instead of producing irregular pulses.","prediction":"A passive gas-driven oscillator should stop cleanly when flow falls below a threshold instead of producing irregular pulses.","test":"Measure low-flow behavior.","contrary_outcome":"Intermittent pulsing persists.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0733","id":"S4-0733","volume":"900v4","title":"A flexible pressure reservoir should retain a known gas aliquot after supply disconnection.","prediction":"A flexible pressure reservoir should retain a known gas aliquot after supply disconnection.","test":"Measure aliquot across supply conditions.","contrary":"Volume depends strongly on disconnect timing.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0733","hypothesis":"A flexible pressure reservoir should retain a known gas aliquot after supply disconnection.","prediction":"A flexible pressure reservoir should retain a known gas aliquot after supply disconnection.","test":"Measure aliquot across supply conditions.","contrary_outcome":"Volume depends strongly on disconnect timing.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0734","id":"S4-0734","volume":"900v4","title":"A capillary diffusion bridge should separate gas-concentration change from pressure change using opposed reservoirs.","prediction":"A capillary diffusion bridge should separate gas-concentration change from pressure change using opposed reservoirs.","test":"Apply independent changes.","contrary":"Signals remain confounded.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0734","hypothesis":"A capillary diffusion bridge should separate gas-concentration change from pressure change using opposed reservoirs.","prediction":"A capillary diffusion bridge should separate gas-concentration change from pressure change using opposed reservoirs.","test":"Apply independent changes.","contrary_outcome":"Signals remain confounded.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0735","id":"S4-0735","volume":"900v4","title":"A sealed gas pocket should report local heat flux from pressure-rise curvature after calibration.","prediction":"A sealed gas pocket should report local heat flux from pressure-rise curvature after calibration.","test":"Apply known heat pulses.","contrary":"Wall heat capacity dominates curvature.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0735","hypothesis":"A sealed gas pocket should report local heat flux from pressure-rise curvature after calibration.","prediction":"A sealed gas pocket should report local heat flux from pressure-rise curvature after calibration.","test":"Apply known heat pulses.","contrary_outcome":"Wall heat capacity dominates curvature.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0736","id":"S4-0736","volume":"900v4","title":"A porous muffler should preserve attenuation after partial clogging through independent parallel flow paths.","prediction":"A porous muffler should preserve attenuation after partial clogging through independent parallel flow paths.","test":"Block selected paths.","contrary":"Clogging creates a loud bypass tone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0736","hypothesis":"A porous muffler should preserve attenuation after partial clogging through independent parallel flow paths.","prediction":"A porous muffler should preserve attenuation after partial clogging through independent parallel flow paths.","test":"Block selected paths.","contrary_outcome":"Clogging creates a loud bypass tone.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0737","id":"S4-0737","volume":"900v4","title":"A passive gas check valve should avoid chatter through controlled elastic energy release at opening.","prediction":"A passive gas check valve should avoid chatter through controlled elastic energy release at opening.","test":"Measure motion and pressure.","contrary":"Release increases oscillation.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0737","hypothesis":"A passive gas check valve should avoid chatter through controlled elastic energy release at opening.","prediction":"A passive gas check valve should avoid chatter through controlled elastic energy release at opening.","test":"Measure motion and pressure.","contrary_outcome":"Release increases oscillation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0738","id":"S4-0738","volume":"900v4","title":"A flexible gas film bearing should detect approach to contact through a sharp phase-lag change.","prediction":"A flexible gas film bearing should detect approach to contact through a sharp phase-lag change.","test":"Measure gap and response.","contrary":"Phase changes only after contact.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0738","hypothesis":"A flexible gas film bearing should detect approach to contact through a sharp phase-lag change.","prediction":"A flexible gas film bearing should detect approach to contact through a sharp phase-lag change.","test":"Measure gap and response.","contrary_outcome":"Phase changes only after contact.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0739","id":"S4-0739","volume":"900v4","title":"A rotating vent should shed condensed droplets centrifugally while preserving gas-flow resistance.","prediction":"A rotating vent should shed condensed droplets centrifugally while preserving gas-flow resistance.","test":"Measure droplet removal and resistance.","contrary":"Removal requires excessive rotational drag.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0739","hypothesis":"A rotating vent should shed condensed droplets centrifugally while preserving gas-flow resistance.","prediction":"A rotating vent should shed condensed droplets centrifugally while preserving gas-flow resistance.","test":"Measure droplet removal and resistance.","contrary_outcome":"Removal requires excessive rotational drag.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0739","hypothesis":"A rotating vent should shed condensed droplets centrifugally while preserving gas-flow resistance.","prediction":"A rotating vent should shed condensed droplets centrifugally while preserving gas-flow resistance.","test":"Measure droplet removal and resistance.","contrary_outcome":"Removal requires excessive rotational drag.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":77,"query":"A rotating vent shed condensed droplets centrifugally while preserving gas-flow resistance. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure droplet removal and resistance."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0740","id":"S4-0740","volume":"900v4","title":"A porous gas sampler should reject short concentration spikes through distributed diffusion lengths.","prediction":"A porous gas sampler should reject short concentration spikes through distributed diffusion lengths.","test":"Apply controlled histories.","contrary":"Spikes dominate the collected sample.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0740","hypothesis":"A porous gas sampler should reject short concentration spikes through distributed diffusion lengths.","prediction":"A porous gas sampler should reject short concentration spikes through distributed diffusion lengths.","test":"Apply controlled histories.","contrary_outcome":"Spikes dominate the collected sample.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0741","id":"S4-0741","volume":"900v4","title":"A sealed bellows should distinguish gas adsorption on its wall from a temperature shift through delayed recovery.","prediction":"A sealed bellows should distinguish gas adsorption on its wall from a temperature shift through delayed recovery.","test":"Control both effects.","contrary":"Recovery curves overlap.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0741","hypothesis":"A sealed bellows should distinguish gas adsorption on its wall from a temperature shift through delayed recovery.","prediction":"A sealed bellows should distinguish gas adsorption on its wall from a temperature shift through delayed recovery.","test":"Control both effects.","contrary_outcome":"Recovery curves overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0742","id":"S4-0742","volume":"900v4","title":"A passive pressure amplifier should increase differential pressure sensitivity without increasing common-pressure sensitivity.","prediction":"A passive pressure amplifier should increase differential pressure sensitivity without increasing common-pressure sensitivity.","test":"Calibrate both.","contrary":"Common-mode error grows equally.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0742","hypothesis":"A passive pressure amplifier should increase differential pressure sensitivity without increasing common-pressure sensitivity.","prediction":"A passive pressure amplifier should increase differential pressure sensitivity without increasing common-pressure sensitivity.","test":"Calibrate both.","contrary_outcome":"Common-mode error grows equally.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0743","id":"S4-0743","volume":"900v4","title":"A flexible gas duct should reduce startup pressure overshoot by temporarily increasing volume near the inlet.","prediction":"A flexible gas duct should reduce startup pressure overshoot by temporarily increasing volume near the inlet.","test":"Measure transients.","contrary":"Stored gas produces a larger rebound pulse.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0743","hypothesis":"A flexible gas duct should reduce startup pressure overshoot by temporarily increasing volume near the inlet.","prediction":"A flexible gas duct should reduce startup pressure overshoot by temporarily increasing volume near the inlet.","test":"Measure transients.","contrary_outcome":"Stored gas produces a larger rebound pulse.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0744","id":"S4-0744","volume":"900v4","title":"A capillary leak should reveal its location along a tube through unequal pressure-relaxation times at both ends.","prediction":"A capillary leak should reveal its location along a tube through unequal pressure-relaxation times at both ends.","test":"Introduce known leaks.","contrary":"Location estimates remain ambiguous.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0744","hypothesis":"A capillary leak should reveal its location along a tube through unequal pressure-relaxation times at both ends.","prediction":"A capillary leak should reveal its location along a tube through unequal pressure-relaxation times at both ends.","test":"Introduce known leaks.","contrary_outcome":"Location estimates remain ambiguous.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0745","id":"S4-0745","volume":"900v4","title":"A rotating gas cavity should average gravity-induced stratification faster than molecular diffusion alone.","prediction":"A rotating gas cavity should average gravity-induced stratification faster than molecular diffusion alone.","test":"Measure inert tracer mixing.","contrary":"Rotation creates stable segregation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0745","hypothesis":"A rotating gas cavity should average gravity-induced stratification faster than molecular diffusion alone.","prediction":"A rotating gas cavity should average gravity-induced stratification faster than molecular diffusion alone.","test":"Measure inert tracer mixing.","contrary_outcome":"Rotation creates stable segregation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0746","id":"S4-0746","volume":"900v4","title":"A porous vent should remain open during frost formation through a protected warm gas-return path.","prediction":"A porous vent should remain open during frost formation through a protected warm gas-return path.","test":"Image benign freezing conditions.","contrary":"Frost bridges the protected path.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0746","hypothesis":"A porous vent should remain open during frost formation through a protected warm gas-return path.","prediction":"A porous vent should remain open during frost formation through a protected warm gas-return path.","test":"Image benign freezing conditions.","contrary_outcome":"Frost bridges the protected path.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0747","id":"S4-0747","volume":"900v4","title":"A passive gas reservoir should deliver nearly constant pressure through sequential chamber collapse.","prediction":"A passive gas reservoir should deliver nearly constant pressure through sequential chamber collapse.","test":"Measure pressure-volume curve.","contrary":"Collapse events create large pressure steps.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0747","hypothesis":"A passive gas reservoir should deliver nearly constant pressure through sequential chamber collapse.","prediction":"A passive gas reservoir should deliver nearly constant pressure through sequential chamber collapse.","test":"Measure pressure-volume curve.","contrary_outcome":"Collapse events create large pressure steps.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0748","id":"S4-0748","volume":"900v4","title":"A flexible diaphragm array should map pressure impulse arrival direction through switching order.","prediction":"A flexible diaphragm array should map pressure impulse arrival direction through switching order.","test":"Apply controlled waves.","contrary":"Switch order is dominated by threshold variation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0748","hypothesis":"A flexible diaphragm array should map pressure impulse arrival direction through switching order.","prediction":"A flexible diaphragm array should map pressure impulse arrival direction through switching order.","test":"Apply controlled waves.","contrary_outcome":"Switch order is dominated by threshold variation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0749","id":"S4-0749","volume":"900v4","title":"A sealed optical gas cell should reduce window contamination through a sacrificial internal condensation surface.","prediction":"A sealed optical gas cell should reduce window contamination through a sacrificial internal condensation surface.","test":"Measure window transmission.","contrary":"Contamination remains on the windows.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0749","hypothesis":"A sealed optical gas cell should reduce window contamination through a sacrificial internal condensation surface.","prediction":"A sealed optical gas cell should reduce window contamination through a sacrificial internal condensation surface.","test":"Measure window transmission.","contrary_outcome":"Contamination remains on the windows.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0750","id":"S4-0750","volume":"900v4","title":"A porous pressure divider should distinguish gas viscosity from supply pressure using two transient ratios.","prediction":"A porous pressure divider should distinguish gas viscosity from supply pressure using two transient ratios.","test":"Test known gases.","contrary":"Ratios are not independently informative.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0750","hypothesis":"A porous pressure divider should distinguish gas viscosity from supply pressure using two transient ratios.","prediction":"A porous pressure divider should distinguish gas viscosity from supply pressure using two transient ratios.","test":"Test known gases.","contrary_outcome":"Ratios are not independently informative.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0751","id":"S4-0751","volume":"900v4","title":"A passive relief valve should reopen less violently when a compressible side pocket stores its closure impulse.","prediction":"A passive relief valve should reopen less violently when a compressible side pocket stores its closure impulse.","test":"Measure valve acceleration.","contrary":"Pocket increases rebound.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0751","hypothesis":"A passive relief valve should reopen less violently when a compressible side pocket stores its closure impulse.","prediction":"A passive relief valve should reopen less violently when a compressible side pocket stores its closure impulse.","test":"Measure valve acceleration.","contrary_outcome":"Pocket increases rebound.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0751","hypothesis":"A passive relief valve should reopen less violently when a compressible side pocket stores its closure impulse.","prediction":"A passive relief valve should reopen less violently when a compressible side pocket stores its closure impulse.","test":"Measure valve acceleration.","contrary_outcome":"Pocket increases rebound.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":78,"query":"A passive relief valve reopen less violently when a compressible side pocket stores its closure impulse. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure valve acceleration."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0752","id":"S4-0752","volume":"900v4","title":"A flexible gas conduit should maintain conductance during bending through internal floating spacers.","prediction":"A flexible gas conduit should maintain conductance during bending through internal floating spacers.","test":"Measure flow versus curvature.","contrary":"Spacers create new restrictions.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0752","hypothesis":"A flexible gas conduit should maintain conductance during bending through internal floating spacers.","prediction":"A flexible gas conduit should maintain conductance during bending through internal floating spacers.","test":"Measure flow versus curvature.","contrary_outcome":"Spacers create new restrictions.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0753","id":"S4-0753","volume":"900v4","title":"A capillary sampling inlet should reject liquid droplets while preserving response to gas-concentration steps.","prediction":"A capillary sampling inlet should reject liquid droplets while preserving response to gas-concentration steps.","test":"Measure gas response and droplet ingress.","contrary":"Droplet rejection causes excessive gas lag.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0753","hypothesis":"A capillary sampling inlet should reject liquid droplets while preserving response to gas-concentration steps.","prediction":"A capillary sampling inlet should reject liquid droplets while preserving response to gas-concentration steps.","test":"Measure gas response and droplet ingress.","contrary_outcome":"Droplet rejection causes excessive gas lag.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0754","id":"S4-0754","volume":"900v4","title":"A sealed gas balance should measure molecular mass through buoyancy and resonance jointly.","prediction":"A sealed gas balance should measure molecular mass through buoyancy and resonance jointly.","test":"Test inert standards.","contrary":"Parameters cannot be separated from temperature.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0754","hypothesis":"A sealed gas balance should measure molecular mass through buoyancy and resonance jointly.","prediction":"A sealed gas balance should measure molecular mass through buoyancy and resonance jointly.","test":"Test inert standards.","contrary_outcome":"Parameters cannot be separated from temperature.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0755","id":"S4-0755","volume":"900v4","title":"A rotating porous gas outlet should reduce jet directional bias through time averaging.","prediction":"A rotating porous gas outlet should reduce jet directional bias through time averaging.","test":"Map momentum distribution.","contrary":"Residual bias remains large.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0755","hypothesis":"A rotating porous gas outlet should reduce jet directional bias through time averaging.","prediction":"A rotating porous gas outlet should reduce jet directional bias through time averaging.","test":"Map momentum distribution.","contrary_outcome":"Residual bias remains large.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0756","id":"S4-0756","volume":"900v4","title":"A porous reference chamber should expose gas-sensor pressure sensitivity independently of concentration.","prediction":"A porous reference chamber should expose gas-sensor pressure sensitivity independently of concentration.","test":"Vary pressure and tracer concentration.","contrary":"Reference does not isolate pressure artifacts.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0756","hypothesis":"A porous reference chamber should expose gas-sensor pressure sensitivity independently of concentration.","prediction":"A porous reference chamber should expose gas-sensor pressure sensitivity independently of concentration.","test":"Vary pressure and tracer concentration.","contrary_outcome":"Reference does not isolate pressure artifacts.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0757","id":"S4-0757","volume":"900v4","title":"A passive gas timer should reset faster than it actuates through asymmetric vent conductance.","prediction":"A passive gas timer should reset faster than it actuates through asymmetric vent conductance.","test":"Measure timing cycles.","contrary":"Reset remains equally slow.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0757","hypothesis":"A passive gas timer should reset faster than it actuates through asymmetric vent conductance.","prediction":"A passive gas timer should reset faster than it actuates through asymmetric vent conductance.","test":"Measure timing cycles.","contrary_outcome":"Reset remains equally slow.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0758","id":"S4-0758","volume":"900v4","title":"A flexible membrane should distinguish positive from negative pressure excursions through different stable wrinkle patterns.","prediction":"A flexible membrane should distinguish positive from negative pressure excursions through different stable wrinkle patterns.","test":"Apply calibrated pulses.","contrary":"Patterns are not sign-specific.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0758","hypothesis":"A flexible membrane should distinguish positive from negative pressure excursions through different stable wrinkle patterns.","prediction":"A flexible membrane should distinguish positive from negative pressure excursions through different stable wrinkle patterns.","test":"Apply calibrated pulses.","contrary_outcome":"Patterns are not sign-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0759","id":"S4-0759","volume":"900v4","title":"A capillary gas bridge should preserve pressure communication despite small liquid intrusion by routing around the liquid plug.","prediction":"A capillary gas bridge should preserve pressure communication despite small liquid intrusion by routing around the liquid plug.","test":"Measure transfer after dosing.","contrary":"Plug blocks all routes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0759","hypothesis":"A capillary gas bridge should preserve pressure communication despite small liquid intrusion by routing around the liquid plug.","prediction":"A capillary gas bridge should preserve pressure communication despite small liquid intrusion by routing around the liquid plug.","test":"Measure transfer after dosing.","contrary_outcome":"Plug blocks all routes.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0760","id":"S4-0760","volume":"900v4","title":"A sealed chamber should reveal wall permeation through a pressure response that changes with external gas composition.","prediction":"A sealed chamber should reveal wall permeation through a pressure response that changes with external gas composition.","test":"Test controlled inert atmospheres.","contrary":"Leaks produce indistinguishable changes.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0760","hypothesis":"A sealed chamber should reveal wall permeation through a pressure response that changes with external gas composition.","prediction":"A sealed chamber should reveal wall permeation through a pressure response that changes with external gas composition.","test":"Test controlled inert atmospheres.","contrary_outcome":"Leaks produce indistinguishable changes.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0761","id":"S4-0761","volume":"900v4","title":"A porous expansion plug should reduce thermal shock during gas release by spreading cooling over its volume.","prediction":"A porous expansion plug should reduce thermal shock during gas release by spreading cooling over its volume.","test":"Map temperatures.","contrary":"Cooling remains localized.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0761","hypothesis":"A porous expansion plug should reduce thermal shock during gas release by spreading cooling over its volume.","prediction":"A porous expansion plug should reduce thermal shock during gas release by spreading cooling over its volume.","test":"Map temperatures.","contrary_outcome":"Cooling remains localized.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0762","id":"S4-0762","volume":"900v4","title":"A passive pneumatic regulator should maintain its setpoint after moderate membrane creep through geometric feedback.","prediction":"A passive pneumatic regulator should maintain its setpoint after moderate membrane creep through geometric feedback.","test":"Measure long-term pressure.","contrary":"Setpoint drifts with creep.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0762","hypothesis":"A passive pneumatic regulator should maintain its setpoint after moderate membrane creep through geometric feedback.","prediction":"A passive pneumatic regulator should maintain its setpoint after moderate membrane creep through geometric feedback.","test":"Measure long-term pressure.","contrary_outcome":"Setpoint drifts with creep.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0763","id":"S4-0763","volume":"900v4","title":"A flexible gas collector should separate discrete bubbles from continuous gas flow through two mechanical states.","prediction":"A flexible gas collector should separate discrete bubbles from continuous gas flow through two mechanical states.","test":"Apply calibrated gas inputs.","contrary":"States depend only on total volume.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0763","hypothesis":"A flexible gas collector should separate discrete bubbles from continuous gas flow through two mechanical states.","prediction":"A flexible gas collector should separate discrete bubbles from continuous gas flow through two mechanical states.","test":"Apply calibrated gas inputs.","contrary_outcome":"States depend only on total volume.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0764","id":"S4-0764","volume":"900v4","title":"A rotating pressure reference should reject static support tilt while preserving centrifugal-pressure sensitivity.","prediction":"A rotating pressure reference should reject static support tilt while preserving centrifugal-pressure sensitivity.","test":"Calibrate both.","contrary":"Tilt bias remains large.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0764","hypothesis":"A rotating pressure reference should reject static support tilt while preserving centrifugal-pressure sensitivity.","prediction":"A rotating pressure reference should reject static support tilt while preserving centrifugal-pressure sensitivity.","test":"Calibrate both.","contrary_outcome":"Tilt bias remains large.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0765","id":"S4-0765","volume":"900v4","title":"A porous vent membrane should reveal incipient wetting through a sharp change in gas-flow noise.","prediction":"A porous vent membrane should reveal incipient wetting through a sharp change in gas-flow noise.","test":"Control liquid contact.","contrary":"Noise changes only after full blockage.","layers":[1,2],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0765","hypothesis":"A porous vent membrane should reveal incipient wetting through a sharp change in gas-flow noise.","prediction":"A porous vent membrane should reveal incipient wetting through a sharp change in gas-flow noise.","test":"Control liquid contact.","contrary_outcome":"Noise changes only after full blockage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0765","hypothesis":"A porous vent membrane should reveal incipient wetting through a sharp change in gas-flow noise.","prediction":"A porous vent membrane should reveal incipient wetting through a sharp change in gas-flow noise.","test":"Control liquid contact.","contrary_outcome":"Noise changes only after full blockage.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":79,"query":"A porous vent membrane reveal incipient wetting through a sharp change in gas-flow noise. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Control liquid contact."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0766","id":"S4-0766","volume":"900v4","title":"A sealed gas spring should reduce temperature sensitivity through a moving thermal-contact sleeve.","prediction":"A sealed gas spring should reduce temperature sensitivity through a moving thermal-contact sleeve.","test":"Measure stiffness-temperature response.","contrary":"Sleeve feedback adds hysteresis.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0766","hypothesis":"A sealed gas spring should reduce temperature sensitivity through a moving thermal-contact sleeve.","prediction":"A sealed gas spring should reduce temperature sensitivity through a moving thermal-contact sleeve.","test":"Measure stiffness-temperature response.","contrary_outcome":"Sleeve feedback adds hysteresis.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0767","id":"S4-0767","volume":"900v4","title":"A passive gas pulse router should select paths according to pulse spacing rather than pulse amplitude.","prediction":"A passive gas pulse router should select paths according to pulse spacing rather than pulse amplitude.","test":"Apply controlled trains.","contrary":"Routing is amplitude-dominated.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0767","hypothesis":"A passive gas pulse router should select paths according to pulse spacing rather than pulse amplitude.","prediction":"A passive gas pulse router should select paths according to pulse spacing rather than pulse amplitude.","test":"Apply controlled trains.","contrary_outcome":"Routing is amplitude-dominated.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0768","id":"S4-0768","volume":"900v4","title":"A flexible pressure shield should attenuate airborne impulses without strongly blocking slow ventilation.","prediction":"A flexible pressure shield should attenuate airborne impulses without strongly blocking slow ventilation.","test":"Measure transfer and airflow.","contrary":"Attenuation requires near-total sealing.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0768","hypothesis":"A flexible pressure shield should attenuate airborne impulses without strongly blocking slow ventilation.","prediction":"A flexible pressure shield should attenuate airborne impulses without strongly blocking slow ventilation.","test":"Measure transfer and airflow.","contrary_outcome":"Attenuation requires near-total sealing.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0769","id":"S4-0769","volume":"900v4","title":"A capillary gas sensor should infer acceleration from pressure differences between opposing trapped pockets.","prediction":"A capillary gas sensor should infer acceleration from pressure differences between opposing trapped pockets.","test":"Apply known motions.","contrary":"Temperature differences dominate the signal.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0769","hypothesis":"A capillary gas sensor should infer acceleration from pressure differences between opposing trapped pockets.","prediction":"A capillary gas sensor should infer acceleration from pressure differences between opposing trapped pockets.","test":"Apply known motions.","contrary_outcome":"Temperature differences dominate the signal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0770","id":"S4-0770","volume":"900v4","title":"A porous chamber should reduce gas residence-time tails by allowing diffusion through otherwise stagnant walls.","prediction":"A porous chamber should reduce gas residence-time tails by allowing diffusion through otherwise stagnant walls.","test":"Measure tracer washout.","contrary":"Tails remain unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0770","hypothesis":"A porous chamber should reduce gas residence-time tails by allowing diffusion through otherwise stagnant walls.","prediction":"A porous chamber should reduce gas residence-time tails by allowing diffusion through otherwise stagnant walls.","test":"Measure tracer washout.","contrary_outcome":"Tails remain unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0771","id":"S4-0771","volume":"900v4","title":"A sealed flexible capsule should preserve an excursion record through a permanent geometric inversion.","prediction":"A sealed flexible capsule should preserve an excursion record through a permanent geometric inversion.","test":"Apply calibrated pressure peaks.","contrary":"Inversion depends mostly on pulse duration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0771","hypothesis":"A sealed flexible capsule should preserve an excursion record through a permanent geometric inversion.","prediction":"A sealed flexible capsule should preserve an excursion record through a permanent geometric inversion.","test":"Apply calibrated pressure peaks.","contrary_outcome":"Inversion depends mostly on pulse duration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0772","id":"S4-0772","volume":"900v4","title":"A passive vacuum indicator should distinguish pump failure from line blockage through two reference volumes.","prediction":"A passive vacuum indicator should distinguish pump failure from line blockage through two reference volumes.","test":"Introduce both faults.","contrary":"Indicator states overlap.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0772","hypothesis":"A passive vacuum indicator should distinguish pump failure from line blockage through two reference volumes.","prediction":"A passive vacuum indicator should distinguish pump failure from line blockage through two reference volumes.","test":"Introduce both faults.","contrary_outcome":"Indicator states overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0773","id":"S4-0773","volume":"900v4","title":"A rotating gas channel should separate dense inert tracer from carrier gas measurably at modest rotational speed.","prediction":"A rotating gas channel should separate dense inert tracer from carrier gas measurably at modest rotational speed.","test":"Measure concentrations.","contrary":"Diffusion erases the predicted separation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0773","hypothesis":"A rotating gas channel should separate dense inert tracer from carrier gas measurably at modest rotational speed.","prediction":"A rotating gas channel should separate dense inert tracer from carrier gas measurably at modest rotational speed.","test":"Measure concentrations.","contrary_outcome":"Diffusion erases the predicted separation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0774","id":"S4-0774","volume":"900v4","title":"A porous gas bearing should maintain centering after one supply hole blocks through lateral permeability.","prediction":"A porous gas bearing should maintain centering after one supply hole blocks through lateral permeability.","test":"Block holes and measure runout.","contrary":"Bearing contacts its shaft.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0774","hypothesis":"A porous gas bearing should maintain centering after one supply hole blocks through lateral permeability.","prediction":"A porous gas bearing should maintain centering after one supply hole blocks through lateral permeability.","test":"Block holes and measure runout.","contrary_outcome":"Bearing contacts its shaft.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0775","id":"S4-0775","volume":"900v4","title":"A flexible relief lip should reduce leakage after repeated opening through a self-reseating rolling motion.","prediction":"A flexible relief lip should reduce leakage after repeated opening through a self-reseating rolling motion.","test":"Measure leak cycles.","contrary":"Rolling increases residual gaps.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0775","hypothesis":"A flexible relief lip should reduce leakage after repeated opening through a self-reseating rolling motion.","prediction":"A flexible relief lip should reduce leakage after repeated opening through a self-reseating rolling motion.","test":"Measure leak cycles.","contrary_outcome":"Rolling increases residual gaps.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0776","id":"S4-0776","volume":"900v4","title":"A capillary gas delay should retain its timing after moderate humidity changes through a protected dry reference path.","prediction":"A capillary gas delay should retain its timing after moderate humidity changes through a protected dry reference path.","test":"Measure delays.","contrary":"Humidity still shifts timing substantially.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0776","hypothesis":"A capillary gas delay should retain its timing after moderate humidity changes through a protected dry reference path.","prediction":"A capillary gas delay should retain its timing after moderate humidity changes through a protected dry reference path.","test":"Measure delays.","contrary_outcome":"Humidity still shifts timing substantially.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0777","id":"S4-0777","volume":"900v4","title":"A sealed pressure chamber should detect an internal flexible obstruction through nonlinear compression response.","prediction":"A sealed pressure chamber should detect an internal flexible obstruction through nonlinear compression response.","test":"Insert calibrated membranes.","contrary":"Response is indistinguishable from gas-volume change.","layers":[1,2],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0777","hypothesis":"A sealed pressure chamber should detect an internal flexible obstruction through nonlinear compression response.","prediction":"A sealed pressure chamber should detect an internal flexible obstruction through nonlinear compression response.","test":"Insert calibrated membranes.","contrary_outcome":"Response is indistinguishable from gas-volume change.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0777","hypothesis":"A sealed pressure chamber should detect an internal flexible obstruction through nonlinear compression response.","prediction":"A sealed pressure chamber should detect an internal flexible obstruction through nonlinear compression response.","test":"Insert calibrated membranes.","contrary_outcome":"Response is indistinguishable from gas-volume change.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":80,"query":"A sealed pressure chamber detect an internal flexible obstruction through nonlinear compression response. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Insert calibrated membranes."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0778","id":"S4-0778","volume":"900v4","title":"A porous vent should route condensed liquid away from its main gas pathway by capillary competition.","prediction":"A porous vent should route condensed liquid away from its main gas pathway by capillary competition.","test":"Image gas and liquid paths.","contrary":"Liquid floods the gas path.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0778","hypothesis":"A porous vent should route condensed liquid away from its main gas pathway by capillary competition.","prediction":"A porous vent should route condensed liquid away from its main gas pathway by capillary competition.","test":"Image gas and liquid paths.","contrary_outcome":"Liquid floods the gas path.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0779","id":"S4-0779","volume":"900v4","title":"A passive pneumatic bridge should detect a tiny added volume through a differential oscillation period.","prediction":"A passive pneumatic bridge should detect a tiny added volume through a differential oscillation period.","test":"Add calibrated volumes.","contrary":"Period noise masks the change.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0779","hypothesis":"A passive pneumatic bridge should detect a tiny added volume through a differential oscillation period.","prediction":"A passive pneumatic bridge should detect a tiny added volume through a differential oscillation period.","test":"Add calibrated volumes.","contrary_outcome":"Period noise masks the change.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0780","id":"S4-0780","volume":"900v4","title":"A flexible gas reservoir should release stored pressure more uniformly when its collapse front travels rather than nucleates randomly.","prediction":"A flexible gas reservoir should release stored pressure more uniformly when its collapse front travels rather than nucleates randomly.","test":"Image collapse and pressure.","contrary":"Front motion remains erratic.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0780","hypothesis":"A flexible gas reservoir should release stored pressure more uniformly when its collapse front travels rather than nucleates randomly.","prediction":"A flexible gas reservoir should release stored pressure more uniformly when its collapse front travels rather than nucleates randomly.","test":"Image collapse and pressure.","contrary_outcome":"Front motion remains erratic.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0781","id":"S4-0781","volume":"900v4","title":"A rotating gas sampler should encode exposure duration in the position of a diffusion front.","prediction":"A rotating gas sampler should encode exposure duration in the position of a diffusion front.","test":"Compare known exposures.","contrary":"Front position depends mainly on concentration.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0781","hypothesis":"A rotating gas sampler should encode exposure duration in the position of a diffusion front.","prediction":"A rotating gas sampler should encode exposure duration in the position of a diffusion front.","test":"Compare known exposures.","contrary_outcome":"Front position depends mainly on concentration.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0782","id":"S4-0782","volume":"900v4","title":"A porous pressure reference should reject rapid thermal transients through matched solid and gas heat capacities.","prediction":"A porous pressure reference should reject rapid thermal transients through matched solid and gas heat capacities.","test":"Measure pressure during heating.","contrary":"Matching does not reduce drift.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0782","hypothesis":"A porous pressure reference should reject rapid thermal transients through matched solid and gas heat capacities.","prediction":"A porous pressure reference should reject rapid thermal transients through matched solid and gas heat capacities.","test":"Measure pressure during heating.","contrary_outcome":"Matching does not reduce drift.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0783","id":"S4-0783","volume":"900v4","title":"A sealed bellows should report loss of vacuum through a changed snap threshold before gross expansion.","prediction":"A sealed bellows should report loss of vacuum through a changed snap threshold before gross expansion.","test":"Introduce leaks.","contrary":"Threshold changes too late.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0783","hypothesis":"A sealed bellows should report loss of vacuum through a changed snap threshold before gross expansion.","prediction":"A sealed bellows should report loss of vacuum through a changed snap threshold before gross expansion.","test":"Introduce leaks.","contrary_outcome":"Threshold changes too late.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0784","id":"S4-0784","volume":"900v4","title":"A passive gas-flow oscillator should identify a branch leak through altered pulse asymmetry.","prediction":"A passive gas-flow oscillator should identify a branch leak through altered pulse asymmetry.","test":"Introduce calibrated leaks.","contrary":"Asymmetry also changes with normal load.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0784","hypothesis":"A passive gas-flow oscillator should identify a branch leak through altered pulse asymmetry.","prediction":"A passive gas-flow oscillator should identify a branch leak through altered pulse asymmetry.","test":"Introduce calibrated leaks.","contrary_outcome":"Asymmetry also changes with normal load.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0785","id":"S4-0785","volume":"900v4","title":"A flexible air-return tube should prevent liquid-column breakup during reservoir draining.","prediction":"A flexible air-return tube should prevent liquid-column breakup during reservoir draining.","test":"Measure gas path and flow continuity.","contrary":"Tube collapse causes additional breakup.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0785","hypothesis":"A flexible air-return tube should prevent liquid-column breakup during reservoir draining.","prediction":"A flexible air-return tube should prevent liquid-column breakup during reservoir draining.","test":"Measure gas path and flow continuity.","contrary_outcome":"Tube collapse causes additional breakup.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0786","id":"S4-0786","volume":"900v4","title":"A capillary gas pocket should measure surface tension from pressure-volume hysteresis without optical contact-angle measurement.","prediction":"A capillary gas pocket should measure surface tension from pressure-volume hysteresis without optical contact-angle measurement.","test":"Compare calibrated liquids.","contrary":"Wetting history prevents reliable inversion.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0786","hypothesis":"A capillary gas pocket should measure surface tension from pressure-volume hysteresis without optical contact-angle measurement.","prediction":"A capillary gas pocket should measure surface tension from pressure-volume hysteresis without optical contact-angle measurement.","test":"Compare calibrated liquids.","contrary_outcome":"Wetting history prevents reliable inversion.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0787","id":"S4-0787","volume":"900v4","title":"A porous exhaust should reduce impulsive recoil by distributing gas release over time.","prediction":"A porous exhaust should reduce impulsive recoil by distributing gas release over time.","test":"Measure reaction force.","contrary":"Recoil impulse remains equally concentrated.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0787","hypothesis":"A porous exhaust should reduce impulsive recoil by distributing gas release over time.","prediction":"A porous exhaust should reduce impulsive recoil by distributing gas release over time.","test":"Measure reaction force.","contrary_outcome":"Recoil impulse remains equally concentrated.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0788","id":"S4-0788","volume":"900v4","title":"A sealed gas reference should compensate altitude-related drift in a mechanical timer.","prediction":"A sealed gas reference should compensate altitude-related drift in a mechanical timer.","test":"Measure timing across chamber pressures.","contrary":"Compensation fails.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0788","hypothesis":"A sealed gas reference should compensate altitude-related drift in a mechanical timer.","prediction":"A sealed gas reference should compensate altitude-related drift in a mechanical timer.","test":"Measure timing across chamber pressures.","contrary_outcome":"Compensation fails.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0789","id":"S4-0789","volume":"900v4","title":"A passive pneumatic latch should tolerate slow supply decay while responding to rapid intentional depressurization.","prediction":"A passive pneumatic latch should tolerate slow supply decay while responding to rapid intentional depressurization.","test":"Apply pressure histories.","contrary":"Decay and reset cannot be separated.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0789","hypothesis":"A passive pneumatic latch should tolerate slow supply decay while responding to rapid intentional depressurization.","prediction":"A passive pneumatic latch should tolerate slow supply decay while responding to rapid intentional depressurization.","test":"Apply pressure histories.","contrary_outcome":"Decay and reset cannot be separated.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0789","hypothesis":"A passive pneumatic latch should tolerate slow supply decay while responding to rapid intentional depressurization.","prediction":"A passive pneumatic latch should tolerate slow supply decay while responding to rapid intentional depressurization.","test":"Apply pressure histories.","contrary_outcome":"Decay and reset cannot be separated.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":81,"query":"A passive pneumatic latch tolerate slow supply decay while responding to rapid intentional depressurization. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Apply pressure histories."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0790","id":"S4-0790","volume":"900v4","title":"A flexible gas duct should expose partial collapse through a distinct pressure-noise harmonic.","prediction":"A flexible gas duct should expose partial collapse through a distinct pressure-noise harmonic.","test":"Control collapse extent.","contrary":"Harmonic is not collapse-specific.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0790","hypothesis":"A flexible gas duct should expose partial collapse through a distinct pressure-noise harmonic.","prediction":"A flexible gas duct should expose partial collapse through a distinct pressure-noise harmonic.","test":"Control collapse extent.","contrary_outcome":"Harmonic is not collapse-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0791","id":"S4-0791","volume":"900v4","title":"A rotating pressure sensor should average port contamination errors through sequential reference exposure.","prediction":"A rotating pressure sensor should average port contamination errors through sequential reference exposure.","test":"Contaminate known ports.","contrary":"Averaging propagates contamination to all readings.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0791","hypothesis":"A rotating pressure sensor should average port contamination errors through sequential reference exposure.","prediction":"A rotating pressure sensor should average port contamination errors through sequential reference exposure.","test":"Contaminate known ports.","contrary_outcome":"Averaging propagates contamination to all readings.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0792","id":"S4-0792","volume":"900v4","title":"A porous gas storage pad should release a fixed fraction of stored gas per compression cycle.","prediction":"A porous gas storage pad should release a fixed fraction of stored gas per compression cycle.","test":"Measure volume per stroke.","contrary":"Fraction drifts with cycle count.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0792","hypothesis":"A porous gas storage pad should release a fixed fraction of stored gas per compression cycle.","prediction":"A porous gas storage pad should release a fixed fraction of stored gas per compression cycle.","test":"Measure volume per stroke.","contrary_outcome":"Fraction drifts with cycle count.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0793","id":"S4-0793","volume":"900v4","title":"A sealed diaphragm should reveal a tiny liquid contaminant through amplitude-dependent resonance damping.","prediction":"A sealed diaphragm should reveal a tiny liquid contaminant through amplitude-dependent resonance damping.","test":"Dose known droplets.","contrary":"Temperature drift masks the signal.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0793","hypothesis":"A sealed diaphragm should reveal a tiny liquid contaminant through amplitude-dependent resonance damping.","prediction":"A sealed diaphragm should reveal a tiny liquid contaminant through amplitude-dependent resonance damping.","test":"Dose known droplets.","contrary_outcome":"Temperature drift masks the signal.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0794","id":"S4-0794","volume":"900v4","title":"A passive vent should prevent reverse diffusion during idle periods by closing under zero flow.","prediction":"A passive vent should prevent reverse diffusion during idle periods by closing under zero flow.","test":"Measure tracer ingress.","contrary":"Closure leaks diffusively.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0794","hypothesis":"A passive vent should prevent reverse diffusion during idle periods by closing under zero flow.","prediction":"A passive vent should prevent reverse diffusion during idle periods by closing under zero flow.","test":"Measure tracer ingress.","contrary_outcome":"Closure leaks diffusively.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0795","id":"S4-0795","volume":"900v4","title":"A flexible gas separator should protect a downstream pressure sensor from liquid slugs through transient volume expansion.","prediction":"A flexible gas separator should protect a downstream pressure sensor from liquid slugs through transient volume expansion.","test":"Apply controlled slugs.","contrary":"Liquid reaches the sensor.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0795","hypothesis":"A flexible gas separator should protect a downstream pressure sensor from liquid slugs through transient volume expansion.","prediction":"A flexible gas separator should protect a downstream pressure sensor from liquid slugs through transient volume expansion.","test":"Apply controlled slugs.","contrary_outcome":"Liquid reaches the sensor.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0796","id":"S4-0796","volume":"900v4","title":"A capillary reference should distinguish absolute pressure from differential pressure using two gas volumes of unequal compliance.","prediction":"A capillary reference should distinguish absolute pressure from differential pressure using two gas volumes of unequal compliance.","test":"Calibrate both.","contrary":"The inversion is ill-conditioned.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0796","hypothesis":"A capillary reference should distinguish absolute pressure from differential pressure using two gas volumes of unequal compliance.","prediction":"A capillary reference should distinguish absolute pressure from differential pressure using two gas volumes of unequal compliance.","test":"Calibrate both.","contrary_outcome":"The inversion is ill-conditioned.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0797","id":"S4-0797","volume":"900v4","title":"A porous pressure-relief structure should remain functional after one cell is crushed through alternate pathways.","prediction":"A porous pressure-relief structure should remain functional after one cell is crushed through alternate pathways.","test":"Crush controlled cells.","contrary":"Relief capacity collapses.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0797","hypothesis":"A porous pressure-relief structure should remain functional after one cell is crushed through alternate pathways.","prediction":"A porous pressure-relief structure should remain functional after one cell is crushed through alternate pathways.","test":"Crush controlled cells.","contrary_outcome":"Relief capacity collapses.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0798","id":"S4-0798","volume":"900v4","title":"A sealed gas oscillator should reveal wall softening through a shift in waveform shape before frequency changes.","prediction":"A sealed gas oscillator should reveal wall softening through a shift in waveform shape before frequency changes.","test":"Heat controlled walls.","contrary":"Waveform change is not stiffness-specific.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0798","hypothesis":"A sealed gas oscillator should reveal wall softening through a shift in waveform shape before frequency changes.","prediction":"A sealed gas oscillator should reveal wall softening through a shift in waveform shape before frequency changes.","test":"Heat controlled walls.","contrary_outcome":"Waveform change is not stiffness-specific.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0799","id":"S4-0799","volume":"900v4","title":"A passive pneumatic sampler should preserve the order of two gas pulses in separate chambers.","prediction":"A passive pneumatic sampler should preserve the order of two gas pulses in separate chambers.","test":"Apply inert tracer pulses.","contrary":"Diffusion scrambles order.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0799","hypothesis":"A passive pneumatic sampler should preserve the order of two gas pulses in separate chambers.","prediction":"A passive pneumatic sampler should preserve the order of two gas pulses in separate chambers.","test":"Apply inert tracer pulses.","contrary_outcome":"Diffusion scrambles order.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0800","id":"S4-0800","volume":"900v4","title":"A flexible vent should return to its initial conductance after repeated wetting and drying.","prediction":"A flexible vent should return to its initial conductance after repeated wetting and drying.","test":"Measure flow cycles.","contrary":"Residual liquid changes conductance permanently.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0800","hypothesis":"A flexible vent should return to its initial conductance after repeated wetting and drying.","prediction":"A flexible vent should return to its initial conductance after repeated wetting and drying.","test":"Measure flow cycles.","contrary_outcome":"Residual liquid changes conductance permanently.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0800","hypothesis":"A flexible vent should return to its initial conductance after repeated wetting and drying.","prediction":"A flexible vent should return to its initial conductance after repeated wetting and drying.","test":"Measure flow cycles.","contrary_outcome":"Residual liquid changes conductance permanently.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":82,"query":"A flexible vent return to its initial conductance after repeated wetting and drying. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure flow cycles."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0801","id":"S4-0801","volume":"900v4","title":"A self-aligning drill-free positioning jig should reduce hole-location error by seating on three independently floating references.","prediction":"A self-aligning drill-free positioning jig should reduce hole-location error by seating on three independently floating references.","test":"Measure calibrated parts.","contrary":"Floating references increase error.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0801","hypothesis":"A self-aligning drill-free positioning jig should reduce hole-location error by seating on three independently floating references.","prediction":"A self-aligning drill-free positioning jig should reduce hole-location error by seating on three independently floating references.","test":"Measure calibrated parts.","contrary_outcome":"Floating references increase error.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0802","id":"S4-0802","volume":"900v4","title":"A compliant molding insert should release undercut shapes through sequential inversion without damaging the part.","prediction":"A compliant molding insert should release undercut shapes through sequential inversion without damaging the part.","test":"Measure release force and defects.","contrary":"Inversion tears the part.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0802","hypothesis":"A compliant molding insert should release undercut shapes through sequential inversion without damaging the part.","prediction":"A compliant molding insert should release undercut shapes through sequential inversion without damaging the part.","test":"Measure release force and defects.","contrary_outcome":"Inversion tears the part.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0802","hypothesis":"A compliant molding insert should release undercut shapes through sequential inversion without damaging the part.","prediction":"A compliant molding insert should release undercut shapes through sequential inversion without damaging the part.","test":"Measure release force and defects.","contrary_outcome":"Inversion tears the part.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":83,"query":"A compliant molding insert release undercut shapes through sequential inversion without damaging the part. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure release force and defects."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0803","id":"S4-0803","volume":"900v4","title":"A rotating curing mask should reduce shrinkage warping by distributing exposure in time.","prediction":"A rotating curing mask should reduce shrinkage warping by distributing exposure in time.","test":"Measure benign resin-analogue geometry.","contrary":"Warping remains unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0803","hypothesis":"A rotating curing mask should reduce shrinkage warping by distributing exposure in time.","prediction":"A rotating curing mask should reduce shrinkage warping by distributing exposure in time.","test":"Measure benign resin-analogue geometry.","contrary_outcome":"Warping remains unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0804","id":"S4-0804","volume":"900v4","title":"A passive leveling fixture should compensate unequal support heights through a fluid-free mechanical differential.","prediction":"A passive leveling fixture should compensate unequal support heights through a fluid-free mechanical differential.","test":"Measure platform tilt.","contrary":"Differential friction prevents leveling.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0804","hypothesis":"A passive leveling fixture should compensate unequal support heights through a fluid-free mechanical differential.","prediction":"A passive leveling fixture should compensate unequal support heights through a fluid-free mechanical differential.","test":"Measure platform tilt.","contrary_outcome":"Differential friction prevents leveling.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0805","id":"S4-0805","volume":"900v4","title":"A flexible casting wall should preserve volume while relieving solidification stress through tangential motion.","prediction":"A flexible casting wall should preserve volume while relieving solidification stress through tangential motion.","test":"Measure stress and final dimensions.","contrary":"Relief changes volume substantially.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0805","hypothesis":"A flexible casting wall should preserve volume while relieving solidification stress through tangential motion.","prediction":"A flexible casting wall should preserve volume while relieving solidification stress through tangential motion.","test":"Measure stress and final dimensions.","contrary_outcome":"Relief changes volume substantially.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0806","id":"S4-0806","volume":"900v4","title":"A sacrificial geometric tab should indicate that a press-fit reached its intended insertion depth.","prediction":"A sacrificial geometric tab should indicate that a press-fit reached its intended insertion depth.","test":"Compare tab state with measured depth.","contrary":"Tabs trigger prematurely or inconsistently.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0806","hypothesis":"A sacrificial geometric tab should indicate that a press-fit reached its intended insertion depth.","prediction":"A sacrificial geometric tab should indicate that a press-fit reached its intended insertion depth.","test":"Compare tab state with measured depth.","contrary_outcome":"Tabs trigger prematurely or inconsistently.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0807","id":"S4-0807","volume":"900v4","title":"A rolling alignment cone should reveal a skewed receiving bore through unequal contact-roller rotations.","prediction":"A rolling alignment cone should reveal a skewed receiving bore through unequal contact-roller rotations.","test":"Insert into calibrated bore angles.","contrary":"Rotation asymmetry is dominated by friction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0807","hypothesis":"A rolling alignment cone should reveal a skewed receiving bore through unequal contact-roller rotations.","prediction":"A rolling alignment cone should reveal a skewed receiving bore through unequal contact-roller rotations.","test":"Insert into calibrated bore angles.","contrary_outcome":"Rotation asymmetry is dominated by friction.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0808","id":"S4-0808","volume":"900v4","title":"A compliant deburring-free edge protector should prevent handling damage by redirecting contact into a stronger region.","prediction":"A compliant deburring-free edge protector should prevent handling damage by redirecting contact into a stronger region.","test":"Apply controlled impacts.","contrary":"Damage remains at the edge.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0808","hypothesis":"A compliant deburring-free edge protector should prevent handling damage by redirecting contact into a stronger region.","prediction":"A compliant deburring-free edge protector should prevent handling damage by redirecting contact into a stronger region.","test":"Apply controlled impacts.","contrary_outcome":"Damage remains at the edge.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0809","id":"S4-0809","volume":"900v4","title":"A rotating inspection cradle should expose surface defects through repeatable changing specular highlights.","prediction":"A rotating inspection cradle should expose surface defects through repeatable changing specular highlights.","test":"Test known defects.","contrary":"Highlights create more false positives than detections.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0809","hypothesis":"A rotating inspection cradle should expose surface defects through repeatable changing specular highlights.","prediction":"A rotating inspection cradle should expose surface defects through repeatable changing specular highlights.","test":"Test known defects.","contrary_outcome":"Highlights create more false positives than detections.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0810","id":"S4-0810","volume":"900v4","title":"A passive clamping fixture should retain equal forces after one workpiece dimension changes thermally.","prediction":"A passive clamping fixture should retain equal forces after one workpiece dimension changes thermally.","test":"Measure clamp forces.","contrary":"One jaw monopolizes load.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0810","hypothesis":"A passive clamping fixture should retain equal forces after one workpiece dimension changes thermally.","prediction":"A passive clamping fixture should retain equal forces after one workpiece dimension changes thermally.","test":"Measure clamp forces.","contrary_outcome":"One jaw monopolizes load.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0811","id":"S4-0811","volume":"900v4","title":"A flexible powder-spreading blade should reduce streaks by locally lifting over large inert particles.","prediction":"A flexible powder-spreading blade should reduce streaks by locally lifting over large inert particles.","test":"Map layer thickness.","contrary":"Lifting creates larger streaks.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0811","hypothesis":"A flexible powder-spreading blade should reduce streaks by locally lifting over large inert particles.","prediction":"A flexible powder-spreading blade should reduce streaks by locally lifting over large inert particles.","test":"Map layer thickness.","contrary_outcome":"Lifting creates larger streaks.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0812","id":"S4-0812","volume":"900v4","title":"A shaped cooling fixture should reduce residual curvature by delaying release where cooling is slowest.","prediction":"A shaped cooling fixture should reduce residual curvature by delaying release where cooling is slowest.","test":"Measure final geometry.","contrary":"Delayed release worsens stress.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0812","hypothesis":"A shaped cooling fixture should reduce residual curvature by delaying release where cooling is slowest.","prediction":"A shaped cooling fixture should reduce residual curvature by delaying release where cooling is slowest.","test":"Measure final geometry.","contrary_outcome":"Delayed release worsens stress.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0813","id":"S4-0813","volume":"900v4","title":"A self-centering folding mandrel should preserve lumen shape during soft-tube fabrication.","prediction":"A self-centering folding mandrel should preserve lumen shape during soft-tube fabrication.","test":"Measure cross-sections.","contrary":"Mandrel removal distorts the lumen.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0813","hypothesis":"A self-centering folding mandrel should preserve lumen shape during soft-tube fabrication.","prediction":"A self-centering folding mandrel should preserve lumen shape during soft-tube fabrication.","test":"Measure cross-sections.","contrary_outcome":"Mandrel removal distorts the lumen.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0814","id":"S4-0814","volume":"900v4","title":"A compliant gauge should distinguish oversize from out-of-round parts through two sequential contact states.","prediction":"A compliant gauge should distinguish oversize from out-of-round parts through two sequential contact states.","test":"Test calibration artifacts.","contrary":"States remain ambiguous.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0814","hypothesis":"A compliant gauge should distinguish oversize from out-of-round parts through two sequential contact states.","prediction":"A compliant gauge should distinguish oversize from out-of-round parts through two sequential contact states.","test":"Test calibration artifacts.","contrary_outcome":"States remain ambiguous.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0815","id":"S4-0815","volume":"900v4","title":"A rotating deposition shield should equalize coating thickness on recessed surfaces.","prediction":"A rotating deposition shield should equalize coating thickness on recessed surfaces.","test":"Measure benign coating maps.","contrary":"Recess shadowing persists.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0815","hypothesis":"A rotating deposition shield should equalize coating thickness on recessed surfaces.","prediction":"A rotating deposition shield should equalize coating thickness on recessed surfaces.","test":"Measure benign coating maps.","contrary_outcome":"Recess shadowing persists.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0816","id":"S4-0816","volume":"900v4","title":"A passive tensioner should keep film tension stable as a supply roll's diameter decreases.","prediction":"A passive tensioner should keep film tension stable as a supply roll's diameter decreases.","test":"Measure tension through payout.","contrary":"Tension follows roll radius.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0816","hypothesis":"A passive tensioner should keep film tension stable as a supply roll's diameter decreases.","prediction":"A passive tensioner should keep film tension stable as a supply roll's diameter decreases.","test":"Measure tension through payout.","contrary_outcome":"Tension follows roll radius.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0816","hypothesis":"A passive tensioner should keep film tension stable as a supply roll's diameter decreases.","prediction":"A passive tensioner should keep film tension stable as a supply roll's diameter decreases.","test":"Measure tension through payout.","contrary_outcome":"Tension follows roll radius.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":84,"query":"A passive tensioner keep film tension stable as a supply roll's diameter decreases. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure tension through payout."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0817","id":"S4-0817","volume":"900v4","title":"A flexible mold vent should open under trapped-gas pressure and close before liquid escapes.","prediction":"A flexible mold vent should open under trapped-gas pressure and close before liquid escapes.","test":"Measure gas and benign casting-fluid leakage.","contrary":"Closure is too late.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0817","hypothesis":"A flexible mold vent should open under trapped-gas pressure and close before liquid escapes.","prediction":"A flexible mold vent should open under trapped-gas pressure and close before liquid escapes.","test":"Measure gas and benign casting-fluid leakage.","contrary_outcome":"Closure is too late.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0818","id":"S4-0818","volume":"900v4","title":"A geometric assembly key should prevent a nearly correct but reversed insertion without high jamming force.","prediction":"A geometric assembly key should prevent a nearly correct but reversed insertion without high jamming force.","test":"Test deliberate misassembly.","contrary":"Wrong insertion jams destructively.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0818","hypothesis":"A geometric assembly key should prevent a nearly correct but reversed insertion without high jamming force.","prediction":"A geometric assembly key should prevent a nearly correct but reversed insertion without high jamming force.","test":"Test deliberate misassembly.","contrary_outcome":"Wrong insertion jams destructively.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0819","id":"S4-0819","volume":"900v4","title":"A rolling support fixture should reduce distortion when a thin sheet is trimmed by a noncutting scoring analogue.","prediction":"A rolling support fixture should reduce distortion when a thin sheet is trimmed by a noncutting scoring analogue.","test":"Measure deflection.","contrary":"Supports introduce local dents.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0819","hypothesis":"A rolling support fixture should reduce distortion when a thin sheet is trimmed by a noncutting scoring analogue.","prediction":"A rolling support fixture should reduce distortion when a thin sheet is trimmed by a noncutting scoring analogue.","test":"Measure deflection.","contrary_outcome":"Supports introduce local dents.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0820","id":"S4-0820","volume":"900v4","title":"A compliant transfer tray should preserve relative positions of small parts during acceleration.","prediction":"A compliant transfer tray should preserve relative positions of small parts during acceleration.","test":"Track calibrated parts.","contrary":"Parts migrate within pockets.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0820","hypothesis":"A compliant transfer tray should preserve relative positions of small parts during acceleration.","prediction":"A compliant transfer tray should preserve relative positions of small parts during acceleration.","test":"Track calibrated parts.","contrary_outcome":"Parts migrate within pockets.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0821","id":"S4-0821","volume":"900v4","title":"A passive fixture should separate dimensional expansion from elastic springback through two release stages.","prediction":"A passive fixture should separate dimensional expansion from elastic springback through two release stages.","test":"Measure staged geometry.","contrary":"Both effects remain inseparable.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0821","hypothesis":"A passive fixture should separate dimensional expansion from elastic springback through two release stages.","prediction":"A passive fixture should separate dimensional expansion from elastic springback through two release stages.","test":"Measure staged geometry.","contrary_outcome":"Both effects remain inseparable.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0822","id":"S4-0822","volume":"900v4","title":"A flexible coating applicator should maintain wet-film thickness over gentle curvature changes.","prediction":"A flexible coating applicator should maintain wet-film thickness over gentle curvature changes.","test":"Map deposited thickness.","contrary":"Curvature produces systematic thickness errors.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0822","hypothesis":"A flexible coating applicator should maintain wet-film thickness over gentle curvature changes.","prediction":"A flexible coating applicator should maintain wet-film thickness over gentle curvature changes.","test":"Map deposited thickness.","contrary_outcome":"Curvature produces systematic thickness errors.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0823","id":"S4-0823","volume":"900v4","title":"A rotating powder hopper should reduce layer-to-layer concentration drift in a benign binary mixture.","prediction":"A rotating powder hopper should reduce layer-to-layer concentration drift in a benign binary mixture.","test":"Sample composition.","contrary":"Rotation increases segregation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0823","hypothesis":"A rotating powder hopper should reduce layer-to-layer concentration drift in a benign binary mixture.","prediction":"A rotating powder hopper should reduce layer-to-layer concentration drift in a benign binary mixture.","test":"Sample composition.","contrary_outcome":"Rotation increases segregation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0824","id":"S4-0824","volume":"900v4","title":"A self-adjusting spacer should maintain a target gap while adjacent parts shrink during drying.","prediction":"A self-adjusting spacer should maintain a target gap while adjacent parts shrink during drying.","test":"Measure gap and shrinkage.","contrary":"Spacer binds or loses contact.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0824","hypothesis":"A self-adjusting spacer should maintain a target gap while adjacent parts shrink during drying.","prediction":"A self-adjusting spacer should maintain a target gap while adjacent parts shrink during drying.","test":"Measure gap and shrinkage.","contrary_outcome":"Spacer binds or loses contact.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0825","id":"S4-0825","volume":"900v4","title":"A compliant alignment rail should guide a thin strip without edge buckling under small feed errors.","prediction":"A compliant alignment rail should guide a thin strip without edge buckling under small feed errors.","test":"Measure buckle onset.","contrary":"Rail compliance lowers the threshold.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0825","hypothesis":"A compliant alignment rail should guide a thin strip without edge buckling under small feed errors.","prediction":"A compliant alignment rail should guide a thin strip without edge buckling under small feed errors.","test":"Measure buckle onset.","contrary_outcome":"Rail compliance lowers the threshold.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0826","id":"S4-0826","volume":"900v4","title":"A passive release film should peel from a casting in a prescribed order through unequal local bending stiffness.","prediction":"A passive release film should peel from a casting in a prescribed order through unequal local bending stiffness.","test":"Image release front.","contrary":"Order is dominated by adhesion variability.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0826","hypothesis":"A passive release film should peel from a casting in a prescribed order through unequal local bending stiffness.","prediction":"A passive release film should peel from a casting in a prescribed order through unequal local bending stiffness.","test":"Image release front.","contrary_outcome":"Order is dominated by adhesion variability.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0827","id":"S4-0827","volume":"900v4","title":"A flexible support grid should reveal uneven vacuum holding through a visible shape pattern.","prediction":"A flexible support grid should reveal uneven vacuum holding through a visible shape pattern.","test":"Apply controlled suction leaks.","contrary":"Pattern cannot localize weak holding.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0827","hypothesis":"A flexible support grid should reveal uneven vacuum holding through a visible shape pattern.","prediction":"A flexible support grid should reveal uneven vacuum holding through a visible shape pattern.","test":"Apply controlled suction leaks.","contrary_outcome":"Pattern cannot localize weak holding.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0827","hypothesis":"A flexible support grid should reveal uneven vacuum holding through a visible shape pattern.","prediction":"A flexible support grid should reveal uneven vacuum holding through a visible shape pattern.","test":"Apply controlled suction leaks.","contrary_outcome":"Pattern cannot localize weak holding.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":85,"query":"A flexible support grid reveal uneven vacuum holding through a visible shape pattern. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Apply controlled suction leaks."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0828","id":"S4-0828","volume":"900v4","title":"A rotating wash fixture should clear recessed inert particles using gravity reversals rather than high jet pressure.","prediction":"A rotating wash fixture should clear recessed inert particles using gravity reversals rather than high jet pressure.","test":"Count retained particles.","contrary":"Reversals add no cleaning benefit.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0828","hypothesis":"A rotating wash fixture should clear recessed inert particles using gravity reversals rather than high jet pressure.","prediction":"A rotating wash fixture should clear recessed inert particles using gravity reversals rather than high jet pressure.","test":"Count retained particles.","contrary_outcome":"Reversals add no cleaning benefit.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0829","id":"S4-0829","volume":"900v4","title":"A self-centering collet should preserve angular orientation through asymmetric reference contacts.","prediction":"A self-centering collet should preserve angular orientation through asymmetric reference contacts.","test":"Measure remounting angle.","contrary":"Orientation remains ambiguous.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0829","hypothesis":"A self-centering collet should preserve angular orientation through asymmetric reference contacts.","prediction":"A self-centering collet should preserve angular orientation through asymmetric reference contacts.","test":"Measure remounting angle.","contrary_outcome":"Orientation remains ambiguous.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0830","id":"S4-0830","volume":"900v4","title":"A compliant press tool should distribute insertion force among multiple pins despite height tolerances.","prediction":"A compliant press tool should distribute insertion force among multiple pins despite height tolerances.","test":"Measure pin loads.","contrary":"The tallest pin still overloads.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0830","hypothesis":"A compliant press tool should distribute insertion force among multiple pins despite height tolerances.","prediction":"A compliant press tool should distribute insertion force among multiple pins despite height tolerances.","test":"Measure pin loads.","contrary_outcome":"The tallest pin still overloads.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0831","id":"S4-0831","volume":"900v4","title":"A passive thermal assembly aid should close a joint only after both parts reach similar temperature.","prediction":"A passive thermal assembly aid should close a joint only after both parts reach similar temperature.","test":"Measure closure timing.","contrary":"One-sided heating triggers closure.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0831","hypothesis":"A passive thermal assembly aid should close a joint only after both parts reach similar temperature.","prediction":"A passive thermal assembly aid should close a joint only after both parts reach similar temperature.","test":"Measure closure timing.","contrary_outcome":"One-sided heating triggers closure.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0832","id":"S4-0832","volume":"900v4","title":"A flexible mold core should contract radially during extraction through axial tension.","prediction":"A flexible mold core should contract radially during extraction through axial tension.","test":"Measure extraction force and core diameter.","contrary":"Contraction is insufficient to aid release.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0832","hypothesis":"A flexible mold core should contract radially during extraction through axial tension.","prediction":"A flexible mold core should contract radially during extraction through axial tension.","test":"Measure extraction force and core diameter.","contrary_outcome":"Contraction is insufficient to aid release.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0833","id":"S4-0833","volume":"900v4","title":"A rotating optical inspection stage should distinguish scratches from waviness by spatial-frequency scaling with angle.","prediction":"A rotating optical inspection stage should distinguish scratches from waviness by spatial-frequency scaling with angle.","test":"Test known surfaces.","contrary":"Signatures remain confounded.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0833","hypothesis":"A rotating optical inspection stage should distinguish scratches from waviness by spatial-frequency scaling with angle.","prediction":"A rotating optical inspection stage should distinguish scratches from waviness by spatial-frequency scaling with angle.","test":"Test known surfaces.","contrary_outcome":"Signatures remain confounded.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0834","id":"S4-0834","volume":"900v4","title":"A geometric fill indicator should expose trapped gas in a transparent casting cavity before sealing.","prediction":"A geometric fill indicator should expose trapped gas in a transparent casting cavity before sealing.","test":"Image known gas pockets.","contrary":"Indicator misses isolated pockets.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0834","hypothesis":"A geometric fill indicator should expose trapped gas in a transparent casting cavity before sealing.","prediction":"A geometric fill indicator should expose trapped gas in a transparent casting cavity before sealing.","test":"Image known gas pockets.","contrary_outcome":"Indicator misses isolated pockets.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0835","id":"S4-0835","volume":"900v4","title":"A compliant transport gripper should maintain part orientation during release through delayed fingertip withdrawal.","prediction":"A compliant transport gripper should maintain part orientation during release through delayed fingertip withdrawal.","test":"Measure landing orientation.","contrary":"Withdrawal timing adds rotation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0835","hypothesis":"A compliant transport gripper should maintain part orientation during release through delayed fingertip withdrawal.","prediction":"A compliant transport gripper should maintain part orientation during release through delayed fingertip withdrawal.","test":"Measure landing orientation.","contrary_outcome":"Withdrawal timing adds rotation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0836","id":"S4-0836","volume":"900v4","title":"A passive web guide should correct lateral drift without sensing the web edge directly.","prediction":"A passive web guide should correct lateral drift without sensing the web edge directly.","test":"Apply known disturbances.","contrary":"Correction requires edge contact.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0836","hypothesis":"A passive web guide should correct lateral drift without sensing the web edge directly.","prediction":"A passive web guide should correct lateral drift without sensing the web edge directly.","test":"Apply known disturbances.","contrary_outcome":"Correction requires edge contact.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0837","id":"S4-0837","volume":"900v4","title":"A flexible coating mask should seal better under spray pressure while peeling easily after drying.","prediction":"A flexible coating mask should seal better under spray pressure while peeling easily after drying.","test":"Measure leakage and peel work.","contrary":"Improved sealing raises peel work substantially.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0837","hypothesis":"A flexible coating mask should seal better under spray pressure while peeling easily after drying.","prediction":"A flexible coating mask should seal better under spray pressure while peeling easily after drying.","test":"Measure leakage and peel work.","contrary_outcome":"Improved sealing raises peel work substantially.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0838","id":"S4-0838","volume":"900v4","title":"A rotating drying rack should reduce thickness gradients in a benign liquid coating through gravity averaging.","prediction":"A rotating drying rack should reduce thickness gradients in a benign liquid coating through gravity averaging.","test":"Measure final film.","contrary":"Rotation creates circumferential bands.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0838","hypothesis":"A rotating drying rack should reduce thickness gradients in a benign liquid coating through gravity averaging.","prediction":"A rotating drying rack should reduce thickness gradients in a benign liquid coating through gravity averaging.","test":"Measure final film.","contrary_outcome":"Rotation creates circumferential bands.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0838","hypothesis":"A rotating drying rack should reduce thickness gradients in a benign liquid coating through gravity averaging.","prediction":"A rotating drying rack should reduce thickness gradients in a benign liquid coating through gravity averaging.","test":"Measure final film.","contrary_outcome":"Rotation creates circumferential bands.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":86,"query":"A rotating drying rack reduce thickness gradients in a benign liquid coating through gravity averaging. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure final film."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0839","id":"S4-0839","volume":"900v4","title":"A self-adjusting assembly nest should reject an incorrectly seated part through a distinct rocking mode.","prediction":"A self-adjusting assembly nest should reject an incorrectly seated part through a distinct rocking mode.","test":"Test seating errors.","contrary":"Correct parts show the same mode.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0839","hypothesis":"A self-adjusting assembly nest should reject an incorrectly seated part through a distinct rocking mode.","prediction":"A self-adjusting assembly nest should reject an incorrectly seated part through a distinct rocking mode.","test":"Test seating errors.","contrary_outcome":"Correct parts show the same mode.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0840","id":"S4-0840","volume":"900v4","title":"A compliant polishing-free contact probe should measure a fragile surface without exceeding a preset pressure.","prediction":"A compliant polishing-free contact probe should measure a fragile surface without exceeding a preset pressure.","test":"Measure contact force and area.","contrary":"Pressure exceeds the preset level.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0840","hypothesis":"A compliant polishing-free contact probe should measure a fragile surface without exceeding a preset pressure.","prediction":"A compliant polishing-free contact probe should measure a fragile surface without exceeding a preset pressure.","test":"Measure contact force and area.","contrary_outcome":"Pressure exceeds the preset level.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0841","id":"S4-0841","volume":"900v4","title":"A passive metering slot should compensate thermal expansion of a powder feed aperture.","prediction":"A passive metering slot should compensate thermal expansion of a powder feed aperture.","test":"Measure aperture and throughput.","contrary":"Compensation fails across temperature.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0841","hypothesis":"A passive metering slot should compensate thermal expansion of a powder feed aperture.","prediction":"A passive metering slot should compensate thermal expansion of a powder feed aperture.","test":"Measure aperture and throughput.","contrary_outcome":"Compensation fails across temperature.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0842","id":"S4-0842","volume":"900v4","title":"A flexible molding seam should vent gas through temporary opening and then reseal under liquid pressure.","prediction":"A flexible molding seam should vent gas through temporary opening and then reseal under liquid pressure.","test":"Measure timing and leakage.","contrary":"Seam remains open.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0842","hypothesis":"A flexible molding seam should vent gas through temporary opening and then reseal under liquid pressure.","prediction":"A flexible molding seam should vent gas through temporary opening and then reseal under liquid pressure.","test":"Measure timing and leakage.","contrary_outcome":"Seam remains open.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0843","id":"S4-0843","volume":"900v4","title":"A rotating part carrier should reduce collision damage by matching part velocity before capture.","prediction":"A rotating part carrier should reduce collision damage by matching part velocity before capture.","test":"Measure impact force.","contrary":"Velocity matching is too slow.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0843","hypothesis":"A rotating part carrier should reduce collision damage by matching part velocity before capture.","prediction":"A rotating part carrier should reduce collision damage by matching part velocity before capture.","test":"Measure impact force.","contrary_outcome":"Velocity matching is too slow.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0844","id":"S4-0844","volume":"900v4","title":"A geometric curing support should permit shrinkage along one axis while preserving angular alignment.","prediction":"A geometric curing support should permit shrinkage along one axis while preserving angular alignment.","test":"Measure final shape.","contrary":"Allowed motion introduces rotation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0844","hypothesis":"A geometric curing support should permit shrinkage along one axis while preserving angular alignment.","prediction":"A geometric curing support should permit shrinkage along one axis while preserving angular alignment.","test":"Measure final shape.","contrary_outcome":"Allowed motion introduces rotation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0845","id":"S4-0845","volume":"900v4","title":"A compliant wire guide should maintain bend radius during changing feed tension.","prediction":"A compliant wire guide should maintain bend radius during changing feed tension.","test":"Map wire curvature.","contrary":"Radius falls below the target.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0845","hypothesis":"A compliant wire guide should maintain bend radius during changing feed tension.","prediction":"A compliant wire guide should maintain bend radius during changing feed tension.","test":"Map wire curvature.","contrary_outcome":"Radius falls below the target.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0846","id":"S4-0846","volume":"900v4","title":"A passive sorting jig should distinguish a warped plate from a uniformly thick plate through contact sequence.","prediction":"A passive sorting jig should distinguish a warped plate from a uniformly thick plate through contact sequence.","test":"Test known artifacts.","contrary":"Sequences overlap.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0846","hypothesis":"A passive sorting jig should distinguish a warped plate from a uniformly thick plate through contact sequence.","prediction":"A passive sorting jig should distinguish a warped plate from a uniformly thick plate through contact sequence.","test":"Test known artifacts.","contrary_outcome":"Sequences overlap.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0847","id":"S4-0847","volume":"900v4","title":"A flexible deposition stencil should correct its gap locally under substrate waviness.","prediction":"A flexible deposition stencil should correct its gap locally under substrate waviness.","test":"Measure pattern fidelity.","contrary":"Local motion blurs the pattern.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0847","hypothesis":"A flexible deposition stencil should correct its gap locally under substrate waviness.","prediction":"A flexible deposition stencil should correct its gap locally under substrate waviness.","test":"Measure pattern fidelity.","contrary_outcome":"Local motion blurs the pattern.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0848","id":"S4-0848","volume":"900v4","title":"A rotating rinsing channel should remove residual liquid from blind cavities through centrifugal exchange.","prediction":"A rotating rinsing channel should remove residual liquid from blind cavities through centrifugal exchange.","test":"Weigh residuals.","contrary":"Gas locking prevents exchange.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0848","hypothesis":"A rotating rinsing channel should remove residual liquid from blind cavities through centrifugal exchange.","prediction":"A rotating rinsing channel should remove residual liquid from blind cavities through centrifugal exchange.","test":"Weigh residuals.","contrary_outcome":"Gas locking prevents exchange.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0849","id":"S4-0849","volume":"900v4","title":"A self-equalizing clamp should reduce dimensional error after unclamping a thin workpiece.","prediction":"A self-equalizing clamp should reduce dimensional error after unclamping a thin workpiece.","test":"Measure before/after geometry.","contrary":"Equal forces do not reduce springback.","layers":[1,2,3],"categories":["physical","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0849","hypothesis":"A self-equalizing clamp should reduce dimensional error after unclamping a thin workpiece.","prediction":"A self-equalizing clamp should reduce dimensional error after unclamping a thin workpiece.","test":"Measure before/after geometry.","contrary_outcome":"Equal forces do not reduce springback.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0849","hypothesis":"A self-equalizing clamp should reduce dimensional error after unclamping a thin workpiece.","prediction":"A self-equalizing clamp should reduce dimensional error after unclamping a thin workpiece.","test":"Measure before/after geometry.","contrary_outcome":"Equal forces do not reduce springback.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":8,"query":"A self-equalizing clamp reduce dimensional error after unclamping a thin workpiece. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure before/after geometry."},"dossier":{"id":"S4-0849","title":"Equalized clamping and post-release distortion","why_selected":"The intuitive claim may be false; a simple matched-fixture study can determine whether equal forces actually reduce springback for a declared geometry.","sources":[{"title":"The application of tool path compensation for the reduction of clampinginduced geometric errors","url":"https://doi.org/10.1080/002075497194165","access":"Author-institution abstract read","finding":"De Meter and Hockenberger discuss clamp-related displacement, measurement, modeling, and compensation. Their work establishes the practical problem, but does not prove that equal clamp forces minimize post-release distortion."}],"design":"Hold thin nonhazardous test plates in a three-jaw fixture with either a passive force-equalizing linkage or fixed independent jaws. Match total force and nominal contact positions. Measure geometry before clamping, under load, and after release using a calibrated surface scan. Use multiple independent plates and fixtures; vary one controlled thickness or curvature imperfection.","endpoints":"Primary: root-mean-square post-release shape error relative to the initial plate. Secondary: in-load deformation, force equality, residual strain, and contact marks. Proposed benefit must hold at equal total force and equal restraint against a standardized disturbance.","controls":"Equal-force active reference, deliberately unequal forces, matched contact-area pads, reversed plate orientation, and a purely elastic low-load condition. Separate elastic recovery from plastic indentation and residual-stress release.","conditional_analysis":"Equal forces do not generally minimize deformation. Even a simple beam has bending moments depending on force locations, so equal magnitudes at unequal lever arms can increase curvature. Linear elasticity gives u=K^-1*f under specified supports, but minimizing a shape-error norm requires geometry-dependent optimization of f. No general equal-force theorem supports the physical hypothesis. The experiment is needed to identify a useful restricted regime or reject it.","analysis_plan":"Compare paired geometry changes with force maps and uncertainty. Report null results as useful constraints. Reject the broad claim if equalization reduces force variation but fails to reduce post-release shape error; any narrower supported claim must state the plate/support geometry explicitly.","limitations":"Unproved and potentially false engineering hypothesis. Existing clamp-distortion literature is related background; no performance or novelty certified.","rank":8,"hypothesis":"A self-equalizing clamp should reduce dimensional error after unclamping a thin workpiece.","status":"speculative; no physical data or proof"},"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0850","id":"S4-0850","volume":"900v4","title":"A compliant assembly funnel should store lateral error elastically and release it before final seating.","prediction":"A compliant assembly funnel should store lateral error elastically and release it before final seating.","test":"Measure trajectory and force.","contrary":"Stored error persists into seating.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0850","hypothesis":"A compliant assembly funnel should store lateral error elastically and release it before final seating.","prediction":"A compliant assembly funnel should store lateral error elastically and release it before final seating.","test":"Measure trajectory and force.","contrary_outcome":"Stored error persists into seating.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0851","id":"S4-0851","volume":"900v4","title":"A passive coating thickness gauge should use a rolling meniscus rather than a sliding blade.","prediction":"A passive coating thickness gauge should use a rolling meniscus rather than a sliding blade.","test":"Compare gravimetric thickness.","contrary":"Meniscus hysteresis limits accuracy.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0851","hypothesis":"A passive coating thickness gauge should use a rolling meniscus rather than a sliding blade.","prediction":"A passive coating thickness gauge should use a rolling meniscus rather than a sliding blade.","test":"Compare gravimetric thickness.","contrary_outcome":"Meniscus hysteresis limits accuracy.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0852","id":"S4-0852","volume":"900v4","title":"A flexible powder bed boundary should reduce edge-density differences during vibration compaction.","prediction":"A flexible powder bed boundary should reduce edge-density differences during vibration compaction.","test":"Measure density maps.","contrary":"Edge effects remain unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0852","hypothesis":"A flexible powder bed boundary should reduce edge-density differences during vibration compaction.","prediction":"A flexible powder bed boundary should reduce edge-density differences during vibration compaction.","test":"Measure density maps.","contrary_outcome":"Edge effects remain unchanged.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0853","id":"S4-0853","volume":"900v4","title":"A rotating mold should suppress one-sided bubble accumulation during benign liquid casting.","prediction":"A rotating mold should suppress one-sided bubble accumulation during benign liquid casting.","test":"Image void distribution.","contrary":"Rotation traps a central gas core.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0853","hypothesis":"A rotating mold should suppress one-sided bubble accumulation during benign liquid casting.","prediction":"A rotating mold should suppress one-sided bubble accumulation during benign liquid casting.","test":"Image void distribution.","contrary_outcome":"Rotation traps a central gas core.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0853","hypothesis":"A rotating mold should suppress one-sided bubble accumulation during benign liquid casting.","prediction":"A rotating mold should suppress one-sided bubble accumulation during benign liquid casting.","test":"Image void distribution.","contrary_outcome":"Rotation traps a central gas core.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":87,"query":"A rotating mold suppress one-sided bubble accumulation during benign liquid casting. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Image void distribution."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0854","id":"S4-0854","volume":"900v4","title":"A geometric handling fixture should fail visibly before an attached delicate part experiences overload.","prediction":"A geometric handling fixture should fail visibly before an attached delicate part experiences overload.","test":"Measure force sequence.","contrary":"Part damage occurs first.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0854","hypothesis":"A geometric handling fixture should fail visibly before an attached delicate part experiences overload.","prediction":"A geometric handling fixture should fail visibly before an attached delicate part experiences overload.","test":"Measure force sequence.","contrary_outcome":"Part damage occurs first.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0855","id":"S4-0855","volume":"900v4","title":"A compliant centering pin should tolerate initial misalignment without scraping the mating bore.","prediction":"A compliant centering pin should tolerate initial misalignment without scraping the mating bore.","test":"Inspect contact and wear.","contrary":"Pin still scrapes the bore.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0855","hypothesis":"A compliant centering pin should tolerate initial misalignment without scraping the mating bore.","prediction":"A compliant centering pin should tolerate initial misalignment without scraping the mating bore.","test":"Inspect contact and wear.","contrary_outcome":"Pin still scrapes the bore.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0856","id":"S4-0856","volume":"900v4","title":"A passive drying support should maintain film flatness by releasing edge tension as mass falls.","prediction":"A passive drying support should maintain film flatness by releasing edge tension as mass falls.","test":"Measure curvature.","contrary":"Release promotes wrinkling.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0856","hypothesis":"A passive drying support should maintain film flatness by releasing edge tension as mass falls.","prediction":"A passive drying support should maintain film flatness by releasing edge tension as mass falls.","test":"Measure curvature.","contrary_outcome":"Release promotes wrinkling.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0857","id":"S4-0857","volume":"900v4","title":"A flexible applicator should detect a surface step through a remote force pulse before its coating edge reaches the step.","prediction":"A flexible applicator should detect a surface step through a remote force pulse before its coating edge reaches the step.","test":"Measure timing.","contrary":"Detection arrives too late.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0857","hypothesis":"A flexible applicator should detect a surface step through a remote force pulse before its coating edge reaches the step.","prediction":"A flexible applicator should detect a surface step through a remote force pulse before its coating edge reaches the step.","test":"Measure timing.","contrary_outcome":"Detection arrives too late.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0858","id":"S4-0858","volume":"900v4","title":"A rotating sampling cup should collect a representative powder sample across a segregated stream.","prediction":"A rotating sampling cup should collect a representative powder sample across a segregated stream.","test":"Compare composition with full capture.","contrary":"Sampling remains biased.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0858","hypothesis":"A rotating sampling cup should collect a representative powder sample across a segregated stream.","prediction":"A rotating sampling cup should collect a representative powder sample across a segregated stream.","test":"Compare composition with full capture.","contrary_outcome":"Sampling remains biased.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0859","id":"S4-0859","volume":"900v4","title":"A self-adjusting spacer array should equalize a narrow coating gap over a warped substrate.","prediction":"A self-adjusting spacer array should equalize a narrow coating gap over a warped substrate.","test":"Map gap.","contrary":"Spacer cross-talk creates new errors.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0859","hypothesis":"A self-adjusting spacer array should equalize a narrow coating gap over a warped substrate.","prediction":"A self-adjusting spacer array should equalize a narrow coating gap over a warped substrate.","test":"Map gap.","contrary_outcome":"Spacer cross-talk creates new errors.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0860","id":"S4-0860","volume":"900v4","title":"A compliant demolding tool should propagate one controlled peel front instead of multiple damaging fronts.","prediction":"A compliant demolding tool should propagate one controlled peel front instead of multiple damaging fronts.","test":"Image release and defects.","contrary":"Multiple fronts persist.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0860","hypothesis":"A compliant demolding tool should propagate one controlled peel front instead of multiple damaging fronts.","prediction":"A compliant demolding tool should propagate one controlled peel front instead of multiple damaging fronts.","test":"Image release and defects.","contrary_outcome":"Multiple fronts persist.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0861","id":"S4-0861","volume":"900v4","title":"A passive fixture should retain registration after one locator is contaminated by inert dust.","prediction":"A passive fixture should retain registration after one locator is contaminated by inert dust.","test":"Add calibrated dust.","contrary":"Registration shifts substantially.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0861","hypothesis":"A passive fixture should retain registration after one locator is contaminated by inert dust.","prediction":"A passive fixture should retain registration after one locator is contaminated by inert dust.","test":"Add calibrated dust.","contrary_outcome":"Registration shifts substantially.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0862","id":"S4-0862","volume":"900v4","title":"A flexible casting reservoir should feed shrinkage preferentially into the last-solidifying region.","prediction":"A flexible casting reservoir should feed shrinkage preferentially into the last-solidifying region.","test":"Track benign solidification analogue.","contrary":"Feed path closes too early.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0862","hypothesis":"A flexible casting reservoir should feed shrinkage preferentially into the last-solidifying region.","prediction":"A flexible casting reservoir should feed shrinkage preferentially into the last-solidifying region.","test":"Track benign solidification analogue.","contrary_outcome":"Feed path closes too early.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0863","id":"S4-0863","volume":"900v4","title":"A rotating alignment target should reveal spindle tilt separately from radial runout.","prediction":"A rotating alignment target should reveal spindle tilt separately from radial runout.","test":"Measure calibrated errors.","contrary":"Signals remain degenerate.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0863","hypothesis":"A rotating alignment target should reveal spindle tilt separately from radial runout.","prediction":"A rotating alignment target should reveal spindle tilt separately from radial runout.","test":"Measure calibrated errors.","contrary_outcome":"Signals remain degenerate.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0864","id":"S4-0864","volume":"900v4","title":"A geometric overflow path should indicate complete cavity filling without trapping a large excess volume.","prediction":"A geometric overflow path should indicate complete cavity filling without trapping a large excess volume.","test":"Measure fill state and waste.","contrary":"Indicator triggers before full filling.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0864","hypothesis":"A geometric overflow path should indicate complete cavity filling without trapping a large excess volume.","prediction":"A geometric overflow path should indicate complete cavity filling without trapping a large excess volume.","test":"Measure fill state and waste.","contrary_outcome":"Indicator triggers before full filling.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0865","id":"S4-0865","volume":"900v4","title":"A compliant edge guide should suppress thin-film folding during a sudden feed stop.","prediction":"A compliant edge guide should suppress thin-film folding during a sudden feed stop.","test":"Measure fold frequency.","contrary":"Guide recoil increases folding.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0865","hypothesis":"A compliant edge guide should suppress thin-film folding during a sudden feed stop.","prediction":"A compliant edge guide should suppress thin-film folding during a sudden feed stop.","test":"Measure fold frequency.","contrary_outcome":"Guide recoil increases folding.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0866","id":"S4-0866","volume":"900v4","title":"A passive part holder should maintain constant contact area during small thermal dimensional changes.","prediction":"A passive part holder should maintain constant contact area during small thermal dimensional changes.","test":"Image contact.","contrary":"Area varies strongly.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0866","hypothesis":"A passive part holder should maintain constant contact area during small thermal dimensional changes.","prediction":"A passive part holder should maintain constant contact area during small thermal dimensional changes.","test":"Image contact.","contrary_outcome":"Area varies strongly.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0867","id":"S4-0867","volume":"900v4","title":"A flexible stencil should release deposited features with less lateral drag through out-of-plane curling.","prediction":"A flexible stencil should release deposited features with less lateral drag through out-of-plane curling.","test":"Measure feature displacement.","contrary":"Curling increases distortion.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0867","hypothesis":"A flexible stencil should release deposited features with less lateral drag through out-of-plane curling.","prediction":"A flexible stencil should release deposited features with less lateral drag through out-of-plane curling.","test":"Measure feature displacement.","contrary_outcome":"Curling increases distortion.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0867","hypothesis":"A flexible stencil should release deposited features with less lateral drag through out-of-plane curling.","prediction":"A flexible stencil should release deposited features with less lateral drag through out-of-plane curling.","test":"Measure feature displacement.","contrary_outcome":"Curling increases distortion.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":88,"query":"A flexible stencil release deposited features with less lateral drag through out-of-plane curling. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure feature displacement."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0868","id":"S4-0868","volume":"900v4","title":"A rotating cleaning brush should retreat from sharp protrusions through local geometric compliance.","prediction":"A rotating cleaning brush should retreat from sharp protrusions through local geometric compliance.","test":"Measure substrate force.","contrary":"Retreat happens after the peak force.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0868","hypothesis":"A rotating cleaning brush should retreat from sharp protrusions through local geometric compliance.","prediction":"A rotating cleaning brush should retreat from sharp protrusions through local geometric compliance.","test":"Measure substrate force.","contrary_outcome":"Retreat happens after the peak force.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0869","id":"S4-0869","volume":"900v4","title":"A self-indexing assembly tray should expose a missing part through a mechanically unbalanced state.","prediction":"A self-indexing assembly tray should expose a missing part through a mechanically unbalanced state.","test":"Remove known parts.","contrary":"State is too sensitive to normal mass variation.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0869","hypothesis":"A self-indexing assembly tray should expose a missing part through a mechanically unbalanced state.","prediction":"A self-indexing assembly tray should expose a missing part through a mechanically unbalanced state.","test":"Remove known parts.","contrary_outcome":"State is too sensitive to normal mass variation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0870","id":"S4-0870","volume":"900v4","title":"A compliant feed roller should maintain traction while reducing indentation of soft stock.","prediction":"A compliant feed roller should maintain traction while reducing indentation of soft stock.","test":"Measure slip and dents.","contrary":"Traction requires equal indentation.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0870","hypothesis":"A compliant feed roller should maintain traction while reducing indentation of soft stock.","prediction":"A compliant feed roller should maintain traction while reducing indentation of soft stock.","test":"Measure slip and dents.","contrary_outcome":"Traction requires equal indentation.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0871","id":"S4-0871","volume":"900v4","title":"A passive thermal clamp should loosen during cooling only after a bonded analogue gains sufficient stiffness.","prediction":"A passive thermal clamp should loosen during cooling only after a bonded analogue gains sufficient stiffness.","test":"Measure force and modulus timing.","contrary":"Release occurs before stiffness develops.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0871","hypothesis":"A passive thermal clamp should loosen during cooling only after a bonded analogue gains sufficient stiffness.","prediction":"A passive thermal clamp should loosen during cooling only after a bonded analogue gains sufficient stiffness.","test":"Measure force and modulus timing.","contrary_outcome":"Release occurs before stiffness develops.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0872","id":"S4-0872","volume":"900v4","title":"A flexible transfer membrane should place small inert particles while retaining positional order.","prediction":"A flexible transfer membrane should place small inert particles while retaining positional order.","test":"Image before/after positions.","contrary":"Release scrambles ordering.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0872","hypothesis":"A flexible transfer membrane should place small inert particles while retaining positional order.","prediction":"A flexible transfer membrane should place small inert particles while retaining positional order.","test":"Image before/after positions.","contrary_outcome":"Release scrambles ordering.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0873","id":"S4-0873","volume":"900v4","title":"A rotating drying fixture should preserve a central hole by preventing liquid pooling at its rim.","prediction":"A rotating drying fixture should preserve a central hole by preventing liquid pooling at its rim.","test":"Measure final aperture.","contrary":"Rotation deposits more material at the rim.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0873","hypothesis":"A rotating drying fixture should preserve a central hole by preventing liquid pooling at its rim.","prediction":"A rotating drying fixture should preserve a central hole by preventing liquid pooling at its rim.","test":"Measure final aperture.","contrary_outcome":"Rotation deposits more material at the rim.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0874","id":"S4-0874","volume":"900v4","title":"A geometric insertion aid should reveal partial engagement through a separate visible displacement.","prediction":"A geometric insertion aid should reveal partial engagement through a separate visible displacement.","test":"Compare indicator and depth.","contrary":"Indicator falsely signals full engagement.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0874","hypothesis":"A geometric insertion aid should reveal partial engagement through a separate visible displacement.","prediction":"A geometric insertion aid should reveal partial engagement through a separate visible displacement.","test":"Compare indicator and depth.","contrary_outcome":"Indicator falsely signals full engagement.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0875","id":"S4-0875","volume":"900v4","title":"A compliant mold wall should reduce seam flash by increasing contact pressure during filling.","prediction":"A compliant mold wall should reduce seam flash by increasing contact pressure during filling.","test":"Measure flash and wall motion.","contrary":"Motion opens the seam.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0875","hypothesis":"A compliant mold wall should reduce seam flash by increasing contact pressure during filling.","prediction":"A compliant mold wall should reduce seam flash by increasing contact pressure during filling.","test":"Measure flash and wall motion.","contrary_outcome":"Motion opens the seam.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0876","id":"S4-0876","volume":"900v4","title":"A passive web accumulator should absorb a short feed mismatch without changing downstream tension substantially.","prediction":"A passive web accumulator should absorb a short feed mismatch without changing downstream tension substantially.","test":"Measure tension transients.","contrary":"Mismatch passes through.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0876","hypothesis":"A passive web accumulator should absorb a short feed mismatch without changing downstream tension substantially.","prediction":"A passive web accumulator should absorb a short feed mismatch without changing downstream tension substantially.","test":"Measure tension transients.","contrary_outcome":"Mismatch passes through.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0877","id":"S4-0877","volume":"900v4","title":"A flexible surface replica should preserve shallow grooves during removal through sequential stretching.","prediction":"A flexible surface replica should preserve shallow grooves during removal through sequential stretching.","test":"Compare replica geometry.","contrary":"Stretching distorts groove spacing.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0877","hypothesis":"A flexible surface replica should preserve shallow grooves during removal through sequential stretching.","prediction":"A flexible surface replica should preserve shallow grooves during removal through sequential stretching.","test":"Compare replica geometry.","contrary_outcome":"Stretching distorts groove spacing.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0878","id":"S4-0878","volume":"900v4","title":"A rotating powder distributor should compensate hopper depletion through a moving gravity reference.","prediction":"A rotating powder distributor should compensate hopper depletion through a moving gravity reference.","test":"Measure delivered mass.","contrary":"Dose still falls with fill level.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0878","hypothesis":"A rotating powder distributor should compensate hopper depletion through a moving gravity reference.","prediction":"A rotating powder distributor should compensate hopper depletion through a moving gravity reference.","test":"Measure delivered mass.","contrary_outcome":"Dose still falls with fill level.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0878","hypothesis":"A rotating powder distributor should compensate hopper depletion through a moving gravity reference.","prediction":"A rotating powder distributor should compensate hopper depletion through a moving gravity reference.","test":"Measure delivered mass.","contrary_outcome":"Dose still falls with fill level.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":89,"query":"A rotating powder distributor compensate hopper depletion through a moving gravity reference. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Measure delivered mass."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0879","id":"S4-0879","volume":"900v4","title":"A self-centering optical fixture should retain focus after exchanging samples of slightly different thickness.","prediction":"A self-centering optical fixture should retain focus after exchanging samples of slightly different thickness.","test":"Measure focus and position.","contrary":"Thickness changes remain uncompensated.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0879","hypothesis":"A self-centering optical fixture should retain focus after exchanging samples of slightly different thickness.","prediction":"A self-centering optical fixture should retain focus after exchanging samples of slightly different thickness.","test":"Measure focus and position.","contrary_outcome":"Thickness changes remain uncompensated.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0880","id":"S4-0880","volume":"900v4","title":"A compliant pressing platen should expose uneven load through a measurable tilt before damaging pressure develops.","prediction":"A compliant pressing platen should expose uneven load through a measurable tilt before damaging pressure develops.","test":"Measure tilt and local pressure.","contrary":"Warning comes after overload.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0880","hypothesis":"A compliant pressing platen should expose uneven load through a measurable tilt before damaging pressure develops.","prediction":"A compliant pressing platen should expose uneven load through a measurable tilt before damaging pressure develops.","test":"Measure tilt and local pressure.","contrary_outcome":"Warning comes after overload.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0881","id":"S4-0881","volume":"900v4","title":"A passive filling manifold should close completed branches while continuing to fill empty cavities.","prediction":"A passive filling manifold should close completed branches while continuing to fill empty cavities.","test":"Measure cavity volumes.","contrary":"Early closure starves some cavities.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0881","hypothesis":"A passive filling manifold should close completed branches while continuing to fill empty cavities.","prediction":"A passive filling manifold should close completed branches while continuing to fill empty cavities.","test":"Measure cavity volumes.","contrary_outcome":"Early closure starves some cavities.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0882","id":"S4-0882","volume":"900v4","title":"A flexible handling sleeve should prevent rolling parts from colliding during vibration transport.","prediction":"A flexible handling sleeve should prevent rolling parts from colliding during vibration transport.","test":"Track collisions.","contrary":"Sleeve couples parts into collective impacts.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0882","hypothesis":"A flexible handling sleeve should prevent rolling parts from colliding during vibration transport.","prediction":"A flexible handling sleeve should prevent rolling parts from colliding during vibration transport.","test":"Track collisions.","contrary_outcome":"Sleeve couples parts into collective impacts.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0883","id":"S4-0883","volume":"900v4","title":"A rotating coating drain should remove excess liquid without creating a thick terminal bead.","prediction":"A rotating coating drain should remove excess liquid without creating a thick terminal bead.","test":"Measure profile.","contrary":"A bead forms at a different location.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0883","hypothesis":"A rotating coating drain should remove excess liquid without creating a thick terminal bead.","prediction":"A rotating coating drain should remove excess liquid without creating a thick terminal bead.","test":"Measure profile.","contrary_outcome":"A bead forms at a different location.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0884","id":"S4-0884","volume":"900v4","title":"A geometric assembly spring should encode correct engagement through a unique force-displacement curve.","prediction":"A geometric assembly spring should encode correct engagement through a unique force-displacement curve.","test":"Compare assembly states.","contrary":"Incorrect states produce similar curves.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0884","hypothesis":"A geometric assembly spring should encode correct engagement through a unique force-displacement curve.","prediction":"A geometric assembly spring should encode correct engagement through a unique force-displacement curve.","test":"Compare assembly states.","contrary_outcome":"Incorrect states produce similar curves.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0885","id":"S4-0885","volume":"900v4","title":"A compliant support should reduce gravity sag during curing by shifting contact points as stiffness increases.","prediction":"A compliant support should reduce gravity sag during curing by shifting contact points as stiffness increases.","test":"Measure final curvature.","contrary":"Shifting leaves permanent contact marks.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0885","hypothesis":"A compliant support should reduce gravity sag during curing by shifting contact points as stiffness increases.","prediction":"A compliant support should reduce gravity sag during curing by shifting contact points as stiffness increases.","test":"Measure final curvature.","contrary_outcome":"Shifting leaves permanent contact marks.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0886","id":"S4-0886","volume":"900v4","title":"A passive inspection jig should distinguish a tilted cylinder from an eccentric cylinder through two separated rolling contacts.","prediction":"A passive inspection jig should distinguish a tilted cylinder from an eccentric cylinder through two separated rolling contacts.","test":"Test calibrated artifacts.","contrary":"Outputs remain ambiguous.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0886","hypothesis":"A passive inspection jig should distinguish a tilted cylinder from an eccentric cylinder through two separated rolling contacts.","prediction":"A passive inspection jig should distinguish a tilted cylinder from an eccentric cylinder through two separated rolling contacts.","test":"Test calibrated artifacts.","contrary_outcome":"Outputs remain ambiguous.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0887","id":"S4-0887","volume":"900v4","title":"A flexible demolding core should return to its original dimensions after repeated collapse cycles.","prediction":"A flexible demolding core should return to its original dimensions after repeated collapse cycles.","test":"Measure geometry.","contrary":"Residual deformation accumulates.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0887","hypothesis":"A flexible demolding core should return to its original dimensions after repeated collapse cycles.","prediction":"A flexible demolding core should return to its original dimensions after repeated collapse cycles.","test":"Measure geometry.","contrary_outcome":"Residual deformation accumulates.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0888","id":"S4-0888","volume":"900v4","title":"A rotating rinsing fixture should reduce water use by repeatedly reorienting trapped liquid pockets.","prediction":"A rotating rinsing fixture should reduce water use by repeatedly reorienting trapped liquid pockets.","test":"Measure cleaning versus volume.","contrary":"Reorientation adds no benefit.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0888","hypothesis":"A rotating rinsing fixture should reduce water use by repeatedly reorienting trapped liquid pockets.","prediction":"A rotating rinsing fixture should reduce water use by repeatedly reorienting trapped liquid pockets.","test":"Measure cleaning versus volume.","contrary_outcome":"Reorientation adds no benefit.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0889","id":"S4-0889","volume":"900v4","title":"A self-adjusting film spacer should preserve coating thickness despite moderate operator-free force variation.","prediction":"A self-adjusting film spacer should preserve coating thickness despite moderate operator-free force variation.","test":"Measure film under controlled loads.","contrary":"Thickness remains force-dependent.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0889","hypothesis":"A self-adjusting film spacer should preserve coating thickness despite moderate operator-free force variation.","prediction":"A self-adjusting film spacer should preserve coating thickness despite moderate operator-free force variation.","test":"Measure film under controlled loads.","contrary_outcome":"Thickness remains force-dependent.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0890","id":"S4-0890","volume":"900v4","title":"A compliant powder scraper should reduce particle fracture by limiting local contact force.","prediction":"A compliant powder scraper should reduce particle fracture by limiting local contact force.","test":"Measure fragment distribution.","contrary":"Force limiting destroys layer uniformity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0890","hypothesis":"A compliant powder scraper should reduce particle fracture by limiting local contact force.","prediction":"A compliant powder scraper should reduce particle fracture by limiting local contact force.","test":"Measure fragment distribution.","contrary_outcome":"Force limiting destroys layer uniformity.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0891","id":"S4-0891","volume":"900v4","title":"A passive assembly latch should reject debris-induced false seating through a second independent contact condition.","prediction":"A passive assembly latch should reject debris-induced false seating through a second independent contact condition.","test":"Add inert debris.","contrary":"Debris satisfies both conditions.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0891","hypothesis":"A passive assembly latch should reject debris-induced false seating through a second independent contact condition.","prediction":"A passive assembly latch should reject debris-induced false seating through a second independent contact condition.","test":"Add inert debris.","contrary_outcome":"Debris satisfies both conditions.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":{"id":"S4-0891","hypothesis":"A passive assembly latch should reject debris-induced false seating through a second independent contact condition.","prediction":"A passive assembly latch should reject debris-induced false seating through a second independent contact condition.","test":"Add inert debris.","contrary_outcome":"Debris satisfies both conditions.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion","rank":90,"query":"A passive assembly latch reject debris-induced false seating through a second independent contact condition. experimental mechanism","selection_basis":"Subjective editorial shortlist for explicit perturbation, observable endpoint, accessible controls and mechanism diversity. No empirical probability score.","selection_endpoint":"Add inert debris."},"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0892","id":"S4-0892","volume":"900v4","title":"A flexible curing mask should preserve edge sharpness during substrate shrinkage by moving with the substrate.","prediction":"A flexible curing mask should preserve edge sharpness during substrate shrinkage by moving with the substrate.","test":"Measure boundaries.","contrary":"Mask lag blurs the edge.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0892","hypothesis":"A flexible curing mask should preserve edge sharpness during substrate shrinkage by moving with the substrate.","prediction":"A flexible curing mask should preserve edge sharpness during substrate shrinkage by moving with the substrate.","test":"Measure boundaries.","contrary_outcome":"Mask lag blurs the edge.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0893","id":"S4-0893","volume":"900v4","title":"A rotating feed guide should reduce twist accumulation in a continuously supplied ribbon.","prediction":"A rotating feed guide should reduce twist accumulation in a continuously supplied ribbon.","test":"Measure twist per length.","contrary":"Guide adds twist.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0893","hypothesis":"A rotating feed guide should reduce twist accumulation in a continuously supplied ribbon.","prediction":"A rotating feed guide should reduce twist accumulation in a continuously supplied ribbon.","test":"Measure twist per length.","contrary_outcome":"Guide adds twist.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0894","id":"S4-0894","volume":"900v4","title":"A geometric vacuum fixture should localize leakage from one uncovered port.","prediction":"A geometric vacuum fixture should localize leakage from one uncovered port.","test":"Uncover controlled ports.","contrary":"Leakage releases all held parts.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0894","hypothesis":"A geometric vacuum fixture should localize leakage from one uncovered port.","prediction":"A geometric vacuum fixture should localize leakage from one uncovered port.","test":"Uncover controlled ports.","contrary_outcome":"Leakage releases all held parts.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0895","id":"S4-0895","volume":"900v4","title":"A compliant part nest should reduce remounting error by averaging several weak contacts.","prediction":"A compliant part nest should reduce remounting error by averaging several weak contacts.","test":"Measure repeated placement.","contrary":"Weak contacts increase variability.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0895","hypothesis":"A compliant part nest should reduce remounting error by averaging several weak contacts.","prediction":"A compliant part nest should reduce remounting error by averaging several weak contacts.","test":"Measure repeated placement.","contrary_outcome":"Weak contacts increase variability.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0896","id":"S4-0896","volume":"900v4","title":"A passive drying indicator should track remaining solvent-free water mass through support deflection.","prediction":"A passive drying indicator should track remaining solvent-free water mass through support deflection.","test":"Compare with gravimetry.","contrary":"Deflection is dominated by stiffness changes.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0896","hypothesis":"A passive drying indicator should track remaining solvent-free water mass through support deflection.","prediction":"A passive drying indicator should track remaining solvent-free water mass through support deflection.","test":"Compare with gravimetry.","contrary_outcome":"Deflection is dominated by stiffness changes.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0897","id":"S4-0897","volume":"900v4","title":"A flexible casting gate should close when shrinkage reverses local flow, preventing backflow.","prediction":"A flexible casting gate should close when shrinkage reverses local flow, preventing backflow.","test":"Image flow reversal.","contrary":"Gate closes too late.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0897","hypothesis":"A flexible casting gate should close when shrinkage reverses local flow, preventing backflow.","prediction":"A flexible casting gate should close when shrinkage reverses local flow, preventing backflow.","test":"Image flow reversal.","contrary_outcome":"Gate closes too late.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0898","id":"S4-0898","volume":"900v4","title":"A rotating inspection mirror should reveal internal cavity defects through multiple viewing directions from one camera.","prediction":"A rotating inspection mirror should reveal internal cavity defects through multiple viewing directions from one camera.","test":"Test known defects.","contrary":"Occlusions remain unresolved.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0898","hypothesis":"A rotating inspection mirror should reveal internal cavity defects through multiple viewing directions from one camera.","prediction":"A rotating inspection mirror should reveal internal cavity defects through multiple viewing directions from one camera.","test":"Test known defects.","contrary_outcome":"Occlusions remain unresolved.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0899","id":"S4-0899","volume":"900v4","title":"A self-equalizing alignment frame should preserve parallelism after one mounting screw settles.","prediction":"A self-equalizing alignment frame should preserve parallelism after one mounting screw settles.","test":"Measure angle.","contrary":"Settlement changes parallelism substantially.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0899","hypothesis":"A self-equalizing alignment frame should preserve parallelism after one mounting screw settles.","prediction":"A self-equalizing alignment frame should preserve parallelism after one mounting screw settles.","test":"Measure angle.","contrary_outcome":"Settlement changes parallelism substantially.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v4--S4-0900","id":"S4-0900","volume":"900v4","title":"A compliant assembly protector should detach after correct seating while remaining attached during handling.","prediction":"A compliant assembly protector should detach after correct seating while remaining attached during handling.","test":"Measure release thresholds.","contrary":"Handling causes premature release.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v4/Hypotheses.json","original":{"id":"S4-0900","hypothesis":"A compliant assembly protector should detach after correct seating while remaining attached during handling.","prediction":"A compliant assembly protector should detach after correct seating while remaining attached during handling.","test":"Measure release thresholds.","contrary_outcome":"Handling causes premature release.","status":"speculative; unproved physical hypothesis","novelty":"unverified; no global novelty claim","composition":"individually drafted, no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v4/Selected90.json","dossier_source":"sources/9v4/Selected9.json"},{"uid":"900v5--S5-0001","id":"S5-0001","volume":"900v5","title":"A reconstituted enzyme cascade should recover faster after oxygen starvation when its intermediate is reversibly stored in a separate liquid phase.","prediction":"A reconstituted enzyme cascade should recover faster after oxygen starvation when its intermediate is reversibly stored in a separate liquid phase.","test":"Measure intermediate partitioning and restart kinetics.","contrary":"Restart matches a homogeneous control with equal intermediate inventory.","layers":[1,2,3],"categories":["biology","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0001","prediction":"A reconstituted enzyme cascade should recover faster after oxygen starvation when its intermediate is reversibly stored in a separate liquid phase.","feasible_test":"Measure intermediate partitioning and restart kinetics.","contrary_outcome":"Restart matches a homogeneous control with equal intermediate inventory.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0001","prediction":"A reconstituted enzyme cascade should recover faster after oxygen starvation when its intermediate is reversibly stored in a separate liquid phase.","feasible_test":"Measure intermediate partitioning and restart kinetics.","contrary_outcome":"Restart matches a homogeneous control with equal intermediate inventory.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Intermediate partitioning and restart latency can be measured independently.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":{"id":"S5-0001","prediction":"A reconstituted enzyme cascade should recover faster after oxygen starvation when its intermediate is reversibly stored in a separate liquid phase.","feasible_test":"Measure intermediate partitioning and restart kinetics.","contrary_outcome":"Restart matches a homogeneous control with equal intermediate inventory.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Intermediate partitioning and restart latency can be measured independently.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability","dossier":"S5-0001_dossier.md","final_selection_rationale":"Chosen for a clear intervention, independent mechanism measurement and explicit competing explanation; prior-art overlap and theoretical-only support are retained rather than hidden."},"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0002","id":"S5-0002","volume":"900v5","title":"A single synthetic vesicle should retain an internal salt gradient after division when a preexisting gel partitions asymmetrically.","prediction":"A single synthetic vesicle should retain an internal salt gradient after division when a preexisting gel partitions asymmetrically.","test":"Measure daughter ion profiles and gel mass.","contrary":"Daughter gradients follow volume division alone.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0002","prediction":"A single synthetic vesicle should retain an internal salt gradient after division when a preexisting gel partitions asymmetrically.","feasible_test":"Measure daughter ion profiles and gel mass.","contrary_outcome":"Daughter gradients follow volume division alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0002","prediction":"A single synthetic vesicle should retain an internal salt gradient after division when a preexisting gel partitions asymmetrically.","feasible_test":"Measure daughter ion profiles and gel mass.","contrary_outcome":"Daughter gradients follow volume division alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Daughter salt and gel distributions give paired observables.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0003","id":"S5-0003","volume":"900v5","title":"A membrane-coated colloid should creep across an adhesive patch through repeated bond exchange without net external force.","prediction":"A membrane-coated colloid should creep across an adhesive patch through repeated bond exchange without net external force.","test":"Track motion with reversible-binding and temperature controls.","contrary":"Motion remains within unbiased diffusion.","layers":[1,2],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0003","prediction":"A membrane-coated colloid should creep across an adhesive patch through repeated bond exchange without net external force.","feasible_test":"Track motion with reversible-binding and temperature controls.","contrary_outcome":"Motion remains within unbiased diffusion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0003","prediction":"A membrane-coated colloid should creep across an adhesive patch through repeated bond exchange without net external force.","feasible_test":"Track motion with reversible-binding and temperature controls.","contrary_outcome":"Motion remains within unbiased diffusion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Bond exchange offers a reversible intervention on surface motion.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0004","id":"S5-0004","volume":"900v5","title":"A cell-free contractile ring should form a rotating gap when crosslink renewal is slower than motor-generated compression.","prediction":"A cell-free contractile ring should form a rotating gap when crosslink renewal is slower than motor-generated compression.","test":"Image ring density, gap motion and crosslink turnover.","contrary":"Gaps remain stationary or turnover-independent.","layers":[1,2],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0004","prediction":"A cell-free contractile ring should form a rotating gap when crosslink renewal is slower than motor-generated compression.","feasible_test":"Image ring density, gap motion and crosslink turnover.","contrary_outcome":"Gaps remain stationary or turnover-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0004","prediction":"A cell-free contractile ring should form a rotating gap when crosslink renewal is slower than motor-generated compression.","feasible_test":"Image ring density, gap motion and crosslink turnover.","contrary_outcome":"Gaps remain stationary or turnover-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Gap rotation can be compared with measured renewal kinetics.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0005","id":"S5-0005","volume":"900v5","title":"An enzyme tether should act as a mechanical fuse by unfolding before its support bond breaks.","prediction":"An enzyme tether should act as a mechanical fuse by unfolding before its support bond breaks.","test":"Measure force and catalytic activity during loading.","contrary":"Support rupture consistently precedes unfolding.","layers":[1,2,3],"categories":["physical","biology","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0005","prediction":"An enzyme tether should act as a mechanical fuse by unfolding before its support bond breaks.","feasible_test":"Measure force and catalytic activity during loading.","contrary_outcome":"Support rupture consistently precedes unfolding.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0005","prediction":"An enzyme tether should act as a mechanical fuse by unfolding before its support bond breaks.","feasible_test":"Measure force and catalytic activity during loading.","contrary_outcome":"Support rupture consistently precedes unfolding.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Force spectroscopy directly orders unfolding and anchor rupture.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":{"id":"S5-0005","prediction":"An enzyme tether should act as a mechanical fuse by unfolding before its support bond breaks.","feasible_test":"Measure force and catalytic activity during loading.","contrary_outcome":"Support rupture consistently precedes unfolding.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Force spectroscopy directly orders unfolding and anchor rupture.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability","dossier":"S5-0005_dossier.md","final_selection_rationale":"Chosen for a clear intervention, independent mechanism measurement and explicit competing explanation; prior-art overlap and theoretical-only support are retained rather than hidden."},"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0006","id":"S5-0006","volume":"900v5","title":"A porous synthetic organelle should preserve reaction selectivity during dilution by retaining a bound cofactor.","prediction":"A porous synthetic organelle should preserve reaction selectivity during dilution by retaining a bound cofactor.","test":"Measure cofactor occupancy and product ratios.","contrary":"Selectivity is unchanged in a cofactor-nonbinding control.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0006","prediction":"A porous synthetic organelle should preserve reaction selectivity during dilution by retaining a bound cofactor.","feasible_test":"Measure cofactor occupancy and product ratios.","contrary_outcome":"Selectivity is unchanged in a cofactor-nonbinding control.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0006","prediction":"A porous synthetic organelle should preserve reaction selectivity during dilution by retaining a bound cofactor.","feasible_test":"Measure cofactor occupancy and product ratios.","contrary_outcome":"Selectivity is unchanged in a cofactor-nonbinding control.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Cofactor occupancy challenges dilution-protection alternatives.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0007","id":"S5-0007","volume":"900v5","title":"A DNA-based spring should exhibit unequal thermal expansion along compressed and extended branches of its force curve.","prediction":"A DNA-based spring should exhibit unequal thermal expansion along compressed and extended branches of its force curve.","test":"Measure length versus temperature at fixed forces.","contrary":"Thermal response is branch-independent.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0007","prediction":"A DNA-based spring should exhibit unequal thermal expansion along compressed and extended branches of its force curve.","feasible_test":"Measure length versus temperature at fixed forces.","contrary_outcome":"Thermal response is branch-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0007","prediction":"A DNA-based spring should exhibit unequal thermal expansion along compressed and extended branches of its force curve.","feasible_test":"Measure length versus temperature at fixed forces.","contrary_outcome":"Thermal response is branch-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Force branches permit a specific thermomechanical comparison.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0008","id":"S5-0008","volume":"900v5","title":"A membrane invagination should capture a solute pulse preferentially when its closing time matches the pulse duration.","prediction":"A membrane invagination should capture a solute pulse preferentially when its closing time matches the pulse duration.","test":"Measure trapped cargo versus closure timing.","contrary":"Capture follows final enclosed volume alone.","layers":[1,2],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0008","prediction":"A membrane invagination should capture a solute pulse preferentially when its closing time matches the pulse duration.","feasible_test":"Measure trapped cargo versus closure timing.","contrary_outcome":"Capture follows final enclosed volume alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0008","prediction":"A membrane invagination should capture a solute pulse preferentially when its closing time matches the pulse duration.","feasible_test":"Measure trapped cargo versus closure timing.","contrary_outcome":"Capture follows final enclosed volume alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Closure timing provides a controlled cargo-capture window.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0009","id":"S5-0009","volume":"900v5","title":"A molecularly crowded compartment should develop an internal temperature gradient under uniform external heating because heat-producing enzymes partition unevenly.","prediction":"A molecularly crowded compartment should develop an internal temperature gradient under uniform external heating because heat-producing enzymes partition unevenly.","test":"Map local temperature and enzyme density.","contrary":"Temperature remains uniform within calibrated resolution.","layers":[1,2],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0009","prediction":"A molecularly crowded compartment should develop an internal temperature gradient under uniform external heating because heat-producing enzymes partition unevenly.","feasible_test":"Map local temperature and enzyme density.","contrary_outcome":"Temperature remains uniform within calibrated resolution.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0009","prediction":"A molecularly crowded compartment should develop an internal temperature gradient under uniform external heating because heat-producing enzymes partition unevenly.","feasible_test":"Map local temperature and enzyme density.","contrary_outcome":"Temperature remains uniform within calibrated resolution.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Temperature mapping supplies a demanding negative test.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0010","id":"S5-0010","volume":"900v5","title":"A cell-free filament rotor should lock to an external oscillation through temporary contact with a soft boundary.","prediction":"A cell-free filament rotor should lock to an external oscillation through temporary contact with a soft boundary.","test":"Measure phase and contact timing.","contrary":"Locking persists when boundary contact is prevented equally.","layers":[1,2],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0010","prediction":"A cell-free filament rotor should lock to an external oscillation through temporary contact with a soft boundary.","feasible_test":"Measure phase and contact timing.","contrary_outcome":"Locking persists when boundary contact is prevented equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0010","prediction":"A cell-free filament rotor should lock to an external oscillation through temporary contact with a soft boundary.","feasible_test":"Measure phase and contact timing.","contrary_outcome":"Locking persists when boundary contact is prevented equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Boundary contact can be removed without changing forcing.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0011","id":"S5-0011","volume":"900v5","title":"A protein condensate should age unevenly when its surface adsorbs a monomer that arrests internal exchange.","prediction":"A protein condensate should age unevenly when its surface adsorbs a monomer that arrests internal exchange.","test":"Measure exchange profiles and adsorbate density.","contrary":"Aging remains spatially uniform.","layers":[1,2,3],"categories":["biology","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0011","prediction":"A protein condensate should age unevenly when its surface adsorbs a monomer that arrests internal exchange.","feasible_test":"Measure exchange profiles and adsorbate density.","contrary_outcome":"Aging remains spatially uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0011","prediction":"A protein condensate should age unevenly when its surface adsorbs a monomer that arrests internal exchange.","feasible_test":"Measure exchange profiles and adsorbate density.","contrary_outcome":"Aging remains spatially uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Spatial exchange profiles test nonuniform condensate aging.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":{"id":"S5-0011","prediction":"A protein condensate should age unevenly when its surface adsorbs a monomer that arrests internal exchange.","feasible_test":"Measure exchange profiles and adsorbate density.","contrary_outcome":"Aging remains spatially uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Spatial exchange profiles test nonuniform condensate aging.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability","dossier":"S5-0011_dossier.md","final_selection_rationale":"Chosen for a clear intervention, independent mechanism measurement and explicit competing explanation; prior-art overlap and theoretical-only support are retained rather than hidden."},"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0012","id":"S5-0012","volume":"900v5","title":"A supported bilayer should relieve excess area by opening a traveling fold that follows a line of weak adhesion.","prediction":"A supported bilayer should relieve excess area by opening a traveling fold that follows a line of weak adhesion.","test":"Track area, folds and adhesion map.","contrary":"Folds cross weak and strong regions indiscriminately.","layers":[1,2,3],"categories":[],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0012","prediction":"A supported bilayer should relieve excess area by opening a traveling fold that follows a line of weak adhesion.","feasible_test":"Track area, folds and adhesion map.","contrary_outcome":"Folds cross weak and strong regions indiscriminately.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0012","prediction":"A supported bilayer should relieve excess area by opening a traveling fold that follows a line of weak adhesion.","feasible_test":"Track area, folds and adhesion map.","contrary_outcome":"Folds cross weak and strong regions indiscriminately.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Patterned adhesion challenges a traveling-fold route.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":{"id":"S5-0012","prediction":"A supported bilayer should relieve excess area by opening a traveling fold that follows a line of weak adhesion.","feasible_test":"Track area, folds and adhesion map.","contrary_outcome":"Folds cross weak and strong regions indiscriminately.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Patterned adhesion challenges a traveling-fold route.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability","dossier":"S5-0012_dossier.md","final_selection_rationale":"Chosen for a clear intervention, independent mechanism measurement and explicit competing explanation; prior-art overlap and theoretical-only support are retained rather than hidden."},"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0013","id":"S5-0013","volume":"900v5","title":"An artificial pore should become more selective after partial obstruction because flexible cargo aligns in the remaining aperture.","prediction":"An artificial pore should become more selective after partial obstruction because flexible cargo aligns in the remaining aperture.","test":"Measure cargo orientation and translocation.","contrary":"Selectivity follows residual area without alignment.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0013","prediction":"An artificial pore should become more selective after partial obstruction because flexible cargo aligns in the remaining aperture.","feasible_test":"Measure cargo orientation and translocation.","contrary_outcome":"Selectivity follows residual area without alignment.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0013","prediction":"An artificial pore should become more selective after partial obstruction because flexible cargo aligns in the remaining aperture.","feasible_test":"Measure cargo orientation and translocation.","contrary_outcome":"Selectivity follows residual area without alignment.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Cargo alignment can be imaged during translocation.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0014","id":"S5-0014","volume":"900v5","title":"A molecular assembly should detect oscillatory strain through accumulation of exchange defects even when its final shape recovers.","prediction":"A molecular assembly should detect oscillatory strain through accumulation of exchange defects even when its final shape recovers.","test":"Measure defect count after controlled strain cycles.","contrary":"Defects match static-load controls of equal duration.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0014","prediction":"A molecular assembly should detect oscillatory strain through accumulation of exchange defects even when its final shape recovers.","feasible_test":"Measure defect count after controlled strain cycles.","contrary_outcome":"Defects match static-load controls of equal duration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0014","prediction":"A molecular assembly should detect oscillatory strain through accumulation of exchange defects even when its final shape recovers.","feasible_test":"Measure defect count after controlled strain cycles.","contrary_outcome":"Defects match static-load controls of equal duration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Persistent defects can be read after shape recovery.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0015","id":"S5-0015","volume":"900v5","title":"A vesicle containing an internal foam should resist puncture through redistribution of bubble pressure.","prediction":"A vesicle containing an internal foam should resist puncture through redistribution of bubble pressure.","test":"Measure bubble pressure and puncture energy.","contrary":"Foam gives no benefit after mass and viscosity matching.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0015","prediction":"A vesicle containing an internal foam should resist puncture through redistribution of bubble pressure.","feasible_test":"Measure bubble pressure and puncture energy.","contrary_outcome":"Foam gives no benefit after mass and viscosity matching.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0015","prediction":"A vesicle containing an internal foam should resist puncture through redistribution of bubble pressure.","feasible_test":"Measure bubble pressure and puncture energy.","contrary_outcome":"Foam gives no benefit after mass and viscosity matching.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Bubble pressure distinguishes foam cushioning from viscosity.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0016","id":"S5-0016","volume":"900v5","title":"An enzyme gel should generate a moving mechanical pulse when product converts a temporary crosslink into a permanent one.","prediction":"An enzyme gel should generate a moving mechanical pulse when product converts a temporary crosslink into a permanent one.","test":"Image reaction and strain fronts.","contrary":"Strain remains localized to the initial trigger.","layers":[1,2],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0016","prediction":"An enzyme gel should generate a moving mechanical pulse when product converts a temporary crosslink into a permanent one.","feasible_test":"Image reaction and strain fronts.","contrary_outcome":"Strain remains localized to the initial trigger.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0016","prediction":"An enzyme gel should generate a moving mechanical pulse when product converts a temporary crosslink into a permanent one.","feasible_test":"Image reaction and strain fronts.","contrary_outcome":"Strain remains localized to the initial trigger.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Reaction and strain fronts provide a causal timing test.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0017","id":"S5-0017","volume":"900v5","title":"A DNA-coated surface should organize a droplet's contact line through sequence-specific bridges without changing bulk surface tension.","prediction":"A DNA-coated surface should organize a droplet's contact line through sequence-specific bridges without changing bulk surface tension.","test":"Measure contact shape and molecular binding.","contrary":"Shape is fully explained by nonspecific adsorption.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0017","prediction":"A DNA-coated surface should organize a droplet's contact line through sequence-specific bridges without changing bulk surface tension.","feasible_test":"Measure contact shape and molecular binding.","contrary_outcome":"Shape is fully explained by nonspecific adsorption.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0017","prediction":"A DNA-coated surface should organize a droplet's contact line through sequence-specific bridges without changing bulk surface tension.","feasible_test":"Measure contact shape and molecular binding.","contrary_outcome":"Shape is fully explained by nonspecific adsorption.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Sequence-specific binding offers a chemistry-matched control.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0018","id":"S5-0018","volume":"900v5","title":"A membrane tube should release internal cargo in packets when moving constrictions divide its lumen.","prediction":"A membrane tube should release internal cargo in packets when moving constrictions divide its lumen.","test":"Image constrictions and efflux.","contrary":"Release remains continuous despite lumen segmentation.","layers":[1,2],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0018","prediction":"A membrane tube should release internal cargo in packets when moving constrictions divide its lumen.","feasible_test":"Image constrictions and efflux.","contrary_outcome":"Release remains continuous despite lumen segmentation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0018","prediction":"A membrane tube should release internal cargo in packets when moving constrictions divide its lumen.","feasible_test":"Image constrictions and efflux.","contrary_outcome":"Release remains continuous despite lumen segmentation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Lumen imaging tests packet formation directly.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0019","id":"S5-0019","volume":"900v5","title":"A peptide fiber should grow faster after bending exposes a normally buried lateral nucleation surface.","prediction":"A peptide fiber should grow faster after bending exposes a normally buried lateral nucleation surface.","test":"Measure monomer addition along curved and straight segments.","contrary":"Growth remains confined to ends.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0019","prediction":"A peptide fiber should grow faster after bending exposes a normally buried lateral nucleation surface.","feasible_test":"Measure monomer addition along curved and straight segments.","contrary_outcome":"Growth remains confined to ends.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0019","prediction":"A peptide fiber should grow faster after bending exposes a normally buried lateral nucleation surface.","feasible_test":"Measure monomer addition along curved and straight segments.","contrary_outcome":"Growth remains confined to ends.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Lateral growth sites can be localized after bending.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0020","id":"S5-0020","volume":"900v5","title":"A cell-free metabolic oscillator should exhibit a refractory interval set by reversible membrane sequestration of a catalyst.","prediction":"A cell-free metabolic oscillator should exhibit a refractory interval set by reversible membrane sequestration of a catalyst.","test":"Measure catalyst partition and pulse response.","contrary":"Refractoriness persists after sequestration is blocked.","layers":[1,2],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0020","prediction":"A cell-free metabolic oscillator should exhibit a refractory interval set by reversible membrane sequestration of a catalyst.","feasible_test":"Measure catalyst partition and pulse response.","contrary_outcome":"Refractoriness persists after sequestration is blocked.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0020","prediction":"A cell-free metabolic oscillator should exhibit a refractory interval set by reversible membrane sequestration of a catalyst.","feasible_test":"Measure catalyst partition and pulse response.","contrary_outcome":"Refractoriness persists after sequestration is blocked.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Catalyst sequestration can be measured during refractoriness.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0021","id":"S5-0021","volume":"900v5","title":"A synthetic droplet network should reroute substrate after one compartment becomes mechanically compressed.","prediction":"A synthetic droplet network should reroute substrate after one compartment becomes mechanically compressed.","test":"Measure fluxes and contact areas.","contrary":"Rerouting follows concentration changes without geometry dependence.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0021","prediction":"A synthetic droplet network should reroute substrate after one compartment becomes mechanically compressed.","feasible_test":"Measure fluxes and contact areas.","contrary_outcome":"Rerouting follows concentration changes without geometry dependence.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0021","prediction":"A synthetic droplet network should reroute substrate after one compartment becomes mechanically compressed.","feasible_test":"Measure fluxes and contact areas.","contrary_outcome":"Rerouting follows concentration changes without geometry dependence.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Compartment deformation permits a geometric rerouting test.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0022","id":"S5-0022","volume":"900v5","title":"A filament bundle should generate a torsional pulse when a crosslink cluster detaches under sustained tension.","prediction":"A filament bundle should generate a torsional pulse when a crosslink cluster detaches under sustained tension.","test":"Record twist, force and cluster loss.","contrary":"Detachment creates no twist above Brownian fluctuations.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0022","prediction":"A filament bundle should generate a torsional pulse when a crosslink cluster detaches under sustained tension.","feasible_test":"Record twist, force and cluster loss.","contrary_outcome":"Detachment creates no twist above Brownian fluctuations.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0022","prediction":"A filament bundle should generate a torsional pulse when a crosslink cluster detaches under sustained tension.","feasible_test":"Record twist, force and cluster loss.","contrary_outcome":"Detachment creates no twist above Brownian fluctuations.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Cluster detachment and torque can be synchronized.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0023","id":"S5-0023","volume":"900v5","title":"A molecular cage should retain a guest longer after being deformed and restored because its opening changes registry.","prediction":"A molecular cage should retain a guest longer after being deformed and restored because its opening changes registry.","test":"Measure structure and escape kinetics.","contrary":"Registry and retention reset immediately.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0023","prediction":"A molecular cage should retain a guest longer after being deformed and restored because its opening changes registry.","feasible_test":"Measure structure and escape kinetics.","contrary_outcome":"Registry and retention reset immediately.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0023","prediction":"A molecular cage should retain a guest longer after being deformed and restored because its opening changes registry.","feasible_test":"Measure structure and escape kinetics.","contrary_outcome":"Registry and retention reset immediately.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Structural registry challenges a guest-retention mechanism.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0024","id":"S5-0024","volume":"900v5","title":"A bilayer patch should exhibit a local permeability minimum at the boundary between oppositely curved regions.","prediction":"A bilayer patch should exhibit a local permeability minimum at the boundary between oppositely curved regions.","test":"Map curvature and tracer leakage.","contrary":"Permeability follows curvature magnitude alone.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0024","prediction":"A bilayer patch should exhibit a local permeability minimum at the boundary between oppositely curved regions.","feasible_test":"Map curvature and tracer leakage.","contrary_outcome":"Permeability follows curvature magnitude alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0024","prediction":"A bilayer patch should exhibit a local permeability minimum at the boundary between oppositely curved regions.","feasible_test":"Map curvature and tracer leakage.","contrary_outcome":"Permeability follows curvature magnitude alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Opposite curvature regions provide a spatial internal control.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0025","id":"S5-0025","volume":"900v5","title":"A cell-free reaction front should navigate around a depleted zone through enzyme redistribution at its leading edge.","prediction":"A cell-free reaction front should navigate around a depleted zone through enzyme redistribution at its leading edge.","test":"Track enzyme and product.","contrary":"Front routing occurs without enzyme movement.","layers":[1,2],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0025","prediction":"A cell-free reaction front should navigate around a depleted zone through enzyme redistribution at its leading edge.","feasible_test":"Track enzyme and product.","contrary_outcome":"Front routing occurs without enzyme movement.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0025","prediction":"A cell-free reaction front should navigate around a depleted zone through enzyme redistribution at its leading edge.","feasible_test":"Track enzyme and product.","contrary_outcome":"Front routing occurs without enzyme movement.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Enzyme mapping challenges autonomous front navigation.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0026","id":"S5-0026","volume":"900v5","title":"An anchored polymer brush should slow protein unfolding by restricting solvent rearrangement rather than binding the protein.","prediction":"An anchored polymer brush should slow protein unfolding by restricting solvent rearrangement rather than binding the protein.","test":"Measure unfolding and local solvent dynamics.","contrary":"Protection disappears when binding is removed despite unchanged solvent dynamics.","layers":[1,2],"categories":["energy","biology","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0026","prediction":"An anchored polymer brush should slow protein unfolding by restricting solvent rearrangement rather than binding the protein.","feasible_test":"Measure unfolding and local solvent dynamics.","contrary_outcome":"Protection disappears when binding is removed despite unchanged solvent dynamics.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0026","prediction":"An anchored polymer brush should slow protein unfolding by restricting solvent rearrangement rather than binding the protein.","feasible_test":"Measure unfolding and local solvent dynamics.","contrary_outcome":"Protection disappears when binding is removed despite unchanged solvent dynamics.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Nonbinding brushes challenge solvent-mediated protection.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0027","id":"S5-0027","volume":"900v5","title":"A lipid vesicle should rupture at a reproducible phase of an osmotic oscillation because membrane tension lags volume.","prediction":"A lipid vesicle should rupture at a reproducible phase of an osmotic oscillation because membrane tension lags volume.","test":"Measure tension, volume and rupture phase.","contrary":"Rupture probability depends only on instantaneous volume.","layers":[1,2],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0027","prediction":"A lipid vesicle should rupture at a reproducible phase of an osmotic oscillation because membrane tension lags volume.","feasible_test":"Measure tension, volume and rupture phase.","contrary_outcome":"Rupture probability depends only on instantaneous volume.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0027","prediction":"A lipid vesicle should rupture at a reproducible phase of an osmotic oscillation because membrane tension lags volume.","feasible_test":"Measure tension, volume and rupture phase.","contrary_outcome":"Rupture probability depends only on instantaneous volume.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Rupture phase tests a tension-volume lag.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0028","id":"S5-0028","volume":"900v5","title":"A self-assembled protein tube should repair a missing segment through sliding of overlapping layers.","prediction":"A self-assembled protein tube should repair a missing segment through sliding of overlapping layers.","test":"Label layers and monitor repair.","contrary":"Repair requires only new subunit addition.","layers":[1,2],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0028","prediction":"A self-assembled protein tube should repair a missing segment through sliding of overlapping layers.","feasible_test":"Label layers and monitor repair.","contrary_outcome":"Repair requires only new subunit addition.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0028","prediction":"A self-assembled protein tube should repair a missing segment through sliding of overlapping layers.","feasible_test":"Label layers and monitor repair.","contrary_outcome":"Repair requires only new subunit addition.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Old-layer labels distinguish sliding repair from new assembly.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0029","id":"S5-0029","volume":"900v5","title":"A coacervate film should retain an electrical polarization after shear aligns its charged polymer domains.","prediction":"A coacervate film should retain an electrical polarization after shear aligns its charged polymer domains.","test":"Measure domains and voltage decay.","contrary":"Polarization disappears with cessation of shear.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0029","prediction":"A coacervate film should retain an electrical polarization after shear aligns its charged polymer domains.","feasible_test":"Measure domains and voltage decay.","contrary_outcome":"Polarization disappears with cessation of shear.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0029","prediction":"A coacervate film should retain an electrical polarization after shear aligns its charged polymer domains.","feasible_test":"Measure domains and voltage decay.","contrary_outcome":"Polarization disappears with cessation of shear.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Domain alignment and voltage are independent observables.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0030","id":"S5-0030","volume":"900v5","title":"A DNA network should form a stress shadow that protects neighboring bonds after one bond ruptures.","prediction":"A DNA network should form a stress shadow that protects neighboring bonds after one bond ruptures.","test":"Map local forces and rupture correlations.","contrary":"Neighbor rupture is independent of the first event.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0030","prediction":"A DNA network should form a stress shadow that protects neighboring bonds after one bond ruptures.","feasible_test":"Map local forces and rupture correlations.","contrary_outcome":"Neighbor rupture is independent of the first event.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0030","prediction":"A DNA network should form a stress shadow that protects neighboring bonds after one bond ruptures.","feasible_test":"Map local forces and rupture correlations.","contrary_outcome":"Neighbor rupture is independent of the first event.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Local force maps challenge a protective stress shadow.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0031","id":"S5-0031","volume":"900v5","title":"A leaf's drying front should bypass a water-rich vein and create an isolated hydrated island.","prediction":"A leaf's drying front should bypass a water-rich vein and create an isolated hydrated island.","test":"Map water with registered vein geometry.","contrary":"Hydrated regions remain continuously connected.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0031","prediction":"A leaf's drying front should bypass a water-rich vein and create an isolated hydrated island.","feasible_test":"Map water with registered vein geometry.","contrary_outcome":"Hydrated regions remain continuously connected.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0031","prediction":"A leaf's drying front should bypass a water-rich vein and create an isolated hydrated island.","feasible_test":"Map water with registered vein geometry.","contrary_outcome":"Hydrated regions remain continuously connected.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Water mapping can establish true hydraulic isolation.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0032","id":"S5-0032","volume":"900v5","title":"A dormant seed should transmit an applied pressure pulse through its internal gas cavity before its liquid tissues respond.","prediction":"A dormant seed should transmit an applied pressure pulse through its internal gas cavity before its liquid tissues respond.","test":"Measure acoustic and mechanical phase.","contrary":"Responses show no separable gas-mediated arrival.","layers":[1,2],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0032","prediction":"A dormant seed should transmit an applied pressure pulse through its internal gas cavity before its liquid tissues respond.","feasible_test":"Measure acoustic and mechanical phase.","contrary_outcome":"Responses show no separable gas-mediated arrival.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0032","prediction":"A dormant seed should transmit an applied pressure pulse through its internal gas cavity before its liquid tissues respond.","feasible_test":"Measure acoustic and mechanical phase.","contrary_outcome":"Responses show no separable gas-mediated arrival.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Separate acoustic arrival times test a gas pathway.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0033","id":"S5-0033","volume":"900v5","title":"A fungal cord should resist pullout from a pore through reversible flattening at the pore exit.","prediction":"A fungal cord should resist pullout from a pore through reversible flattening at the pore exit.","test":"Image shape and extraction force.","contrary":"Flattening provides no additional resistance.","layers":[1,2],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0033","prediction":"A fungal cord should resist pullout from a pore through reversible flattening at the pore exit.","feasible_test":"Image shape and extraction force.","contrary_outcome":"Flattening provides no additional resistance.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0033","prediction":"A fungal cord should resist pullout from a pore through reversible flattening at the pore exit.","feasible_test":"Image shape and extraction force.","contrary_outcome":"Flattening provides no additional resistance.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Exit flattening can be imaged during extraction.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0034","id":"S5-0034","volume":"900v5","title":"A fern leaflet should shed water at a fold threshold selected by joint compliance rather than contact angle.","prediction":"A fern leaflet should shed water at a fold threshold selected by joint compliance rather than contact angle.","test":"Measure joint stiffness and droplet release.","contrary":"Release depends only on wetting properties.","layers":[1,2],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0034","prediction":"A fern leaflet should shed water at a fold threshold selected by joint compliance rather than contact angle.","feasible_test":"Measure joint stiffness and droplet release.","contrary_outcome":"Release depends only on wetting properties.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0034","prediction":"A fern leaflet should shed water at a fold threshold selected by joint compliance rather than contact angle.","feasible_test":"Measure joint stiffness and droplet release.","contrary_outcome":"Release depends only on wetting properties.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Joint compliance can be varied without changing wetting.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0035","id":"S5-0035","volume":"900v5","title":"A moss cushion should ventilate internally during elastic recovery after rain impact.","prediction":"A moss cushion should ventilate internally during elastic recovery after rain impact.","test":"Measure air flow and cushion strain.","contrary":"Air motion is explained solely by external impact flow.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0035","prediction":"A moss cushion should ventilate internally during elastic recovery after rain impact.","feasible_test":"Measure air flow and cushion strain.","contrary_outcome":"Air motion is explained solely by external impact flow.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0035","prediction":"A moss cushion should ventilate internally during elastic recovery after rain impact.","feasible_test":"Measure air flow and cushion strain.","contrary_outcome":"Air motion is explained solely by external impact flow.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Airflow can be synchronized with cushion recoil.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0036","id":"S5-0036","volume":"900v5","title":"A dead root should retain torsional stiffness after longitudinal cracking because intact circumferential wall bands bridge the crack.","prediction":"A dead root should retain torsional stiffness after longitudinal cracking because intact circumferential wall bands bridge the crack.","test":"Image bands and torque.","contrary":"Stiffness collapses despite intact bands.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0036","prediction":"A dead root should retain torsional stiffness after longitudinal cracking because intact circumferential wall bands bridge the crack.","feasible_test":"Image bands and torque.","contrary_outcome":"Stiffness collapses despite intact bands.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0036","prediction":"A dead root should retain torsional stiffness after longitudinal cracking because intact circumferential wall bands bridge the crack.","feasible_test":"Image bands and torque.","contrary_outcome":"Stiffness collapses despite intact bands.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Intact wall bands provide a mechanical load-path test.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0037","id":"S5-0037","volume":"900v5","title":"A seed coat should redistribute absorbed water tangentially before radial entry through its inner layer.","prediction":"A seed coat should redistribute absorbed water tangentially before radial entry through its inner layer.","test":"Map time-resolved water profiles.","contrary":"Water moves predominantly radially from onset.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0037","prediction":"A seed coat should redistribute absorbed water tangentially before radial entry through its inner layer.","feasible_test":"Map time-resolved water profiles.","contrary_outcome":"Water moves predominantly radially from onset.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0037","prediction":"A seed coat should redistribute absorbed water tangentially before radial entry through its inner layer.","feasible_test":"Map time-resolved water profiles.","contrary_outcome":"Water moves predominantly radially from onset.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Depth-resolved water distinguishes tangential from radial entry.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0038","id":"S5-0038","volume":"900v5","title":"A fungal mat should store a local compression event as residual orientation of its wall fragments after drying.","prediction":"A fungal mat should store a local compression event as residual orientation of its wall fragments after drying.","test":"Map orientation before and after loading.","contrary":"Orientation lacks a localized event trace.","layers":[1,2],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0038","prediction":"A fungal mat should store a local compression event as residual orientation of its wall fragments after drying.","feasible_test":"Map orientation before and after loading.","contrary_outcome":"Orientation lacks a localized event trace.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0038","prediction":"A fungal mat should store a local compression event as residual orientation of its wall fragments after drying.","feasible_test":"Map orientation before and after loading.","contrary_outcome":"Orientation lacks a localized event trace.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Residual orientation provides a readable compression trace.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0039","id":"S5-0039","volume":"900v5","title":"A pine scale should twist during drying when its vascular bundle lies off the mechanical neutral axis.","prediction":"A pine scale should twist during drying when its vascular bundle lies off the mechanical neutral axis.","test":"Measure bundle placement and three-dimensional curvature.","contrary":"Twist is independent of bundle eccentricity.","layers":[1,2,3],"categories":["measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0039","prediction":"A pine scale should twist during drying when its vascular bundle lies off the mechanical neutral axis.","feasible_test":"Measure bundle placement and three-dimensional curvature.","contrary_outcome":"Twist is independent of bundle eccentricity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0039","prediction":"A pine scale should twist during drying when its vascular bundle lies off the mechanical neutral axis.","feasible_test":"Measure bundle placement and three-dimensional curvature.","contrary_outcome":"Twist is independent of bundle eccentricity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Three-dimensional imaging tests off-axis scale torsion.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":{"id":"S5-0039","prediction":"A pine scale should twist during drying when its vascular bundle lies off the mechanical neutral axis.","feasible_test":"Measure bundle placement and three-dimensional curvature.","contrary_outcome":"Twist is independent of bundle eccentricity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Three-dimensional imaging tests off-axis scale torsion.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability","dossier":"S5-0039_dossier.md","final_selection_rationale":"Chosen for a clear intervention, independent mechanism measurement and explicit competing explanation; prior-art overlap and theoretical-only support are retained rather than hidden."},"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0040","id":"S5-0040","volume":"900v5","title":"A plant fiber should resist abrasive wear better when its lumen collapses into a load-spreading ribbon.","prediction":"A plant fiber should resist abrasive wear better when its lumen collapses into a load-spreading ribbon.","test":"Measure cross-section and wear rate.","contrary":"Wear follows surface chemistry alone.","layers":[1,2],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0040","prediction":"A plant fiber should resist abrasive wear better when its lumen collapses into a load-spreading ribbon.","feasible_test":"Measure cross-section and wear rate.","contrary_outcome":"Wear follows surface chemistry alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0040","prediction":"A plant fiber should resist abrasive wear better when its lumen collapses into a load-spreading ribbon.","feasible_test":"Measure cross-section and wear rate.","contrary_outcome":"Wear follows surface chemistry alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Lumen shape can be measured before wear testing.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0041","id":"S5-0041","volume":"900v5","title":"A leaf surface should change droplet bouncing threshold after reversible microscopic wax reorientation.","prediction":"A leaf surface should change droplet bouncing threshold after reversible microscopic wax reorientation.","test":"Measure wax angles and rebound.","contrary":"Threshold changes lack wax reorientation.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0041","prediction":"A leaf surface should change droplet bouncing threshold after reversible microscopic wax reorientation.","feasible_test":"Measure wax angles and rebound.","contrary_outcome":"Threshold changes lack wax reorientation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0041","prediction":"A leaf surface should change droplet bouncing threshold after reversible microscopic wax reorientation.","feasible_test":"Measure wax angles and rebound.","contrary_outcome":"Threshold changes lack wax reorientation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Wax orientation and bouncing offer independent measurements.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0042","id":"S5-0042","volume":"900v5","title":"A fungal spore cluster should detach through a propagating peel front rather than simultaneous stalk failure.","prediction":"A fungal spore cluster should detach through a propagating peel front rather than simultaneous stalk failure.","test":"Image release and force.","contrary":"All stalks fail within unresolved simultaneous onset.","layers":[1,2],"categories":["physical","biology","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0042","prediction":"A fungal spore cluster should detach through a propagating peel front rather than simultaneous stalk failure.","feasible_test":"Image release and force.","contrary_outcome":"All stalks fail within unresolved simultaneous onset.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0042","prediction":"A fungal spore cluster should detach through a propagating peel front rather than simultaneous stalk failure.","feasible_test":"Image release and force.","contrary_outcome":"All stalks fail within unresolved simultaneous onset.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"High-speed release distinguishes peeling from simultaneous failure.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0043","id":"S5-0043","volume":"900v5","title":"A wood cell wall should retain a nanoscale humidity gradient after bulk mass equilibrates.","prediction":"A wood cell wall should retain a nanoscale humidity gradient after bulk mass equilibrates.","test":"Measure spatial water and mass.","contrary":"Spatial water becomes uniform before mass equilibrium.","layers":[1,2],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0043","prediction":"A wood cell wall should retain a nanoscale humidity gradient after bulk mass equilibrates.","feasible_test":"Measure spatial water and mass.","contrary_outcome":"Spatial water becomes uniform before mass equilibrium.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0043","prediction":"A wood cell wall should retain a nanoscale humidity gradient after bulk mass equilibrates.","feasible_test":"Measure spatial water and mass.","contrary_outcome":"Spatial water becomes uniform before mass equilibrium.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Spatial water mapping challenges bulk-equilibrium assumptions.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0044","id":"S5-0044","volume":"900v5","title":"A dried petal should recover curvature after wetting through local opening of collapsed air channels.","prediction":"A dried petal should recover curvature after wetting through local opening of collapsed air channels.","test":"Image channels and shape.","contrary":"Recovery occurs without channel reopening.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0044","prediction":"A dried petal should recover curvature after wetting through local opening of collapsed air channels.","feasible_test":"Image channels and shape.","contrary_outcome":"Recovery occurs without channel reopening.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0044","prediction":"A dried petal should recover curvature after wetting through local opening of collapsed air channels.","feasible_test":"Image channels and shape.","contrary_outcome":"Recovery occurs without channel reopening.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Air-channel reopening can be compared with curvature recovery.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0045","id":"S5-0045","volume":"900v5","title":"A root hair mat should trap sediment most efficiently when flexible tips bend downstream and shield captured grains.","prediction":"A root hair mat should trap sediment most efficiently when flexible tips bend downstream and shield captured grains.","test":"Measure bending and grain retention.","contrary":"Rigid tips with matched area retain equally.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0045","prediction":"A root hair mat should trap sediment most efficiently when flexible tips bend downstream and shield captured grains.","feasible_test":"Measure bending and grain retention.","contrary_outcome":"Rigid tips with matched area retain equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0045","prediction":"A root hair mat should trap sediment most efficiently when flexible tips bend downstream and shield captured grains.","feasible_test":"Measure bending and grain retention.","contrary_outcome":"Rigid tips with matched area retain equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Tip compliance can be constrained during grain retention.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0046","id":"S5-0046","volume":"900v5","title":"A fungal fruiting body should exhibit a delayed tilt after localized wetting because internal fluid shifts before tissue expansion.","prediction":"A fungal fruiting body should exhibit a delayed tilt after localized wetting because internal fluid shifts before tissue expansion.","test":"Measure fluid, strain and tilt.","contrary":"Tilt follows local expansion instantaneously.","layers":[1,2],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0046","prediction":"A fungal fruiting body should exhibit a delayed tilt after localized wetting because internal fluid shifts before tissue expansion.","feasible_test":"Measure fluid, strain and tilt.","contrary_outcome":"Tilt follows local expansion instantaneously.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0046","prediction":"A fungal fruiting body should exhibit a delayed tilt after localized wetting because internal fluid shifts before tissue expansion.","feasible_test":"Measure fluid, strain and tilt.","contrary_outcome":"Tilt follows local expansion instantaneously.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Fluid movement and tissue expansion have separable timing.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0047","id":"S5-0047","volume":"900v5","title":"A seed appendage should unfold under repeated dew events even when each event is too short for complete hydration.","prediction":"A seed appendage should unfold under repeated dew events even when each event is too short for complete hydration.","test":"Track water and unfolding over pulses.","contrary":"Response depends only on cumulative wet time.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0047","prediction":"A seed appendage should unfold under repeated dew events even when each event is too short for complete hydration.","feasible_test":"Track water and unfolding over pulses.","contrary_outcome":"Response depends only on cumulative wet time.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0047","prediction":"A seed appendage should unfold under repeated dew events even when each event is too short for complete hydration.","feasible_test":"Track water and unfolding over pulses.","contrary_outcome":"Response depends only on cumulative wet time.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Incomplete dew pulses permit an explicit memory test.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0048","id":"S5-0048","volume":"900v5","title":"A leaf vein should damp impact through reversible flattening that temporarily increases its fluid resistance.","prediction":"A leaf vein should damp impact through reversible flattening that temporarily increases its fluid resistance.","test":"Measure vein shape, flow and energy loss.","contrary":"Damping is unchanged when flattening is constrained.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0048","prediction":"A leaf vein should damp impact through reversible flattening that temporarily increases its fluid resistance.","feasible_test":"Measure vein shape, flow and energy loss.","contrary_outcome":"Damping is unchanged when flattening is constrained.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0048","prediction":"A leaf vein should damp impact through reversible flattening that temporarily increases its fluid resistance.","feasible_test":"Measure vein shape, flow and energy loss.","contrary_outcome":"Damping is unchanged when flattening is constrained.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Vein flattening can be constrained during impact.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0049","id":"S5-0049","volume":"900v5","title":"A bark pore should act as a humidity valve through motion of its overlapping edges.","prediction":"A bark pore should act as a humidity valve through motion of its overlapping edges.","test":"Measure aperture and vapor flux.","contrary":"Flux follows humidity without aperture dependence.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0049","prediction":"A bark pore should act as a humidity valve through motion of its overlapping edges.","feasible_test":"Measure aperture and vapor flux.","contrary_outcome":"Flux follows humidity without aperture dependence.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0049","prediction":"A bark pore should act as a humidity valve through motion of its overlapping edges.","feasible_test":"Measure aperture and vapor flux.","contrary_outcome":"Flux follows humidity without aperture dependence.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Pore-edge movement directly predicts vapor conductance.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0050","id":"S5-0050","volume":"900v5","title":"A cellulose ribbon should retain a localized crease after a wetting pulse because fiber rotation becomes frictionally locked.","prediction":"A cellulose ribbon should retain a localized crease after a wetting pulse because fiber rotation becomes frictionally locked.","test":"Image fiber angles after drying.","contrary":"Crease disappears when water is removed.","layers":[1,2],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0050","prediction":"A cellulose ribbon should retain a localized crease after a wetting pulse because fiber rotation becomes frictionally locked.","feasible_test":"Image fiber angles after drying.","contrary_outcome":"Crease disappears when water is removed.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0050","prediction":"A cellulose ribbon should retain a localized crease after a wetting pulse because fiber rotation becomes frictionally locked.","feasible_test":"Image fiber angles after drying.","contrary_outcome":"Crease disappears when water is removed.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Fiber orientation tests crease locking after drying.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0051","id":"S5-0051","volume":"900v5","title":"A moss leaf should direct water inward through a moving line of collapsing surface papillae.","prediction":"A moss leaf should direct water inward through a moving line of collapsing surface papillae.","test":"Image papillae and water.","contrary":"Transport occurs without papilla motion.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0051","prediction":"A moss leaf should direct water inward through a moving line of collapsing surface papillae.","feasible_test":"Image papillae and water.","contrary_outcome":"Transport occurs without papilla motion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0051","prediction":"A moss leaf should direct water inward through a moving line of collapsing surface papillae.","feasible_test":"Image papillae and water.","contrary_outcome":"Transport occurs without papilla motion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Papilla motion can be compared with water-front timing.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0052","id":"S5-0052","volume":"900v5","title":"A fungal wall tube should become less permeable under axial tension through circumferential fiber alignment.","prediction":"A fungal wall tube should become less permeable under axial tension through circumferential fiber alignment.","test":"Measure orientation and tracer flux.","contrary":"Tension increases or leaves flux unchanged.","layers":[1,2],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0052","prediction":"A fungal wall tube should become less permeable under axial tension through circumferential fiber alignment.","feasible_test":"Measure orientation and tracer flux.","contrary_outcome":"Tension increases or leaves flux unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0052","prediction":"A fungal wall tube should become less permeable under axial tension through circumferential fiber alignment.","feasible_test":"Measure orientation and tracer flux.","contrary_outcome":"Tension increases or leaves flux unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Permeability and fiber orientation challenge tension-induced closure.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0053","id":"S5-0053","volume":"900v5","title":"A root-associated mineral sheath should fracture into protective sliding plates during growth.","prediction":"A root-associated mineral sheath should fracture into protective sliding plates during growth.","test":"Image growth and sheath cracks.","contrary":"Sheath breaks into disconnected fragments without sliding protection.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0053","prediction":"A root-associated mineral sheath should fracture into protective sliding plates during growth.","feasible_test":"Image growth and sheath cracks.","contrary_outcome":"Sheath breaks into disconnected fragments without sliding protection.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0053","prediction":"A root-associated mineral sheath should fracture into protective sliding plates during growth.","feasible_test":"Image growth and sheath cracks.","contrary_outcome":"Sheath breaks into disconnected fragments without sliding protection.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Growing mineral sheaths can be imaged for sliding protection.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0054","id":"S5-0054","volume":"900v5","title":"A seed mucilage layer should protect against abrasion through reversible redistribution toward high-pressure contacts.","prediction":"A seed mucilage layer should protect against abrasion through reversible redistribution toward high-pressure contacts.","test":"Map mucilage and wear.","contrary":"Protection occurs without contact enrichment.","layers":[1,2,3],"categories":["physical"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0054","prediction":"A seed mucilage layer should protect against abrasion through reversible redistribution toward high-pressure contacts.","feasible_test":"Map mucilage and wear.","contrary_outcome":"Protection occurs without contact enrichment.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0054","prediction":"A seed mucilage layer should protect against abrasion through reversible redistribution toward high-pressure contacts.","feasible_test":"Map mucilage and wear.","contrary_outcome":"Protection occurs without contact enrichment.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Contact enrichment can be measured before abrasion.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":{"id":"S5-0054","prediction":"A seed mucilage layer should protect against abrasion through reversible redistribution toward high-pressure contacts.","feasible_test":"Map mucilage and wear.","contrary_outcome":"Protection occurs without contact enrichment.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Contact enrichment can be measured before abrasion.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability","dossier":"S5-0054_dossier.md","final_selection_rationale":"Chosen for a clear intervention, independent mechanism measurement and explicit competing explanation; prior-art overlap and theoretical-only support are retained rather than hidden."},"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0055","id":"S5-0055","volume":"900v5","title":"A fern spore-bearing surface should direct airflow through a mechanically opened gap during drying.","prediction":"A fern spore-bearing surface should direct airflow through a mechanically opened gap during drying.","test":"Measure gap motion and local velocity.","contrary":"Airflow is unchanged with the gap fixed closed.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0055","prediction":"A fern spore-bearing surface should direct airflow through a mechanically opened gap during drying.","feasible_test":"Measure gap motion and local velocity.","contrary_outcome":"Airflow is unchanged with the gap fixed closed.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0055","prediction":"A fern spore-bearing surface should direct airflow through a mechanically opened gap during drying.","feasible_test":"Measure gap motion and local velocity.","contrary_outcome":"Airflow is unchanged with the gap fixed closed.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Opening geometry permits a specific airflow contrast.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0056","id":"S5-0056","volume":"900v5","title":"A hollow plant stem should retain a localized bending memory as a rotated oval cross-section.","prediction":"A hollow plant stem should retain a localized bending memory as a rotated oval cross-section.","test":"Measure shape and reloading.","contrary":"Cross-section and stiffness recover uniquely.","layers":[1,2],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0056","prediction":"A hollow plant stem should retain a localized bending memory as a rotated oval cross-section.","feasible_test":"Measure shape and reloading.","contrary_outcome":"Cross-section and stiffness recover uniquely.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0056","prediction":"A hollow plant stem should retain a localized bending memory as a rotated oval cross-section.","feasible_test":"Measure shape and reloading.","contrary_outcome":"Cross-section and stiffness recover uniquely.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Cross-section imaging tests retained stem bending memory.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0057","id":"S5-0057","volume":"900v5","title":"A leaf cuticle should guide surface water around a wound through stress-induced wrinkling.","prediction":"A leaf cuticle should guide surface water around a wound through stress-induced wrinkling.","test":"Image stress, wrinkles and water.","contrary":"Routing follows chemical wetting differences alone.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0057","prediction":"A leaf cuticle should guide surface water around a wound through stress-induced wrinkling.","feasible_test":"Image stress, wrinkles and water.","contrary_outcome":"Routing follows chemical wetting differences alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0057","prediction":"A leaf cuticle should guide surface water around a wound through stress-induced wrinkling.","feasible_test":"Image stress, wrinkles and water.","contrary_outcome":"Routing follows chemical wetting differences alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Wrinkles can be mapped alongside wound-adjacent flow.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0058","id":"S5-0058","volume":"900v5","title":"A fungal strand should reduce transverse drag by rolling into alignment with a weak flow.","prediction":"A fungal strand should reduce transverse drag by rolling into alignment with a weak flow.","test":"Measure rotation and force.","contrary":"Drag reduction persists with rotation constrained equally.","layers":[1,2],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0058","prediction":"A fungal strand should reduce transverse drag by rolling into alignment with a weak flow.","feasible_test":"Measure rotation and force.","contrary_outcome":"Drag reduction persists with rotation constrained equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0058","prediction":"A fungal strand should reduce transverse drag by rolling into alignment with a weak flow.","feasible_test":"Measure rotation and force.","contrary_outcome":"Drag reduction persists with rotation constrained equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Rotation can be prevented in matched drag controls.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0059","id":"S5-0059","volume":"900v5","title":"A woody fiber knot should concentrate condensation at its compression side through nanoscale gap closure.","prediction":"A woody fiber knot should concentrate condensation at its compression side through nanoscale gap closure.","test":"Map gaps and dew.","contrary":"Condensation follows temperature alone.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0059","prediction":"A woody fiber knot should concentrate condensation at its compression side through nanoscale gap closure.","feasible_test":"Map gaps and dew.","contrary_outcome":"Condensation follows temperature alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0059","prediction":"A woody fiber knot should concentrate condensation at its compression side through nanoscale gap closure.","feasible_test":"Map gaps and dew.","contrary_outcome":"Condensation follows temperature alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Gap mapping tests condensation localization near compression.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0060","id":"S5-0060","volume":"900v5","title":"A seed coat should emit a low-frequency vibration when its first internal liquid bridge connects opposite walls.","prediction":"A seed coat should emit a low-frequency vibration when its first internal liquid bridge connects opposite walls.","test":"Record vibration and water topology.","contrary":"Vibration lacks bridge-formation timing.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0060","prediction":"A seed coat should emit a low-frequency vibration when its first internal liquid bridge connects opposite walls.","feasible_test":"Record vibration and water topology.","contrary_outcome":"Vibration lacks bridge-formation timing.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0060","prediction":"A seed coat should emit a low-frequency vibration when its first internal liquid bridge connects opposite walls.","feasible_test":"Record vibration and water topology.","contrary_outcome":"Vibration lacks bridge-formation timing.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Bridge imaging can validate acoustic onset timing.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0061","id":"S5-0061","volume":"900v5","title":"A mineral aggregate should retain a directional stress memory through unequal dissolution at compressed contacts.","prediction":"A mineral aggregate should retain a directional stress memory through unequal dissolution at compressed contacts.","test":"Measure contact topology and reloading.","contrary":"Memory survives without contact-selective dissolution equally.","layers":[1,2,3],"categories":["measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0061","prediction":"A mineral aggregate should retain a directional stress memory through unequal dissolution at compressed contacts.","feasible_test":"Measure contact topology and reloading.","contrary_outcome":"Memory survives without contact-selective dissolution equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0061","prediction":"A mineral aggregate should retain a directional stress memory through unequal dissolution at compressed contacts.","feasible_test":"Measure contact topology and reloading.","contrary_outcome":"Memory survives without contact-selective dissolution equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Contact dissolution provides a specific stress-memory mediator.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":{"id":"S5-0061","prediction":"A mineral aggregate should retain a directional stress memory through unequal dissolution at compressed contacts.","feasible_test":"Measure contact topology and reloading.","contrary_outcome":"Memory survives without contact-selective dissolution equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Contact dissolution provides a specific stress-memory mediator.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability","dossier":"S5-0061_dossier.md","final_selection_rationale":"Chosen for a clear intervention, independent mechanism measurement and explicit competing explanation; prior-art overlap and theoretical-only support are retained rather than hidden."},"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0062","id":"S5-0062","volume":"900v5","title":"An iron-rich gel should produce a visible density wave when oxidation changes its bound-water fraction.","prediction":"An iron-rich gel should produce a visible density wave when oxidation changes its bound-water fraction.","test":"Map oxidation and density.","contrary":"Density changes remain local to the reaction source.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0062","prediction":"An iron-rich gel should produce a visible density wave when oxidation changes its bound-water fraction.","feasible_test":"Map oxidation and density.","contrary_outcome":"Density changes remain local to the reaction source.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0062","prediction":"An iron-rich gel should produce a visible density wave when oxidation changes its bound-water fraction.","feasible_test":"Map oxidation and density.","contrary_outcome":"Density changes remain local to the reaction source.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Oxidation and bound water can be tracked simultaneously.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0063","id":"S5-0063","volume":"900v5","title":"A carbonate crust should become more permeable after slight hydration because swelling opens intergranular seams.","prediction":"A carbonate crust should become more permeable after slight hydration because swelling opens intergranular seams.","test":"Measure seams and flow.","contrary":"Hydration only closes transport pathways.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0063","prediction":"A carbonate crust should become more permeable after slight hydration because swelling opens intergranular seams.","feasible_test":"Measure seams and flow.","contrary_outcome":"Hydration only closes transport pathways.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0063","prediction":"A carbonate crust should become more permeable after slight hydration because swelling opens intergranular seams.","feasible_test":"Measure seams and flow.","contrary_outcome":"Hydration only closes transport pathways.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Seam aperture provides a physical permeability explanation.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0064","id":"S5-0064","volume":"900v5","title":"A silicate surface should accumulate organic molecules at strain gradients created by buried inclusions.","prediction":"A silicate surface should accumulate organic molecules at strain gradients created by buried inclusions.","test":"Map strain and adsorption.","contrary":"Adsorption follows composition alone.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0064","prediction":"A silicate surface should accumulate organic molecules at strain gradients created by buried inclusions.","feasible_test":"Map strain and adsorption.","contrary_outcome":"Adsorption follows composition alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0064","prediction":"A silicate surface should accumulate organic molecules at strain gradients created by buried inclusions.","feasible_test":"Map strain and adsorption.","contrary_outcome":"Adsorption follows composition alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Buried inclusions create a controlled strain-gradient landscape.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0065","id":"S5-0065","volume":"900v5","title":"A salt crystal should rotate inside a liquid pocket when anisotropic dissolution shifts the pocket's capillary force balance.","prediction":"A salt crystal should rotate inside a liquid pocket when anisotropic dissolution shifts the pocket's capillary force balance.","test":"Measure orientation and interface shape.","contrary":"Rotation follows bulk flow alone.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0065","prediction":"A salt crystal should rotate inside a liquid pocket when anisotropic dissolution shifts the pocket's capillary force balance.","feasible_test":"Measure orientation and interface shape.","contrary_outcome":"Rotation follows bulk flow alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0065","prediction":"A salt crystal should rotate inside a liquid pocket when anisotropic dissolution shifts the pocket's capillary force balance.","feasible_test":"Measure orientation and interface shape.","contrary_outcome":"Rotation follows bulk flow alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Capillary geometry challenges dissolution-driven rotation.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0066","id":"S5-0066","volume":"900v5","title":"A clay membrane should retain a buried dry band after both faces are rewetted because swollen outer layers isolate it.","prediction":"A clay membrane should retain a buried dry band after both faces are rewetted because swollen outer layers isolate it.","test":"Map depth-resolved water.","contrary":"Water penetrates monotonically without persistent dry bands.","layers":[1,2],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0066","prediction":"A clay membrane should retain a buried dry band after both faces are rewetted because swollen outer layers isolate it.","feasible_test":"Map depth-resolved water.","contrary_outcome":"Water penetrates monotonically without persistent dry bands.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0066","prediction":"A clay membrane should retain a buried dry band after both faces are rewetted because swollen outer layers isolate it.","feasible_test":"Map depth-resolved water.","contrary_outcome":"Water penetrates monotonically without persistent dry bands.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Depth-resolved water can identify persistent dry bands.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0067","id":"S5-0067","volume":"900v5","title":"A mineral-coated fiber should conduct water faster after bending opens coating joints.","prediction":"A mineral-coated fiber should conduct water faster after bending opens coating joints.","test":"Measure joint aperture and flux.","contrary":"Flux is bending-independent.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0067","prediction":"A mineral-coated fiber should conduct water faster after bending opens coating joints.","feasible_test":"Measure joint aperture and flux.","contrary_outcome":"Flux is bending-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0067","prediction":"A mineral-coated fiber should conduct water faster after bending opens coating joints.","feasible_test":"Measure joint aperture and flux.","contrary_outcome":"Flux is bending-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Joint opening can be imaged during bending-driven flow.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0068","id":"S5-0068","volume":"900v5","title":"A porous carbonate should generate a solute overshoot after pressure release through expulsion from elastically compressed pores.","prediction":"A porous carbonate should generate a solute overshoot after pressure release through expulsion from elastically compressed pores.","test":"Measure strain and concentration.","contrary":"Overshoot occurs equally in rigid controls.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0068","prediction":"A porous carbonate should generate a solute overshoot after pressure release through expulsion from elastically compressed pores.","feasible_test":"Measure strain and concentration.","contrary_outcome":"Overshoot occurs equally in rigid controls.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0068","prediction":"A porous carbonate should generate a solute overshoot after pressure release through expulsion from elastically compressed pores.","feasible_test":"Measure strain and concentration.","contrary_outcome":"Overshoot occurs equally in rigid controls.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Strain and solute can be synchronized after pressure release.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0069","id":"S5-0069","volume":"900v5","title":"A sand contact should crystallize salt asymmetrically because its evaporation pathway selects one side of the bridge.","prediction":"A sand contact should crystallize salt asymmetrically because its evaporation pathway selects one side of the bridge.","test":"Map vapor and crystal growth.","contrary":"Growth is symmetric after chemistry matching.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0069","prediction":"A sand contact should crystallize salt asymmetrically because its evaporation pathway selects one side of the bridge.","feasible_test":"Map vapor and crystal growth.","contrary_outcome":"Growth is symmetric after chemistry matching.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0069","prediction":"A sand contact should crystallize salt asymmetrically because its evaporation pathway selects one side of the bridge.","feasible_test":"Map vapor and crystal growth.","contrary_outcome":"Growth is symmetric after chemistry matching.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Vapor mapping challenges asymmetric contact crystallization.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0070","id":"S5-0070","volume":"900v5","title":"A redox-active sediment analogue should release trapped gas when reduction softens its cementing contacts.","prediction":"A redox-active sediment analogue should release trapped gas when reduction softens its cementing contacts.","test":"Measure modulus, redox and gas.","contrary":"Gas release requires no contact softening.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0070","prediction":"A redox-active sediment analogue should release trapped gas when reduction softens its cementing contacts.","feasible_test":"Measure modulus, redox and gas.","contrary_outcome":"Gas release requires no contact softening.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0070","prediction":"A redox-active sediment analogue should release trapped gas when reduction softens its cementing contacts.","feasible_test":"Measure modulus, redox and gas.","contrary_outcome":"Gas release requires no contact softening.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Cement softening can be measured before gas release.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0071","id":"S5-0071","volume":"900v5","title":"A silica film should develop reversible conductivity anisotropy when humidity opens aligned interparticle gaps.","prediction":"A silica film should develop reversible conductivity anisotropy when humidity opens aligned interparticle gaps.","test":"Map gaps and ionic current.","contrary":"Conductivity remains isotropic.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0071","prediction":"A silica film should develop reversible conductivity anisotropy when humidity opens aligned interparticle gaps.","feasible_test":"Map gaps and ionic current.","contrary_outcome":"Conductivity remains isotropic.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0071","prediction":"A silica film should develop reversible conductivity anisotropy when humidity opens aligned interparticle gaps.","feasible_test":"Map gaps and ionic current.","contrary_outcome":"Conductivity remains isotropic.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Gap orientation tests conductivity anisotropy.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0072","id":"S5-0072","volume":"900v5","title":"A mineral replacement reaction should preserve a hidden pore network even after external shape becomes smooth.","prediction":"A mineral replacement reaction should preserve a hidden pore network even after external shape becomes smooth.","test":"Compare tomography and surface topography.","contrary":"Internal connectivity disappears with smoothing.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0072","prediction":"A mineral replacement reaction should preserve a hidden pore network even after external shape becomes smooth.","feasible_test":"Compare tomography and surface topography.","contrary_outcome":"Internal connectivity disappears with smoothing.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0072","prediction":"A mineral replacement reaction should preserve a hidden pore network even after external shape becomes smooth.","feasible_test":"Compare tomography and surface topography.","contrary_outcome":"Internal connectivity disappears with smoothing.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Tomography tests hidden connectivity after surface smoothing.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0073","id":"S5-0073","volume":"900v5","title":"A gypsum layer should buffer a short thermal pulse through reversible water exchange before bulk dehydration.","prediction":"A gypsum layer should buffer a short thermal pulse through reversible water exchange before bulk dehydration.","test":"Measure heat and local bound water.","contrary":"Heat buffering requires bulk phase conversion.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0073","prediction":"A gypsum layer should buffer a short thermal pulse through reversible water exchange before bulk dehydration.","feasible_test":"Measure heat and local bound water.","contrary_outcome":"Heat buffering requires bulk phase conversion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0073","prediction":"A gypsum layer should buffer a short thermal pulse through reversible water exchange before bulk dehydration.","feasible_test":"Measure heat and local bound water.","contrary_outcome":"Heat buffering requires bulk phase conversion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Bound-water changes can be compared with pulse buffering.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0074","id":"S5-0074","volume":"900v5","title":"A clay floc should unfold rather than fragment under an electric pulse when charge migration weakens only edge contacts.","prediction":"A clay floc should unfold rather than fragment under an electric pulse when charge migration weakens only edge contacts.","test":"Image edge contacts and topology.","contrary":"Flocs fragment randomly.","layers":[1,2],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0074","prediction":"A clay floc should unfold rather than fragment under an electric pulse when charge migration weakens only edge contacts.","feasible_test":"Image edge contacts and topology.","contrary_outcome":"Flocs fragment randomly.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0074","prediction":"A clay floc should unfold rather than fragment under an electric pulse when charge migration weakens only edge contacts.","feasible_test":"Image edge contacts and topology.","contrary_outcome":"Flocs fragment randomly.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Edge contacts provide a targeted floc-unfolding test.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0075","id":"S5-0075","volume":"900v5","title":"A mineral surface should retain an advancing adsorption front after the external concentration gradient is removed.","prediction":"A mineral surface should retain an advancing adsorption front after the external concentration gradient is removed.","test":"Map coverage and exchange.","contrary":"Coverage relaxes without continued propagation.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0075","prediction":"A mineral surface should retain an advancing adsorption front after the external concentration gradient is removed.","feasible_test":"Map coverage and exchange.","contrary_outcome":"Coverage relaxes without continued propagation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0075","prediction":"A mineral surface should retain an advancing adsorption front after the external concentration gradient is removed.","feasible_test":"Map coverage and exchange.","contrary_outcome":"Coverage relaxes without continued propagation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Coverage imaging tests post-gradient front propagation.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0076","id":"S5-0076","volume":"900v5","title":"A porous grain should act as a capillary oscillator when precipitation periodically seals and dissolution reopens its outlet.","prediction":"A porous grain should act as a capillary oscillator when precipitation periodically seals and dissolution reopens its outlet.","test":"Record outlet geometry and flow.","contrary":"Flux changes lack alternating phase conversion.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0076","prediction":"A porous grain should act as a capillary oscillator when precipitation periodically seals and dissolution reopens its outlet.","feasible_test":"Record outlet geometry and flow.","contrary_outcome":"Flux changes lack alternating phase conversion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0076","prediction":"A porous grain should act as a capillary oscillator when precipitation periodically seals and dissolution reopens its outlet.","feasible_test":"Record outlet geometry and flow.","contrary_outcome":"Flux changes lack alternating phase conversion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Outlet cycling can be synchronized with reaction phases.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0077","id":"S5-0077","volume":"900v5","title":"An evaporite crust should focus acoustic energy into regions where humidity has weakened grain contacts.","prediction":"An evaporite crust should focus acoustic energy into regions where humidity has weakened grain contacts.","test":"Map waves and contact stiffness.","contrary":"Focusing follows geometry alone.","layers":[1,2],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0077","prediction":"An evaporite crust should focus acoustic energy into regions where humidity has weakened grain contacts.","feasible_test":"Map waves and contact stiffness.","contrary_outcome":"Focusing follows geometry alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0077","prediction":"An evaporite crust should focus acoustic energy into regions where humidity has weakened grain contacts.","feasible_test":"Map waves and contact stiffness.","contrary_outcome":"Focusing follows geometry alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Contact stiffness can be mapped alongside acoustic focusing.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0078","id":"S5-0078","volume":"900v5","title":"A carbonate membrane should separate gas bubbles by size through elastic pore dilation.","prediction":"A carbonate membrane should separate gas bubbles by size through elastic pore dilation.","test":"Measure pore motion and bubble passage.","contrary":"Passage follows rigid-pore entry pressure alone.","layers":[1,2],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0078","prediction":"A carbonate membrane should separate gas bubbles by size through elastic pore dilation.","feasible_test":"Measure pore motion and bubble passage.","contrary_outcome":"Passage follows rigid-pore entry pressure alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0078","prediction":"A carbonate membrane should separate gas bubbles by size through elastic pore dilation.","feasible_test":"Measure pore motion and bubble passage.","contrary_outcome":"Passage follows rigid-pore entry pressure alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Pore deformation tests elastic bubble-size sorting.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0079","id":"S5-0079","volume":"900v5","title":"A mineral suspension should develop a persistent clear layer after oscillatory shear drives fines into reversible clusters.","prediction":"A mineral suspension should develop a persistent clear layer after oscillatory shear drives fines into reversible clusters.","test":"Track cluster and concentration profiles.","contrary":"Clearing requires sedimentation of irreversible aggregates.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0079","prediction":"A mineral suspension should develop a persistent clear layer after oscillatory shear drives fines into reversible clusters.","feasible_test":"Track cluster and concentration profiles.","contrary_outcome":"Clearing requires sedimentation of irreversible aggregates.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0079","prediction":"A mineral suspension should develop a persistent clear layer after oscillatory shear drives fines into reversible clusters.","feasible_test":"Track cluster and concentration profiles.","contrary_outcome":"Clearing requires sedimentation of irreversible aggregates.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Cluster reversibility distinguishes clearing from settling.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0080","id":"S5-0080","volume":"900v5","title":"A sediment fracture should widen after flushing with clean water because osmotic swelling acts behind an impermeable skin.","prediction":"A sediment fracture should widen after flushing with clean water because osmotic swelling acts behind an impermeable skin.","test":"Measure pressure and aperture.","contrary":"Widening occurs without osmotic pressure.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0080","prediction":"A sediment fracture should widen after flushing with clean water because osmotic swelling acts behind an impermeable skin.","feasible_test":"Measure pressure and aperture.","contrary_outcome":"Widening occurs without osmotic pressure.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0080","prediction":"A sediment fracture should widen after flushing with clean water because osmotic swelling acts behind an impermeable skin.","feasible_test":"Measure pressure and aperture.","contrary_outcome":"Widening occurs without osmotic pressure.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Osmotic pressure can be isolated behind a skin.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0081","id":"S5-0081","volume":"900v5","title":"A salt hydrate should store the direction of a previous temperature ramp in its internal microcrack pattern.","prediction":"A salt hydrate should store the direction of a previous temperature ramp in its internal microcrack pattern.","test":"Compare reversed ramp histories.","contrary":"Patterns cannot identify ramp direction.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0081","prediction":"A salt hydrate should store the direction of a previous temperature ramp in its internal microcrack pattern.","feasible_test":"Compare reversed ramp histories.","contrary_outcome":"Patterns cannot identify ramp direction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0081","prediction":"A salt hydrate should store the direction of a previous temperature ramp in its internal microcrack pattern.","feasible_test":"Compare reversed ramp histories.","contrary_outcome":"Patterns cannot identify ramp direction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Microcracks provide a readout of ramp direction.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0082","id":"S5-0082","volume":"900v5","title":"A mineral-coated droplet should become mechanically stronger after small pressure cycles redistribute shell contacts.","prediction":"A mineral-coated droplet should become mechanically stronger after small pressure cycles redistribute shell contacts.","test":"Measure shell topology and rupture.","contrary":"Strength changes require additional deposited mineral.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0082","prediction":"A mineral-coated droplet should become mechanically stronger after small pressure cycles redistribute shell contacts.","feasible_test":"Measure shell topology and rupture.","contrary_outcome":"Strength changes require additional deposited mineral.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0082","prediction":"A mineral-coated droplet should become mechanically stronger after small pressure cycles redistribute shell contacts.","feasible_test":"Measure shell topology and rupture.","contrary_outcome":"Strength changes require additional deposited mineral.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Contact topology can be measured before shell rupture.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0083","id":"S5-0083","volume":"900v5","title":"A clay bridge should collapse suddenly when adsorbed ions cross a cooperative binding threshold.","prediction":"A clay bridge should collapse suddenly when adsorbed ions cross a cooperative binding threshold.","test":"Measure binding and bridge shape.","contrary":"Collapse follows continuous ionic-strength effects.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0083","prediction":"A clay bridge should collapse suddenly when adsorbed ions cross a cooperative binding threshold.","feasible_test":"Measure binding and bridge shape.","contrary_outcome":"Collapse follows continuous ionic-strength effects.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0083","prediction":"A clay bridge should collapse suddenly when adsorbed ions cross a cooperative binding threshold.","feasible_test":"Measure binding and bridge shape.","contrary_outcome":"Collapse follows continuous ionic-strength effects.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Binding measurements can establish a collapse threshold.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0084","id":"S5-0084","volume":"900v5","title":"A porous stone should transport a dye pulse faster after partial drying disconnects strongly adsorbing side pores.","prediction":"A porous stone should transport a dye pulse faster after partial drying disconnects strongly adsorbing side pores.","test":"Map connectivity and breakthrough.","contrary":"Drying only delays transport.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0084","prediction":"A porous stone should transport a dye pulse faster after partial drying disconnects strongly adsorbing side pores.","feasible_test":"Map connectivity and breakthrough.","contrary_outcome":"Drying only delays transport.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0084","prediction":"A porous stone should transport a dye pulse faster after partial drying disconnects strongly adsorbing side pores.","feasible_test":"Map connectivity and breakthrough.","contrary_outcome":"Drying only delays transport.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Connectivity mapping tests faster transport after drying.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0085","id":"S5-0085","volume":"900v5","title":"A reactive mineral bed should retain a moving permeability maximum behind its dissolution front.","prediction":"A reactive mineral bed should retain a moving permeability maximum behind its dissolution front.","test":"Map porosity and flow.","contrary":"Permeability peaks only at the front.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0085","prediction":"A reactive mineral bed should retain a moving permeability maximum behind its dissolution front.","feasible_test":"Map porosity and flow.","contrary_outcome":"Permeability peaks only at the front.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0085","prediction":"A reactive mineral bed should retain a moving permeability maximum behind its dissolution front.","feasible_test":"Map porosity and flow.","contrary_outcome":"Permeability peaks only at the front.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Front-resolved flow can identify a trailing permeability maximum.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0086","id":"S5-0086","volume":"900v5","title":"A sand column should release a stored gas pulse when a cooling wave crosses its capillary bottleneck.","prediction":"A sand column should release a stored gas pulse when a cooling wave crosses its capillary bottleneck.","test":"Measure temperature and gas flux.","contrary":"Release follows thermal expansion without bottleneck dependence.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0086","prediction":"A sand column should release a stored gas pulse when a cooling wave crosses its capillary bottleneck.","feasible_test":"Measure temperature and gas flux.","contrary_outcome":"Release follows thermal expansion without bottleneck dependence.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0086","prediction":"A sand column should release a stored gas pulse when a cooling wave crosses its capillary bottleneck.","feasible_test":"Measure temperature and gas flux.","contrary_outcome":"Release follows thermal expansion without bottleneck dependence.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Bottleneck position tests a cooling-triggered gas pulse.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0087","id":"S5-0087","volume":"900v5","title":"A mineral gel should show a transient negative thermal expansion during dehydration through collapse of water-supported cages.","prediction":"A mineral gel should show a transient negative thermal expansion during dehydration through collapse of water-supported cages.","test":"Measure volume and bound water.","contrary":"Volume increases monotonically with heating.","layers":[1,2,3],"categories":["energy","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0087","prediction":"A mineral gel should show a transient negative thermal expansion during dehydration through collapse of water-supported cages.","feasible_test":"Measure volume and bound water.","contrary_outcome":"Volume increases monotonically with heating.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0087","prediction":"A mineral gel should show a transient negative thermal expansion during dehydration through collapse of water-supported cages.","feasible_test":"Measure volume and bound water.","contrary_outcome":"Volume increases monotonically with heating.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Mass and volume measurements challenge dehydration contraction.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":{"id":"S5-0087","prediction":"A mineral gel should show a transient negative thermal expansion during dehydration through collapse of water-supported cages.","feasible_test":"Measure volume and bound water.","contrary_outcome":"Volume increases monotonically with heating.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Mass and volume measurements challenge dehydration contraction.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability","dossier":"S5-0087_dossier.md","final_selection_rationale":"Chosen for a clear intervention, independent mechanism measurement and explicit competing explanation; prior-art overlap and theoretical-only support are retained rather than hidden."},"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0088","id":"S5-0088","volume":"900v5","title":"A crystalline coating should protect a soft support better after it develops an ordered network of harmless segmentation cracks.","prediction":"A crystalline coating should protect a soft support better after it develops an ordered network of harmless segmentation cracks.","test":"Measure crack geometry and substrate damage.","contrary":"Segmentation always increases support damage.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0088","prediction":"A crystalline coating should protect a soft support better after it develops an ordered network of harmless segmentation cracks.","feasible_test":"Measure crack geometry and substrate damage.","contrary_outcome":"Segmentation always increases support damage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0088","prediction":"A crystalline coating should protect a soft support better after it develops an ordered network of harmless segmentation cracks.","feasible_test":"Measure crack geometry and substrate damage.","contrary_outcome":"Segmentation always increases support damage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Crack order can be measured independently of support damage.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0089","id":"S5-0089","volume":"900v5","title":"A carbonate pore should retain a pH oscillation longer than the surrounding solution through reversible surface buffering.","prediction":"A carbonate pore should retain a pH oscillation longer than the surrounding solution through reversible surface buffering.","test":"Map pH decay.","contrary":"Decay matches unbuffered diffusion.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0089","prediction":"A carbonate pore should retain a pH oscillation longer than the surrounding solution through reversible surface buffering.","feasible_test":"Map pH decay.","contrary_outcome":"Decay matches unbuffered diffusion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0089","prediction":"A carbonate pore should retain a pH oscillation longer than the surrounding solution through reversible surface buffering.","feasible_test":"Map pH decay.","contrary_outcome":"Decay matches unbuffered diffusion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Surface buffering gives an explicit pH-relaxation control.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0090","id":"S5-0090","volume":"900v5","title":"A mineral-organic interface should direct solvent flow along a moving adhesion front.","prediction":"A mineral-organic interface should direct solvent flow along a moving adhesion front.","test":"Measure interface motion and fluid velocity.","contrary":"Fluid motion is independent of front direction.","layers":[1,2,3],"categories":["physical","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0090","prediction":"A mineral-organic interface should direct solvent flow along a moving adhesion front.","feasible_test":"Measure interface motion and fluid velocity.","contrary_outcome":"Fluid motion is independent of front direction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":{"id":"S5-0090","prediction":"A mineral-organic interface should direct solvent flow along a moving adhesion front.","feasible_test":"Measure interface motion and fluid velocity.","contrary_outcome":"Fluid motion is independent of front direction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Front motion and fluid velocity test adhesion-driven transport.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability"},"dossier":{"id":"S5-0090","prediction":"A mineral-organic interface should direct solvent flow along a moving adhesion front.","feasible_test":"Measure interface motion and fluid velocity.","contrary_outcome":"Fluid motion is independent of front direction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim","selection_rationale":"Front motion and fluid velocity test adhesion-driven transport.","selection_basis":"subjective tractability/plausibility portfolio; not a calibrated probability","dossier":"S5-0090_dossier.md","final_selection_rationale":"Chosen for a clear intervention, independent mechanism measurement and explicit competing explanation; prior-art overlap and theoretical-only support are retained rather than hidden."},"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0091","id":"S5-0091","volume":"900v5","title":"A levitated liquid film should stabilize a suspended particle at a saddle point through coupled capillary and acoustic forces.","prediction":"A levitated liquid film should stabilize a suspended particle at a saddle point through coupled capillary and acoustic forces.","test":"Map particle motion and film modes.","contrary":"Stable positions follow acoustic force alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0091","prediction":"A levitated liquid film should stabilize a suspended particle at a saddle point through coupled capillary and acoustic forces.","feasible_test":"Map particle motion and film modes.","contrary_outcome":"Stable positions follow acoustic force alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0092","id":"S5-0092","volume":"900v5","title":"A soft optical cavity should filter rapid humidity fluctuations because its pore filling precedes mechanical expansion.","prediction":"A soft optical cavity should filter rapid humidity fluctuations because its pore filling precedes mechanical expansion.","test":"Measure vapor, occupancy and resonance.","contrary":"Optical response follows vapor without filtering.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0092","prediction":"A soft optical cavity should filter rapid humidity fluctuations because its pore filling precedes mechanical expansion.","feasible_test":"Measure vapor, occupancy and resonance.","contrary_outcome":"Optical response follows vapor without filtering.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0093","id":"S5-0093","volume":"900v5","title":"A granular lens should alter its focal length after a low-amplitude mechanical annealing pulse.","prediction":"A granular lens should alter its focal length after a low-amplitude mechanical annealing pulse.","test":"Measure packing and focal distance.","contrary":"Focus is unchanged despite contact rearrangement.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0093","prediction":"A granular lens should alter its focal length after a low-amplitude mechanical annealing pulse.","feasible_test":"Measure packing and focal distance.","contrary_outcome":"Focus is unchanged despite contact rearrangement.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0094","id":"S5-0094","volume":"900v5","title":"A suspended nanofiber should detect gas flow direction through asymmetric torsional cooling.","prediction":"A suspended nanofiber should detect gas flow direction through asymmetric torsional cooling.","test":"Measure torsion with reversed flow.","contrary":"Signal follows speed without directional sign.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0094","prediction":"A suspended nanofiber should detect gas flow direction through asymmetric torsional cooling.","feasible_test":"Measure torsion with reversed flow.","contrary_outcome":"Signal follows speed without directional sign.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0095","id":"S5-0095","volume":"900v5","title":"A reflective droplet array should retain a temporary image through contact-line pinning after illumination stops.","prediction":"A reflective droplet array should retain a temporary image through contact-line pinning after illumination stops.","test":"Measure droplet geometry and reflection.","contrary":"Image disappears with illumination.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0095","prediction":"A reflective droplet array should retain a temporary image through contact-line pinning after illumination stops.","feasible_test":"Measure droplet geometry and reflection.","contrary_outcome":"Image disappears with illumination.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0096","id":"S5-0096","volume":"900v5","title":"A photothermal absorber should self-limit heating when expansion lifts it from a conductive support.","prediction":"A photothermal absorber should self-limit heating when expansion lifts it from a conductive support.","test":"Measure contact and temperature.","contrary":"Temperature limitation occurs without contact loss.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0096","prediction":"A photothermal absorber should self-limit heating when expansion lifts it from a conductive support.","feasible_test":"Measure contact and temperature.","contrary_outcome":"Temperature limitation occurs without contact loss.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0097","id":"S5-0097","volume":"900v5","title":"A thin-film microphone should suppress wind noise when humidity reversibly stiffens only its perimeter.","prediction":"A thin-film microphone should suppress wind noise when humidity reversibly stiffens only its perimeter.","test":"Measure stiffness and noise spectra.","contrary":"Noise falls only with overall sensitivity loss.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0097","prediction":"A thin-film microphone should suppress wind noise when humidity reversibly stiffens only its perimeter.","feasible_test":"Measure stiffness and noise spectra.","contrary_outcome":"Noise falls only with overall sensitivity loss.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0098","id":"S5-0098","volume":"900v5","title":"A porous optical filter should switch passbands when pressure moves an internal liquid meniscus between stable positions.","prediction":"A porous optical filter should switch passbands when pressure moves an internal liquid meniscus between stable positions.","test":"Measure meniscus and transmission.","contrary":"Passband remains position-independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0098","prediction":"A porous optical filter should switch passbands when pressure moves an internal liquid meniscus between stable positions.","feasible_test":"Measure meniscus and transmission.","contrary_outcome":"Passband remains position-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0099","id":"S5-0099","volume":"900v5","title":"A deformable prism should separate load rate from load magnitude through the curvature of its spectral trajectory.","prediction":"A deformable prism should separate load rate from load magnitude through the curvature of its spectral trajectory.","test":"Apply blinded load histories.","contrary":"Trajectories cannot distinguish rate.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0099","prediction":"A deformable prism should separate load rate from load magnitude through the curvature of its spectral trajectory.","feasible_test":"Apply blinded load histories.","contrary_outcome":"Trajectories cannot distinguish rate.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0100","id":"S5-0100","volume":"900v5","title":"A granular acoustic shutter should close through field-induced rotation of flat particles without bulk compaction.","prediction":"A granular acoustic shutter should close through field-induced rotation of flat particles without bulk compaction.","test":"Measure orientation and transmission.","contrary":"Attenuation requires compaction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0100","prediction":"A granular acoustic shutter should close through field-induced rotation of flat particles without bulk compaction.","feasible_test":"Measure orientation and transmission.","contrary_outcome":"Attenuation requires compaction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0101","id":"S5-0101","volume":"900v5","title":"A flexible antenna analogue should detune before fracture because nearby conductive contacts separate under strain concentration.","prediction":"A flexible antenna analogue should detune before fracture because nearby conductive contacts separate under strain concentration.","test":"Measure fields and contact geometry.","contrary":"Detuning starts only after visible breakage.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0101","prediction":"A flexible antenna analogue should detune before fracture because nearby conductive contacts separate under strain concentration.","feasible_test":"Measure fields and contact geometry.","contrary_outcome":"Detuning starts only after visible breakage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0102","id":"S5-0102","volume":"900v5","title":"A liquid-crystal microcavity should retain a pressure event as a pinned director defect.","prediction":"A liquid-crystal microcavity should retain a pressure event as a pinned director defect.","test":"Measure defect and optical state after unloading.","contrary":"State always resets.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0102","prediction":"A liquid-crystal microcavity should retain a pressure event as a pinned director defect.","feasible_test":"Measure defect and optical state after unloading.","contrary_outcome":"State always resets.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0103","id":"S5-0103","volume":"900v5","title":"A photonic coating should reject false moisture signals by comparing modes localized at opposite surfaces.","prediction":"A photonic coating should reject false moisture signals by comparing modes localized at opposite surfaces.","test":"Calibrate surface and bulk wetting.","contrary":"Mode responses remain degenerate.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0103","prediction":"A photonic coating should reject false moisture signals by comparing modes localized at opposite surfaces.","feasible_test":"Calibrate surface and bulk wetting.","contrary_outcome":"Mode responses remain degenerate.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0104","id":"S5-0104","volume":"900v5","title":"An elastic resonator should cool faster after a mechanical pulse mixes its encapsulated phase-change liquid.","prediction":"An elastic resonator should cool faster after a mechanical pulse mixes its encapsulated phase-change liquid.","test":"Measure internal flow and cooling.","contrary":"Cooling change follows added surface area alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0104","prediction":"An elastic resonator should cool faster after a mechanical pulse mixes its encapsulated phase-change liquid.","feasible_test":"Measure internal flow and cooling.","contrary_outcome":"Cooling change follows added surface area alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0105","id":"S5-0105","volume":"900v5","title":"A transparent stress indicator should reveal hidden shear direction through rotating polarization singularities.","prediction":"A transparent stress indicator should reveal hidden shear direction through rotating polarization singularities.","test":"Apply known shears and image singularities.","contrary":"Rotation cannot recover direction.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0105","prediction":"A transparent stress indicator should reveal hidden shear direction through rotating polarization singularities.","feasible_test":"Apply known shears and image singularities.","contrary_outcome":"Rotation cannot recover direction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0106","id":"S5-0106","volume":"900v5","title":"A porous waveguide should localize a leak through a moving absorption minimum rather than intensity maximum.","prediction":"A porous waveguide should localize a leak through a moving absorption minimum rather than intensity maximum.","test":"Track water and guided modes.","contrary":"No leak-specific minimum appears.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0106","prediction":"A porous waveguide should localize a leak through a moving absorption minimum rather than intensity maximum.","feasible_test":"Track water and guided modes.","contrary_outcome":"No leak-specific minimum appears.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0107","id":"S5-0107","volume":"900v5","title":"A flexible diffraction surface should magnify tiny pressure changes near a mechanical cusp instability.","prediction":"A flexible diffraction surface should magnify tiny pressure changes near a mechanical cusp instability.","test":"Measure pressure and diffraction.","contrary":"Sensitivity lacks a cusp-associated increase.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0107","prediction":"A flexible diffraction surface should magnify tiny pressure changes near a mechanical cusp instability.","feasible_test":"Measure pressure and diffraction.","contrary_outcome":"Sensitivity lacks a cusp-associated increase.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0108","id":"S5-0108","volume":"900v5","title":"A soft acoustic reflector should steer its beam when condensation changes the depth of surface cavities.","prediction":"A soft acoustic reflector should steer its beam when condensation changes the depth of surface cavities.","test":"Map cavity water and beam angle.","contrary":"Steering is explained by uniform mass loading.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0108","prediction":"A soft acoustic reflector should steer its beam when condensation changes the depth of surface cavities.","feasible_test":"Map cavity water and beam angle.","contrary_outcome":"Steering is explained by uniform mass loading.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0109","id":"S5-0109","volume":"900v5","title":"A microthermal switch should reopen after cooling through delayed bubble dissolution.","prediction":"A microthermal switch should reopen after cooling through delayed bubble dissolution.","test":"Measure bubble and conductance.","contrary":"Reopening precedes bubble loss.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0109","prediction":"A microthermal switch should reopen after cooling through delayed bubble dissolution.","feasible_test":"Measure bubble and conductance.","contrary_outcome":"Reopening precedes bubble loss.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0110","id":"S5-0110","volume":"900v5","title":"A suspended optical ribbon should distinguish gas adsorption from fluid drag through opposite bending signs.","prediction":"A suspended optical ribbon should distinguish gas adsorption from fluid drag through opposite bending signs.","test":"Calibrate each input independently.","contrary":"Signs overlap across both inputs.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0110","prediction":"A suspended optical ribbon should distinguish gas adsorption from fluid drag through opposite bending signs.","feasible_test":"Calibrate each input independently.","contrary_outcome":"Signs overlap across both inputs.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0111","id":"S5-0111","volume":"900v5","title":"A liquid-filled lens should resist vibration through internal interfacial sliding between immiscible fluids.","prediction":"A liquid-filled lens should resist vibration through internal interfacial sliding between immiscible fluids.","test":"Measure interface motion and image blur.","contrary":"Damping is unchanged with one fluid.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0111","prediction":"A liquid-filled lens should resist vibration through internal interfacial sliding between immiscible fluids.","feasible_test":"Measure interface motion and image blur.","contrary_outcome":"Damping is unchanged with one fluid.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0112","id":"S5-0112","volume":"900v5","title":"A conductive paint should display a reversible color cue before electrical percolation fails.","prediction":"A conductive paint should display a reversible color cue before electrical percolation fails.","test":"Measure optical spectrum and resistance.","contrary":"Color changes only after circuit failure.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0112","prediction":"A conductive paint should display a reversible color cue before electrical percolation fails.","feasible_test":"Measure optical spectrum and resistance.","contrary_outcome":"Color changes only after circuit failure.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0113","id":"S5-0113","volume":"900v5","title":"A porous infrared shield should increase emission when its internal vapor layer collapses.","prediction":"A porous infrared shield should increase emission when its internal vapor layer collapses.","test":"Measure phase topology and emission.","contrary":"Emission follows temperature alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0113","prediction":"A porous infrared shield should increase emission when its internal vapor layer collapses.","feasible_test":"Measure phase topology and emission.","contrary_outcome":"Emission follows temperature alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0114","id":"S5-0114","volume":"900v5","title":"A membrane spectrometer should identify droplet viscosity through frequency-dependent shape modes.","prediction":"A membrane spectrometer should identify droplet viscosity through frequency-dependent shape modes.","test":"Compare matched-density liquids.","contrary":"Modes remain viscosity-insensitive.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0114","prediction":"A membrane spectrometer should identify droplet viscosity through frequency-dependent shape modes.","feasible_test":"Compare matched-density liquids.","contrary_outcome":"Modes remain viscosity-insensitive.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0115","id":"S5-0115","volume":"900v5","title":"A flexible acoustic sensor should retain an overload record through a metastable folded edge.","prediction":"A flexible acoustic sensor should retain an overload record through a metastable folded edge.","test":"Read modes after calibrated overloads.","contrary":"Edge always unfolds after unloading.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0115","prediction":"A flexible acoustic sensor should retain an overload record through a metastable folded edge.","feasible_test":"Read modes after calibrated overloads.","contrary_outcome":"Edge always unfolds after unloading.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0116","id":"S5-0116","volume":"900v5","title":"A phase-change optical tag should report cooling rate through final domain-size-dependent scattering.","prediction":"A phase-change optical tag should report cooling rate through final domain-size-dependent scattering.","test":"Measure domain size and spectra.","contrary":"Scattering depends only on final phase fraction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0116","prediction":"A phase-change optical tag should report cooling rate through final domain-size-dependent scattering.","feasible_test":"Measure domain size and spectra.","contrary_outcome":"Scattering depends only on final phase fraction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0117","id":"S5-0117","volume":"900v5","title":"A granular optical coating should resist glare after shear aligns absorbing grains below its surface.","prediction":"A granular optical coating should resist glare after shear aligns absorbing grains below its surface.","test":"Measure grain orientation and angular reflectance.","contrary":"Glare reduction requires increased absorption alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0117","prediction":"A granular optical coating should resist glare after shear aligns absorbing grains below its surface.","feasible_test":"Measure grain orientation and angular reflectance.","contrary_outcome":"Glare reduction requires increased absorption alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0118","id":"S5-0118","volume":"900v5","title":"A thermal mirror should deform in two stages when gas expansion precedes wall softening.","prediction":"A thermal mirror should deform in two stages when gas expansion precedes wall softening.","test":"Measure gas pressure and curvature.","contrary":"Deformation is single-stage.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0118","prediction":"A thermal mirror should deform in two stages when gas expansion precedes wall softening.","feasible_test":"Measure gas pressure and curvature.","contrary_outcome":"Deformation is single-stage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0119","id":"S5-0119","volume":"900v5","title":"A porous polarizer should rotate its optical axis when capillary stress aligns embedded fibers.","prediction":"A porous polarizer should rotate its optical axis when capillary stress aligns embedded fibers.","test":"Measure water, orientation and polarization.","contrary":"Axis changes occur without fiber alignment.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0119","prediction":"A porous polarizer should rotate its optical axis when capillary stress aligns embedded fibers.","feasible_test":"Measure water, orientation and polarization.","contrary_outcome":"Axis changes occur without fiber alignment.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0120","id":"S5-0120","volume":"900v5","title":"A mechanical light switch should latch after a short acoustic pulse buckles a capillary-supported membrane.","prediction":"A mechanical light switch should latch after a short acoustic pulse buckles a capillary-supported membrane.","test":"Measure acoustic dose and retained transmission.","contrary":"Transmission returns immediately after the pulse.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0120","prediction":"A mechanical light switch should latch after a short acoustic pulse buckles a capillary-supported membrane.","feasible_test":"Measure acoustic dose and retained transmission.","contrary_outcome":"Transmission returns immediately after the pulse.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0121","id":"S5-0121","volume":"900v5","title":"A pressure-driven droplet should avoid a blocked pore through deformation sensed before direct contact.","prediction":"A pressure-driven droplet should avoid a blocked pore through deformation sensed before direct contact.","test":"Image pressure fields and trajectories.","contrary":"Avoidance begins only at contact.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0121","prediction":"A pressure-driven droplet should avoid a blocked pore through deformation sensed before direct contact.","feasible_test":"Image pressure fields and trajectories.","contrary_outcome":"Avoidance begins only at contact.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0122","id":"S5-0122","volume":"900v5","title":"A fluidic bridge should survive repeated stretching when solvent exchange replenishes its neck preferentially.","prediction":"A fluidic bridge should survive repeated stretching when solvent exchange replenishes its neck preferentially.","test":"Track solvent and radius.","contrary":"Neck survival is exchange-independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0122","prediction":"A fluidic bridge should survive repeated stretching when solvent exchange replenishes its neck preferentially.","feasible_test":"Track solvent and radius.","contrary_outcome":"Neck survival is exchange-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0123","id":"S5-0123","volume":"900v5","title":"A confined foam should pump liquid sideways during symmetric compression because wall slip differs on loading and unloading.","prediction":"A confined foam should pump liquid sideways during symmetric compression because wall slip differs on loading and unloading.","test":"Measure net flux and slip.","contrary":"Flux remains zero.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0123","prediction":"A confined foam should pump liquid sideways during symmetric compression because wall slip differs on loading and unloading.","feasible_test":"Measure net flux and slip.","contrary_outcome":"Flux remains zero.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0124","id":"S5-0124","volume":"900v5","title":"A droplet train should retain a temporal gap after one bubble changes channel compliance locally.","prediction":"A droplet train should retain a temporal gap after one bubble changes channel compliance locally.","test":"Track spacing and wall strain.","contrary":"Spacing returns immediately to uniformity.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0124","prediction":"A droplet train should retain a temporal gap after one bubble changes channel compliance locally.","feasible_test":"Track spacing and wall strain.","contrary_outcome":"Spacing returns immediately to uniformity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0125","id":"S5-0125","volume":"900v5","title":"A soft capillary should sort gas bubbles by shell stiffness rather than radius.","prediction":"A soft capillary should sort gas bubbles by shell stiffness rather than radius.","test":"Measure entry and independently calibrated shell stiffness.","contrary":"Sorting follows radius alone.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0125","prediction":"A soft capillary should sort gas bubbles by shell stiffness rather than radius.","feasible_test":"Measure entry and independently calibrated shell stiffness.","contrary_outcome":"Sorting follows radius alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0126","id":"S5-0126","volume":"900v5","title":"A thin liquid sheet should redirect an impact through a transient ridge aligned with surface elasticity.","prediction":"A thin liquid sheet should redirect an impact through a transient ridge aligned with surface elasticity.","test":"Map stress and outgoing momentum.","contrary":"Redirection follows geometry alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0126","prediction":"A thin liquid sheet should redirect an impact through a transient ridge aligned with surface elasticity.","feasible_test":"Map stress and outgoing momentum.","contrary_outcome":"Redirection follows geometry alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0127","id":"S5-0127","volume":"900v5","title":"A liquid bridge should climb a flexible fiber when its own weight straightens a capillary-favored path.","prediction":"A liquid bridge should climb a flexible fiber when its own weight straightens a capillary-favored path.","test":"Measure fiber shape and droplet motion.","contrary":"Climbing requires external vibration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0127","prediction":"A liquid bridge should climb a flexible fiber when its own weight straightens a capillary-favored path.","feasible_test":"Measure fiber shape and droplet motion.","contrary_outcome":"Climbing requires external vibration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0128","id":"S5-0128","volume":"900v5","title":"A wet granular slope should fail in steps when liquid bridges reconnect behind each slip band.","prediction":"A wet granular slope should fail in steps when liquid bridges reconnect behind each slip band.","test":"Image bridges and displacement.","contrary":"Failure has no bridge-reconnection pauses.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0128","prediction":"A wet granular slope should fail in steps when liquid bridges reconnect behind each slip band.","feasible_test":"Image bridges and displacement.","contrary_outcome":"Failure has no bridge-reconnection pauses.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0129","id":"S5-0129","volume":"900v5","title":"A microfluidic cavity should store a pulse mechanically as delayed wall recoil after its liquid exits.","prediction":"A microfluidic cavity should store a pulse mechanically as delayed wall recoil after its liquid exits.","test":"Measure wall shape and outlet signal.","contrary":"No residual mechanical state remains.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0129","prediction":"A microfluidic cavity should store a pulse mechanically as delayed wall recoil after its liquid exits.","feasible_test":"Measure wall shape and outlet signal.","contrary_outcome":"No residual mechanical state remains.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0130","id":"S5-0130","volume":"900v5","title":"A droplet should exchange heat faster when rolling exposes fresh internal liquid at its contact patch.","prediction":"A droplet should exchange heat faster when rolling exposes fresh internal liquid at its contact patch.","test":"Map internal flow and thermal flux.","contrary":"Transfer follows contact area alone.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0130","prediction":"A droplet should exchange heat faster when rolling exposes fresh internal liquid at its contact patch.","feasible_test":"Map internal flow and thermal flux.","contrary_outcome":"Transfer follows contact area alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0131","id":"S5-0131","volume":"900v5","title":"A gas plug should divide into equal daughters more reliably when a compliant junction expands symmetrically.","prediction":"A gas plug should divide into equal daughters more reliably when a compliant junction expands symmetrically.","test":"Measure junction strain and daughter volumes.","contrary":"Compliance adds no symmetry benefit.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0131","prediction":"A gas plug should divide into equal daughters more reliably when a compliant junction expands symmetrically.","feasible_test":"Measure junction strain and daughter volumes.","contrary_outcome":"Compliance adds no symmetry benefit.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0132","id":"S5-0132","volume":"900v5","title":"A viscous rivulet should maintain a path through a reverse slope by storing tension in its surface skin.","prediction":"A viscous rivulet should maintain a path through a reverse slope by storing tension in its surface skin.","test":"Measure skin stress and path.","contrary":"Flow reverses whenever gravity reverses.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0132","prediction":"A viscous rivulet should maintain a path through a reverse slope by storing tension in its surface skin.","feasible_test":"Measure skin stress and path.","contrary_outcome":"Flow reverses whenever gravity reverses.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0133","id":"S5-0133","volume":"900v5","title":"A liquid film should form a traveling hole when surfactant adsorption differs at its advancing and receding edges.","prediction":"A liquid film should form a traveling hole when surfactant adsorption differs at its advancing and receding edges.","test":"Track edge chemistry and motion.","contrary":"Holes only expand symmetrically.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0133","prediction":"A liquid film should form a traveling hole when surfactant adsorption differs at its advancing and receding edges.","feasible_test":"Track edge chemistry and motion.","contrary_outcome":"Holes only expand symmetrically.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0134","id":"S5-0134","volume":"900v5","title":"A capillary pump should retain prime after a dry interruption when an elastic pore collapses around residual liquid.","prediction":"A capillary pump should retain prime after a dry interruption when an elastic pore collapses around residual liquid.","test":"Image pore and restart.","contrary":"Collapse does not improve restart.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0134","prediction":"A capillary pump should retain prime after a dry interruption when an elastic pore collapses around residual liquid.","feasible_test":"Image pore and restart.","contrary_outcome":"Collapse does not improve restart.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0135","id":"S5-0135","volume":"900v5","title":"A droplet should rotate when evaporative deposition pins one contact-line segment and releases another sequentially.","prediction":"A droplet should rotate when evaporative deposition pins one contact-line segment and releases another sequentially.","test":"Track pinning and rotation.","contrary":"Rotation lacks sequential pinning.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0135","prediction":"A droplet should rotate when evaporative deposition pins one contact-line segment and releases another sequentially.","feasible_test":"Track pinning and rotation.","contrary_outcome":"Rotation lacks sequential pinning.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0136","id":"S5-0136","volume":"900v5","title":"A bubble layer should damp a shock through progressive gas transfer between neighboring pockets.","prediction":"A bubble layer should damp a shock through progressive gas transfer between neighboring pockets.","test":"Measure pressure and gas volume.","contrary":"Damping persists unchanged with transfer blocked.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0136","prediction":"A bubble layer should damp a shock through progressive gas transfer between neighboring pockets.","feasible_test":"Measure pressure and gas volume.","contrary_outcome":"Damping persists unchanged with transfer blocked.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0137","id":"S5-0137","volume":"900v5","title":"A liquid meniscus should gate particle passage through a pore according to particle deformability.","prediction":"A liquid meniscus should gate particle passage through a pore according to particle deformability.","test":"Measure deformation and crossing.","contrary":"Passage follows size and wetting alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0137","prediction":"A liquid meniscus should gate particle passage through a pore according to particle deformability.","feasible_test":"Measure deformation and crossing.","contrary_outcome":"Passage follows size and wetting alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0138","id":"S5-0138","volume":"900v5","title":"A soft valve should exhibit a pressure overshoot only when its trapped gas dissolves faster than wall recoil.","prediction":"A soft valve should exhibit a pressure overshoot only when its trapped gas dissolves faster than wall recoil.","test":"Measure gas and strain.","contrary":"Overshoot is gas-kinetics independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0138","prediction":"A soft valve should exhibit a pressure overshoot only when its trapped gas dissolves faster than wall recoil.","feasible_test":"Measure gas and strain.","contrary_outcome":"Overshoot is gas-kinetics independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0139","id":"S5-0139","volume":"900v5","title":"A liquid thread should retain a kink after external flow stops through interfacial particle jamming.","prediction":"A liquid thread should retain a kink after external flow stops through interfacial particle jamming.","test":"Image particle contacts and thread shape.","contrary":"Kink vanishes before unjamming.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0139","prediction":"A liquid thread should retain a kink after external flow stops through interfacial particle jamming.","feasible_test":"Image particle contacts and thread shape.","contrary_outcome":"Kink vanishes before unjamming.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0140","id":"S5-0140","volume":"900v5","title":"A draining emulsion should form a stable vertical concentration step when droplet deformation changes buoyant packing.","prediction":"A draining emulsion should form a stable vertical concentration step when droplet deformation changes buoyant packing.","test":"Measure droplet shape and concentration.","contrary":"Profiles remain smoothly graded.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0140","prediction":"A draining emulsion should form a stable vertical concentration step when droplet deformation changes buoyant packing.","feasible_test":"Measure droplet shape and concentration.","contrary_outcome":"Profiles remain smoothly graded.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0141","id":"S5-0141","volume":"900v5","title":"A capillary wedge should selectively collect long filaments by bending them into a metastable arch.","prediction":"A capillary wedge should selectively collect long filaments by bending them into a metastable arch.","test":"Track filament geometry and retention.","contrary":"Retention follows length without arch formation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0141","prediction":"A capillary wedge should selectively collect long filaments by bending them into a metastable arch.","feasible_test":"Track filament geometry and retention.","contrary_outcome":"Retention follows length without arch formation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0142","id":"S5-0142","volume":"900v5","title":"A flexible wick should accelerate liquid intake after a short squeeze separates collapsed fibers.","prediction":"A flexible wick should accelerate liquid intake after a short squeeze separates collapsed fibers.","test":"Image contacts and uptake.","contrary":"Squeezing only reduces uptake.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0142","prediction":"A flexible wick should accelerate liquid intake after a short squeeze separates collapsed fibers.","feasible_test":"Image contacts and uptake.","contrary_outcome":"Squeezing only reduces uptake.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0143","id":"S5-0143","volume":"900v5","title":"A vapor-fed droplet should grow asymmetrically when a nearby elastic surface bends toward its cold side.","prediction":"A vapor-fed droplet should grow asymmetrically when a nearby elastic surface bends toward its cold side.","test":"Measure surface shape and condensation.","contrary":"Growth asymmetry is shape-independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0143","prediction":"A vapor-fed droplet should grow asymmetrically when a nearby elastic surface bends toward its cold side.","feasible_test":"Measure surface shape and condensation.","contrary_outcome":"Growth asymmetry is shape-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0144","id":"S5-0144","volume":"900v5","title":"A surfactant-free oil film should oscillate in thickness when dissolved gas repeatedly nucleates and escapes.","prediction":"A surfactant-free oil film should oscillate in thickness when dissolved gas repeatedly nucleates and escapes.","test":"Image gas and thickness.","contrary":"Oscillations persist after degassing equally.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0144","prediction":"A surfactant-free oil film should oscillate in thickness when dissolved gas repeatedly nucleates and escapes.","feasible_test":"Image gas and thickness.","contrary_outcome":"Oscillations persist after degassing equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0145","id":"S5-0145","volume":"900v5","title":"A water jet should entrain fewer particles after a compliant nozzle aligns them before exit.","prediction":"A water jet should entrain fewer particles after a compliant nozzle aligns them before exit.","test":"Measure orientation and entrainment.","contrary":"Nozzle compliance has no independent effect.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0145","prediction":"A water jet should entrain fewer particles after a compliant nozzle aligns them before exit.","feasible_test":"Measure orientation and entrainment.","contrary_outcome":"Nozzle compliance has no independent effect.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0146","id":"S5-0146","volume":"900v5","title":"A liquid pocket should transmit torque between solids through a jammed interfacial layer without solid contact.","prediction":"A liquid pocket should transmit torque between solids through a jammed interfacial layer without solid contact.","test":"Measure torque and gap.","contrary":"Torque vanishes beyond direct-contact range.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0146","prediction":"A liquid pocket should transmit torque between solids through a jammed interfacial layer without solid contact.","feasible_test":"Measure torque and gap.","contrary_outcome":"Torque vanishes beyond direct-contact range.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0147","id":"S5-0147","volume":"900v5","title":"A suspended sheet should steer a falling droplet through a traveling deformation produced by an earlier impact.","prediction":"A suspended sheet should steer a falling droplet through a traveling deformation produced by an earlier impact.","test":"Track sheet waves and trajectories.","contrary":"Later droplets ignore wave phase.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0147","prediction":"A suspended sheet should steer a falling droplet through a traveling deformation produced by an earlier impact.","feasible_test":"Track sheet waves and trajectories.","contrary_outcome":"Later droplets ignore wave phase.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0148","id":"S5-0148","volume":"900v5","title":"A capillary membrane should show directional permeability because its pores rotate under flow.","prediction":"A capillary membrane should show directional permeability because its pores rotate under flow.","test":"Image pore rotation and flux.","contrary":"Directionality persists with rotation constrained equally.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0148","prediction":"A capillary membrane should show directional permeability because its pores rotate under flow.","feasible_test":"Image pore rotation and flux.","contrary_outcome":"Directionality persists with rotation constrained equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0149","id":"S5-0149","volume":"900v5","title":"A hydrogel boundary should suppress fluid turbulence locally through delayed normal deformation.","prediction":"A hydrogel boundary should suppress fluid turbulence locally through delayed normal deformation.","test":"Measure wall strain and velocity fluctuations.","contrary":"Fluctuations match rigid boundaries at equal roughness.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0149","prediction":"A hydrogel boundary should suppress fluid turbulence locally through delayed normal deformation.","feasible_test":"Measure wall strain and velocity fluctuations.","contrary_outcome":"Fluctuations match rigid boundaries at equal roughness.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0150","id":"S5-0150","volume":"900v5","title":"A droplet should remain suspended in a vertical groove after partial freezing creates an interlocking shell.","prediction":"A droplet should remain suspended in a vertical groove after partial freezing creates an interlocking shell.","test":"Measure ice topology and retention.","contrary":"Retention follows contact angle alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0150","prediction":"A droplet should remain suspended in a vertical groove after partial freezing creates an interlocking shell.","feasible_test":"Measure ice topology and retention.","contrary_outcome":"Retention follows contact angle alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0151","id":"S5-0151","volume":"900v5","title":"A mechanical lattice should sort impulse duration into distinct final buckling states.","prediction":"A mechanical lattice should sort impulse duration into distinct final buckling states.","test":"Apply equal-energy pulses with varied widths.","contrary":"Final states cannot distinguish pulse width.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0151","prediction":"A mechanical lattice should sort impulse duration into distinct final buckling states.","feasible_test":"Apply equal-energy pulses with varied widths.","contrary_outcome":"Final states cannot distinguish pulse width.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0152","id":"S5-0152","volume":"900v5","title":"A thin shell should propagate an inversion front around an obstacle through out-of-plane ridge rotation.","prediction":"A thin shell should propagate an inversion front around an obstacle through out-of-plane ridge rotation.","test":"Image front and ridges.","contrary":"Inversion arrests or passes without ridge rotation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0152","prediction":"A thin shell should propagate an inversion front around an obstacle through out-of-plane ridge rotation.","feasible_test":"Image front and ridges.","contrary_outcome":"Inversion arrests or passes without ridge rotation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0153","id":"S5-0153","volume":"900v5","title":"A woven sleeve should transmit pressure remotely by tightening sequentially along its length.","prediction":"A woven sleeve should transmit pressure remotely by tightening sequentially along its length.","test":"Measure contact pressure and yarn motion.","contrary":"Tightening remains confined to the loaded region.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0153","prediction":"A woven sleeve should transmit pressure remotely by tightening sequentially along its length.","feasible_test":"Measure contact pressure and yarn motion.","contrary_outcome":"Tightening remains confined to the loaded region.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0154","id":"S5-0154","volume":"900v5","title":"An elastic cable should damp transverse waves through frictional rotation of an internal loose core.","prediction":"An elastic cable should damp transverse waves through frictional rotation of an internal loose core.","test":"Image core and modal loss.","contrary":"Damping persists with core rotation prevented equally.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0154","prediction":"An elastic cable should damp transverse waves through frictional rotation of an internal loose core.","feasible_test":"Image core and modal loss.","contrary_outcome":"Damping persists with core rotation prevented equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0155","id":"S5-0155","volume":"900v5","title":"A granular beam should support a localized load after unloading through force chains locked by particle shape.","prediction":"A granular beam should support a localized load after unloading through force chains locked by particle shape.","test":"Measure force chains and residual shape.","contrary":"Beam collapses once external confinement is removed.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0155","prediction":"A granular beam should support a localized load after unloading through force chains locked by particle shape.","feasible_test":"Measure force chains and residual shape.","contrary_outcome":"Beam collapses once external confinement is removed.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0156","id":"S5-0156","volume":"900v5","title":"A soft arch should switch states faster after a subthreshold pulse prepositions its internal liquid.","prediction":"A soft arch should switch states faster after a subthreshold pulse prepositions its internal liquid.","test":"Map liquid and snap latency.","contrary":"Latency is liquid-position independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0156","prediction":"A soft arch should switch states faster after a subthreshold pulse prepositions its internal liquid.","feasible_test":"Map liquid and snap latency.","contrary_outcome":"Latency is liquid-position independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0157","id":"S5-0157","volume":"900v5","title":"A cracked laminate should redistribute tensile stress through reversible microbuckling of bridging layers.","prediction":"A cracked laminate should redistribute tensile stress through reversible microbuckling of bridging layers.","test":"Map stress and bridge shape.","contrary":"Redistribution occurs without microbuckling.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0157","prediction":"A cracked laminate should redistribute tensile stress through reversible microbuckling of bridging layers.","feasible_test":"Map stress and bridge shape.","contrary_outcome":"Redistribution occurs without microbuckling.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0158","id":"S5-0158","volume":"900v5","title":"A fiber bundle should develop a traveling untwisting front when local friction falls below stored torque.","prediction":"A fiber bundle should develop a traveling untwisting front when local friction falls below stored torque.","test":"Measure twist and contact friction.","contrary":"Untwisting occurs uniformly.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0158","prediction":"A fiber bundle should develop a traveling untwisting front when local friction falls below stored torque.","feasible_test":"Measure twist and contact friction.","contrary_outcome":"Untwisting occurs uniformly.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0159","id":"S5-0159","volume":"900v5","title":"A compliant contact should emit a measurable heat pulse during rapid adhesive rebonding.","prediction":"A compliant contact should emit a measurable heat pulse during rapid adhesive rebonding.","test":"Measure microtemperature and bond formation.","contrary":"Heat is explained entirely by frictional sliding.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0159","prediction":"A compliant contact should emit a measurable heat pulse during rapid adhesive rebonding.","feasible_test":"Measure microtemperature and bond formation.","contrary_outcome":"Heat is explained entirely by frictional sliding.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0160","id":"S5-0160","volume":"900v5","title":"A porous plate should stiffen transiently after impact because compressed gas cannot drain quickly.","prediction":"A porous plate should stiffen transiently after impact because compressed gas cannot drain quickly.","test":"Measure pressure and dynamic modulus.","contrary":"Stiffening persists with open vents equally.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0160","prediction":"A porous plate should stiffen transiently after impact because compressed gas cannot drain quickly.","feasible_test":"Measure pressure and dynamic modulus.","contrary_outcome":"Stiffening persists with open vents equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0161","id":"S5-0161","volume":"900v5","title":"A mechanical chain should preserve pulse polarity through a sequence of asymmetric snap thresholds.","prediction":"A mechanical chain should preserve pulse polarity through a sequence of asymmetric snap thresholds.","test":"Measure output after reversed inputs.","contrary":"Output polarity becomes independent of input.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0161","prediction":"A mechanical chain should preserve pulse polarity through a sequence of asymmetric snap thresholds.","feasible_test":"Measure output after reversed inputs.","contrary_outcome":"Output polarity becomes independent of input.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0162","id":"S5-0162","volume":"900v5","title":"A soft coating should resist scratching through rapid lateral flow into the contact wake.","prediction":"A soft coating should resist scratching through rapid lateral flow into the contact wake.","test":"Image material motion and groove depth.","contrary":"Resistance is unchanged when lateral flow is blocked.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0162","prediction":"A soft coating should resist scratching through rapid lateral flow into the contact wake.","feasible_test":"Image material motion and groove depth.","contrary_outcome":"Resistance is unchanged when lateral flow is blocked.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0163","id":"S5-0163","volume":"900v5","title":"A folded tube should open under torsion before axial tension reaches its usual opening threshold.","prediction":"A folded tube should open under torsion before axial tension reaches its usual opening threshold.","test":"Measure torque and aperture.","contrary":"Torsion provides no reduction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0163","prediction":"A folded tube should open under torsion before axial tension reaches its usual opening threshold.","feasible_test":"Measure torque and aperture.","contrary_outcome":"Torsion provides no reduction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0164","id":"S5-0164","volume":"900v5","title":"An elastic mesh should trap a propagating tear at a boundary where pore rotation reverses sign.","prediction":"An elastic mesh should trap a propagating tear at a boundary where pore rotation reverses sign.","test":"Map rotations and crack position.","contrary":"Tears cross the boundary unchanged.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0164","prediction":"An elastic mesh should trap a propagating tear at a boundary where pore rotation reverses sign.","feasible_test":"Map rotations and crack position.","contrary_outcome":"Tears cross the boundary unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0165","id":"S5-0165","volume":"900v5","title":"A suspended film should retain a local prestress gradient after global strain returns to zero.","prediction":"A suspended film should retain a local prestress gradient after global strain returns to zero.","test":"Measure stress optically and reloading.","contrary":"Prestress becomes uniform.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0165","prediction":"A suspended film should retain a local prestress gradient after global strain returns to zero.","feasible_test":"Measure stress optically and reloading.","contrary_outcome":"Prestress becomes uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0166","id":"S5-0166","volume":"900v5","title":"A granular belt should convey particles through a traveling sequence of local jamming transitions.","prediction":"A granular belt should convey particles through a traveling sequence of local jamming transitions.","test":"Track jamming and cargo.","contrary":"Cargo motion requires belt translation.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0166","prediction":"A granular belt should convey particles through a traveling sequence of local jamming transitions.","feasible_test":"Track jamming and cargo.","contrary_outcome":"Cargo motion requires belt translation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0167","id":"S5-0167","volume":"900v5","title":"A composite hinge should produce a delayed click after unloading when a viscous inclusion transfers load back to its shell.","prediction":"A composite hinge should produce a delayed click after unloading when a viscous inclusion transfers load back to its shell.","test":"Measure inclusion pressure and motion.","contrary":"Click timing is viscosity-independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0167","prediction":"A composite hinge should produce a delayed click after unloading when a viscous inclusion transfers load back to its shell.","feasible_test":"Measure inclusion pressure and motion.","contrary_outcome":"Click timing is viscosity-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0168","id":"S5-0168","volume":"900v5","title":"A thin elastic disk should flutter only after its edge contacts begin to slip cooperatively.","prediction":"A thin elastic disk should flutter only after its edge contacts begin to slip cooperatively.","test":"Measure contacts and vibration.","contrary":"Flutter precedes cooperative slipping.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0168","prediction":"A thin elastic disk should flutter only after its edge contacts begin to slip cooperatively.","feasible_test":"Measure contacts and vibration.","contrary_outcome":"Flutter precedes cooperative slipping.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0169","id":"S5-0169","volume":"900v5","title":"A porous adhesive should reduce peel noise by opening air pathways before large contact jumps.","prediction":"A porous adhesive should reduce peel noise by opening air pathways before large contact jumps.","test":"Measure pressure and sound.","contrary":"Noise reduction lacks ventilation dependence.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0169","prediction":"A porous adhesive should reduce peel noise by opening air pathways before large contact jumps.","feasible_test":"Measure pressure and sound.","contrary_outcome":"Noise reduction lacks ventilation dependence.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0170","id":"S5-0170","volume":"900v5","title":"A twisted ribbon should protect a central electrical trace by routing strain toward its edges.","prediction":"A twisted ribbon should protect a central electrical trace by routing strain toward its edges.","test":"Map strain and trace failure.","contrary":"Central strain follows the section average.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0170","prediction":"A twisted ribbon should protect a central electrical trace by routing strain toward its edges.","feasible_test":"Map strain and trace failure.","contrary_outcome":"Central strain follows the section average.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0171","id":"S5-0171","volume":"900v5","title":"A hollow elastomer fiber should detect fluid blockage through a new axial vibration mode.","prediction":"A hollow elastomer fiber should detect fluid blockage through a new axial vibration mode.","test":"Measure modes with blinded blockages.","contrary":"No blockage-specific mode appears.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0171","prediction":"A hollow elastomer fiber should detect fluid blockage through a new axial vibration mode.","feasible_test":"Measure modes with blinded blockages.","contrary_outcome":"No blockage-specific mode appears.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0172","id":"S5-0172","volume":"900v5","title":"A mechanical memory element should erase selectively when a thermal pulse lowers only one hinge's barrier.","prediction":"A mechanical memory element should erase selectively when a thermal pulse lowers only one hinge's barrier.","test":"Measure hinge stiffness and state.","contrary":"All states erase indiscriminately.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0172","prediction":"A mechanical memory element should erase selectively when a thermal pulse lowers only one hinge's barrier.","feasible_test":"Measure hinge stiffness and state.","contrary_outcome":"All states erase indiscriminately.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0173","id":"S5-0173","volume":"900v5","title":"A soft impact absorber should rebound less when cavities collapse in a deliberately staggered order.","prediction":"A soft impact absorber should rebound less when cavities collapse in a deliberately staggered order.","test":"Image collapse and rebound.","contrary":"Order has no effect after energy matching.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0173","prediction":"A soft impact absorber should rebound less when cavities collapse in a deliberately staggered order.","feasible_test":"Image collapse and rebound.","contrary_outcome":"Order has no effect after energy matching.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0174","id":"S5-0174","volume":"900v5","title":"A fiber weave should retain more strength after a cut when nearby yarns slide into the damaged zone.","prediction":"A fiber weave should retain more strength after a cut when nearby yarns slide into the damaged zone.","test":"Track yarn motion and failure load.","contrary":"Sliding provides no strength recovery.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0174","prediction":"A fiber weave should retain more strength after a cut when nearby yarns slide into the damaged zone.","feasible_test":"Track yarn motion and failure load.","contrary_outcome":"Sliding provides no strength recovery.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0175","id":"S5-0175","volume":"900v5","title":"A porous shell should resist external pressure better when a trapped liquid redistributes into its dimpling region.","prediction":"A porous shell should resist external pressure better when a trapped liquid redistributes into its dimpling region.","test":"Map liquid and shell shape.","contrary":"Liquid redistribution accelerates failure.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0175","prediction":"A porous shell should resist external pressure better when a trapped liquid redistributes into its dimpling region.","feasible_test":"Map liquid and shell shape.","contrary_outcome":"Liquid redistribution accelerates failure.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0176","id":"S5-0176","volume":"900v5","title":"A compressed film should rotate its wrinkle axis after rest because interfacial bonds exchange directionally.","prediction":"A compressed film should rotate its wrinkle axis after rest because interfacial bonds exchange directionally.","test":"Measure bond exchange and wrinkles.","contrary":"Axis remains fixed despite exchange.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0176","prediction":"A compressed film should rotate its wrinkle axis after rest because interfacial bonds exchange directionally.","feasible_test":"Measure bond exchange and wrinkles.","contrary_outcome":"Axis remains fixed despite exchange.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0177","id":"S5-0177","volume":"900v5","title":"An elastic tube should display a torsional resonance shift when an internal liquid plug crosses a bend.","prediction":"An elastic tube should display a torsional resonance shift when an internal liquid plug crosses a bend.","test":"Track plug and resonance.","contrary":"Shift follows added mass alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0177","prediction":"An elastic tube should display a torsional resonance shift when an internal liquid plug crosses a bend.","feasible_test":"Track plug and resonance.","contrary_outcome":"Shift follows added mass alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0178","id":"S5-0178","volume":"900v5","title":"A granular layer should transmit low-frequency stress after high-frequency vibration unlocks sliding contacts.","prediction":"A granular layer should transmit low-frequency stress after high-frequency vibration unlocks sliding contacts.","test":"Measure force transmission and contacts.","contrary":"Transmission is unchanged by contact unlocking.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0178","prediction":"A granular layer should transmit low-frequency stress after high-frequency vibration unlocks sliding contacts.","feasible_test":"Measure force transmission and contacts.","contrary_outcome":"Transmission is unchanged by contact unlocking.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0179","id":"S5-0179","volume":"900v5","title":"A soft clamp should release reproducibly at a loading-rate threshold set by solvent drainage.","prediction":"A soft clamp should release reproducibly at a loading-rate threshold set by solvent drainage.","test":"Measure drainage and release.","contrary":"Release depends only on peak force.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0179","prediction":"A soft clamp should release reproducibly at a loading-rate threshold set by solvent drainage.","feasible_test":"Measure drainage and release.","contrary_outcome":"Release depends only on peak force.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0180","id":"S5-0180","volume":"900v5","title":"A layered shell should delay puncture through migration of an internal lubricating film away from the tip.","prediction":"A layered shell should delay puncture through migration of an internal lubricating film away from the tip.","test":"Measure film and force.","contrary":"Delay remains unchanged when migration is prevented.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0180","prediction":"A layered shell should delay puncture through migration of an internal lubricating film away from the tip.","feasible_test":"Measure film and force.","contrary_outcome":"Delay remains unchanged when migration is prevented.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0181","id":"S5-0181","volume":"900v5","title":"A thermal contact should improve after a humidity pulse fills only its deepest insulating gaps.","prediction":"A thermal contact should improve after a humidity pulse fills only its deepest insulating gaps.","test":"Measure gap water and conductance.","contrary":"Improvement follows total water without gap selectivity.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0181","prediction":"A thermal contact should improve after a humidity pulse fills only its deepest insulating gaps.","feasible_test":"Measure gap water and conductance.","contrary_outcome":"Improvement follows total water without gap selectivity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0182","id":"S5-0182","volume":"900v5","title":"A radiative cooler should show delayed reheating when condensed droplets shield its warm support.","prediction":"A radiative cooler should show delayed reheating when condensed droplets shield its warm support.","test":"Measure droplet coverage and heat flux.","contrary":"Reheating follows dry-support conductance alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0182","prediction":"A radiative cooler should show delayed reheating when condensed droplets shield its warm support.","feasible_test":"Measure droplet coverage and heat flux.","contrary_outcome":"Reheating follows dry-support conductance alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0183","id":"S5-0183","volume":"900v5","title":"A phase-change insert should reduce peak strain in a heated joint by absorbing heat before its support softens.","prediction":"A phase-change insert should reduce peak strain in a heated joint by absorbing heat before its support softens.","test":"Measure temperature and strain.","contrary":"Strain reduction lacks latent-heat timing.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0183","prediction":"A phase-change insert should reduce peak strain in a heated joint by absorbing heat before its support softens.","feasible_test":"Measure temperature and strain.","contrary_outcome":"Strain reduction lacks latent-heat timing.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0184","id":"S5-0184","volume":"900v5","title":"A porous heat sink should oscillate in cooling power when vapor generation periodically interrupts liquid supply.","prediction":"A porous heat sink should oscillate in cooling power when vapor generation periodically interrupts liquid supply.","test":"Measure vapor and temperature.","contrary":"Cooling varies smoothly despite supply interruptions.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0184","prediction":"A porous heat sink should oscillate in cooling power when vapor generation periodically interrupts liquid supply.","feasible_test":"Measure vapor and temperature.","contrary_outcome":"Cooling varies smoothly despite supply interruptions.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0185","id":"S5-0185","volume":"900v5","title":"A sealed thermal actuator should retain a position after cooling because its liquid bridge changes topology.","prediction":"A sealed thermal actuator should retain a position after cooling because its liquid bridge changes topology.","test":"Image bridge and displacement.","contrary":"Position resets when temperature returns.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0185","prediction":"A sealed thermal actuator should retain a position after cooling because its liquid bridge changes topology.","feasible_test":"Image bridge and displacement.","contrary_outcome":"Position resets when temperature returns.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0186","id":"S5-0186","volume":"900v5","title":"A transparent insulation layer should lose heat selectively at defects where condensation joins opposite faces.","prediction":"A transparent insulation layer should lose heat selectively at defects where condensation joins opposite faces.","test":"Map bridges and heat flux.","contrary":"Flux hotspots ignore bridge sites.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0186","prediction":"A transparent insulation layer should lose heat selectively at defects where condensation joins opposite faces.","feasible_test":"Map bridges and heat flux.","contrary_outcome":"Flux hotspots ignore bridge sites.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0187","id":"S5-0187","volume":"900v5","title":"A powder bed should develop a moving thermal-conduction front as particles sinter at contacts.","prediction":"A powder bed should develop a moving thermal-conduction front as particles sinter at contacts.","test":"Measure contact growth and thermal response.","contrary":"Conductivity changes uniformly.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0187","prediction":"A powder bed should develop a moving thermal-conduction front as particles sinter at contacts.","feasible_test":"Measure contact growth and thermal response.","contrary_outcome":"Conductivity changes uniformly.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0188","id":"S5-0188","volume":"900v5","title":"A fluid-filled elastic channel should carry a thermal pulse faster after wall contraction drives internal advection.","prediction":"A fluid-filled elastic channel should carry a thermal pulse faster after wall contraction drives internal advection.","test":"Measure flow and temperature.","contrary":"Propagation matches diffusion alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0188","prediction":"A fluid-filled elastic channel should carry a thermal pulse faster after wall contraction drives internal advection.","feasible_test":"Measure flow and temperature.","contrary_outcome":"Propagation matches diffusion alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0189","id":"S5-0189","volume":"900v5","title":"A phase-change coating should nucleate melting along previously flexed regions through persistent lattice defects.","prediction":"A phase-change coating should nucleate melting along previously flexed regions through persistent lattice defects.","test":"Map defects and phase onset.","contrary":"Melting sites ignore flex history.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0189","prediction":"A phase-change coating should nucleate melting along previously flexed regions through persistent lattice defects.","feasible_test":"Map defects and phase onset.","contrary_outcome":"Melting sites ignore flex history.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0190","id":"S5-0190","volume":"900v5","title":"A thermal diode should change rectification sign when its internal condensate crosses a geometric saddle.","prediction":"A thermal diode should change rectification sign when its internal condensate crosses a geometric saddle.","test":"Measure liquid position and conductance.","contrary":"Sign is independent of condensate topology.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0190","prediction":"A thermal diode should change rectification sign when its internal condensate crosses a geometric saddle.","feasible_test":"Measure liquid position and conductance.","contrary_outcome":"Sign is independent of condensate topology.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0191","id":"S5-0191","volume":"900v5","title":"A porous radiator should cool more uniformly when compliant ribs redistribute evaporating liquid.","prediction":"A porous radiator should cool more uniformly when compliant ribs redistribute evaporating liquid.","test":"Measure rib motion and temperature variance.","contrary":"Uniformity is unchanged with rigid ribs.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0191","prediction":"A porous radiator should cool more uniformly when compliant ribs redistribute evaporating liquid.","feasible_test":"Measure rib motion and temperature variance.","contrary_outcome":"Uniformity is unchanged with rigid ribs.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0192","id":"S5-0192","volume":"900v5","title":"A granular thermal switch should latch through contact welding after a short heat pulse.","prediction":"A granular thermal switch should latch through contact welding after a short heat pulse.","test":"Measure contacts and conductance after cooling.","contrary":"Conductance returns to baseline.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0192","prediction":"A granular thermal switch should latch through contact welding after a short heat pulse.","feasible_test":"Measure contacts and conductance after cooling.","contrary_outcome":"Conductance returns to baseline.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0193","id":"S5-0193","volume":"900v5","title":"A soft heat exchanger should clean itself through differential thermal expansion that peels deposits.","prediction":"A soft heat exchanger should clean itself through differential thermal expansion that peels deposits.","test":"Measure deposit strain and removal.","contrary":"Cleaning occurs without interfacial peeling.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0193","prediction":"A soft heat exchanger should clean itself through differential thermal expansion that peels deposits.","feasible_test":"Measure deposit strain and removal.","contrary_outcome":"Cleaning occurs without interfacial peeling.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0194","id":"S5-0194","volume":"900v5","title":"A microheater should reveal buried gas connectivity through the second peak of its cooling derivative.","prediction":"A microheater should reveal buried gas connectivity through the second peak of its cooling derivative.","test":"Compare known pore networks.","contrary":"Derivative peaks depend only on gas volume.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0194","prediction":"A microheater should reveal buried gas connectivity through the second peak of its cooling derivative.","feasible_test":"Compare known pore networks.","contrary_outcome":"Derivative peaks depend only on gas volume.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0195","id":"S5-0195","volume":"900v5","title":"A latent-heat layer should retain a cooling-rate memory as unequal recrystallization stress.","prediction":"A latent-heat layer should retain a cooling-rate memory as unequal recrystallization stress.","test":"Measure stress after matched final temperatures.","contrary":"Stress is cooling-rate independent.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0195","prediction":"A latent-heat layer should retain a cooling-rate memory as unequal recrystallization stress.","feasible_test":"Measure stress after matched final temperatures.","contrary_outcome":"Stress is cooling-rate independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0196","id":"S5-0196","volume":"900v5","title":"A thermal wave should steer liquid in a porous film through local surface-tension gradients even without net evaporation.","prediction":"A thermal wave should steer liquid in a porous film through local surface-tension gradients even without net evaporation.","test":"Measure flow in a sealed cell.","contrary":"Transport disappears after evaporation is eliminated.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0196","prediction":"A thermal wave should steer liquid in a porous film through local surface-tension gradients even without net evaporation.","feasible_test":"Measure flow in a sealed cell.","contrary_outcome":"Transport disappears after evaporation is eliminated.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0197","id":"S5-0197","volume":"900v5","title":"A curved emitter should alter its effective sky coupling as thermal expansion changes self-shadowing.","prediction":"A curved emitter should alter its effective sky coupling as thermal expansion changes self-shadowing.","test":"Measure shape and radiative loss.","contrary":"Loss follows area alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0197","prediction":"A curved emitter should alter its effective sky coupling as thermal expansion changes self-shadowing.","feasible_test":"Measure shape and radiative loss.","contrary_outcome":"Loss follows area alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0198","id":"S5-0198","volume":"900v5","title":"A porous thermal buffer should release heat in bursts when supercooled domains trigger neighboring domains through elastic contact.","prediction":"A porous thermal buffer should release heat in bursts when supercooled domains trigger neighboring domains through elastic contact.","test":"Measure phase and strain.","contrary":"Burst propagation persists without mechanical coupling equally.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0198","prediction":"A porous thermal buffer should release heat in bursts when supercooled domains trigger neighboring domains through elastic contact.","feasible_test":"Measure phase and strain.","contrary_outcome":"Burst propagation persists without mechanical coupling equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0199","id":"S5-0199","volume":"900v5","title":"A thin liquid layer should suppress a thermal hotspot by developing a local recirculating cell before bulk convection starts.","prediction":"A thin liquid layer should suppress a thermal hotspot by developing a local recirculating cell before bulk convection starts.","test":"Measure local flow and temperature.","contrary":"Hotspot suppression requires bulk convection.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0199","prediction":"A thin liquid layer should suppress a thermal hotspot by developing a local recirculating cell before bulk convection starts.","feasible_test":"Measure local flow and temperature.","contrary_outcome":"Hotspot suppression requires bulk convection.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0200","id":"S5-0200","volume":"900v5","title":"A flexible thermoelectric mount should improve output during cycling by preserving contact pressure through delayed creep recovery.","prediction":"A flexible thermoelectric mount should improve output during cycling by preserving contact pressure through delayed creep recovery.","test":"Measure pressure and voltage.","contrary":"Output follows temperature difference alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0200","prediction":"A flexible thermoelectric mount should improve output during cycling by preserving contact pressure through delayed creep recovery.","feasible_test":"Measure pressure and voltage.","contrary_outcome":"Output follows temperature difference alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0201","id":"S5-0201","volume":"900v5","title":"An adsorbing membrane should temporarily reverse heat flux after a humidity step because desorption cools one face.","prediction":"An adsorbing membrane should temporarily reverse heat flux after a humidity step because desorption cools one face.","test":"Measure both-face calorimetry.","contrary":"Flux never reverses after sensible-heat correction.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0201","prediction":"An adsorbing membrane should temporarily reverse heat flux after a humidity step because desorption cools one face.","feasible_test":"Measure both-face calorimetry.","contrary_outcome":"Flux never reverses after sensible-heat correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0202","id":"S5-0202","volume":"900v5","title":"A phase-change slurry should separate thermally active capsules from inactive ones through buoyancy during melting.","prediction":"A phase-change slurry should separate thermally active capsules from inactive ones through buoyancy during melting.","test":"Track phase and height.","contrary":"Vertical distributions remain phase-independent.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0202","prediction":"A phase-change slurry should separate thermally active capsules from inactive ones through buoyancy during melting.","feasible_test":"Track phase and height.","contrary_outcome":"Vertical distributions remain phase-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0203","id":"S5-0203","volume":"900v5","title":"A metallic-free thermal fuse should open through vapor pressure before its polymer softens.","prediction":"A metallic-free thermal fuse should open through vapor pressure before its polymer softens.","test":"Measure pocket pressure and modulus.","contrary":"Opening occurs only after softening.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0203","prediction":"A metallic-free thermal fuse should open through vapor pressure before its polymer softens.","feasible_test":"Measure pocket pressure and modulus.","contrary_outcome":"Opening occurs only after softening.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0204","id":"S5-0204","volume":"900v5","title":"A porous ceiling analogue should condense less water when warm vapor routes through mechanically opened vents.","prediction":"A porous ceiling analogue should condense less water when warm vapor routes through mechanically opened vents.","test":"Measure vent strain and condensate.","contrary":"Condensation reduction follows area alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0204","prediction":"A porous ceiling analogue should condense less water when warm vapor routes through mechanically opened vents.","feasible_test":"Measure vent strain and condensate.","contrary_outcome":"Condensation reduction follows area alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0205","id":"S5-0205","volume":"900v5","title":"A fluidic thermal memory should preserve pulse duration as the final position of a pinned melt boundary.","prediction":"A fluidic thermal memory should preserve pulse duration as the final position of a pinned melt boundary.","test":"Measure boundary after calibrated pulses.","contrary":"Position depends only on peak temperature.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0205","prediction":"A fluidic thermal memory should preserve pulse duration as the final position of a pinned melt boundary.","feasible_test":"Measure boundary after calibrated pulses.","contrary_outcome":"Position depends only on peak temperature.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0206","id":"S5-0206","volume":"900v5","title":"A heat pulse should cause a fiber bundle to twist through differential gas expansion in unequal lumens.","prediction":"A heat pulse should cause a fiber bundle to twist through differential gas expansion in unequal lumens.","test":"Measure lumen pressure and twist.","contrary":"Twist persists after all lumens are vented equally.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0206","prediction":"A heat pulse should cause a fiber bundle to twist through differential gas expansion in unequal lumens.","feasible_test":"Measure lumen pressure and twist.","contrary_outcome":"Twist persists after all lumens are vented equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0207","id":"S5-0207","volume":"900v5","title":"A wet rough surface should exhibit a heat-transfer minimum when droplets first form a continuous insulating vapor layer.","prediction":"A wet rough surface should exhibit a heat-transfer minimum when droplets first form a continuous insulating vapor layer.","test":"Map phase topology and heat flux.","contrary":"Flux lacks a connectivity-linked minimum.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0207","prediction":"A wet rough surface should exhibit a heat-transfer minimum when droplets first form a continuous insulating vapor layer.","feasible_test":"Map phase topology and heat flux.","contrary_outcome":"Flux lacks a connectivity-linked minimum.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0208","id":"S5-0208","volume":"900v5","title":"A thermal microcavity should convert slow heating into a fast pressure pulse through collective bubble merger.","prediction":"A thermal microcavity should convert slow heating into a fast pressure pulse through collective bubble merger.","test":"Measure bubbles and pressure.","contrary":"Pressure remains smooth through mergers.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0208","prediction":"A thermal microcavity should convert slow heating into a fast pressure pulse through collective bubble merger.","feasible_test":"Measure bubbles and pressure.","contrary_outcome":"Pressure remains smooth through mergers.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0209","id":"S5-0209","volume":"900v5","title":"A porous phase-change layer should resist thermal cycling damage when melt can migrate into expandable reservoirs.","prediction":"A porous phase-change layer should resist thermal cycling damage when melt can migrate into expandable reservoirs.","test":"Image melt and cracks.","contrary":"Reservoir access does not reduce damage.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0209","prediction":"A porous phase-change layer should resist thermal cycling damage when melt can migrate into expandable reservoirs.","feasible_test":"Image melt and cracks.","contrary_outcome":"Reservoir access does not reduce damage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0210","id":"S5-0210","volume":"900v5","title":"A conductive textile should recover local heating uniformity after stretching redistributes liquid-metal contacts.","prediction":"A conductive textile should recover local heating uniformity after stretching redistributes liquid-metal contacts.","test":"Map contacts and temperature.","contrary":"Uniformity recovery is contact-independent.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0210","prediction":"A conductive textile should recover local heating uniformity after stretching redistributes liquid-metal contacts.","feasible_test":"Map contacts and temperature.","contrary_outcome":"Uniformity recovery is contact-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0211","id":"S5-0211","volume":"900v5","title":"A soft ionic conductor should rectify alternating mechanical strain into net ion displacement when binding sites switch accessibility.","prediction":"A soft ionic conductor should rectify alternating mechanical strain into net ion displacement when binding sites switch accessibility.","test":"Measure ion profiles and current.","contrary":"Net displacement is zero.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0211","prediction":"A soft ionic conductor should rectify alternating mechanical strain into net ion displacement when binding sites switch accessibility.","feasible_test":"Measure ion profiles and current.","contrary_outcome":"Net displacement is zero.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0212","id":"S5-0212","volume":"900v5","title":"A charged porous film should retain a local potential minimum after water evaporates from its surface.","prediction":"A charged porous film should retain a local potential minimum after water evaporates from its surface.","test":"Map residual ions and potential.","contrary":"Potential becomes uniform upon drying.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0212","prediction":"A charged porous film should retain a local potential minimum after water evaporates from its surface.","feasible_test":"Map residual ions and potential.","contrary_outcome":"Potential becomes uniform upon drying.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0213","id":"S5-0213","volume":"900v5","title":"A redox-active fiber should twist when its outer layer exchanges ions faster than its core.","prediction":"A redox-active fiber should twist when its outer layer exchanges ions faster than its core.","test":"Measure radial composition and torsion.","contrary":"Twist is absent despite exchange asymmetry.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0213","prediction":"A redox-active fiber should twist when its outer layer exchanges ions faster than its core.","feasible_test":"Measure radial composition and torsion.","contrary_outcome":"Twist is absent despite exchange asymmetry.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0214","id":"S5-0214","volume":"900v5","title":"A capacitor should detect internal liquid cavitation through a sudden increase in dielectric loss.","prediction":"A capacitor should detect internal liquid cavitation through a sudden increase in dielectric loss.","test":"Measure loss and bubble imaging.","contrary":"Loss changes precede no cavitation-specific event.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0214","prediction":"A capacitor should detect internal liquid cavitation through a sudden increase in dielectric loss.","feasible_test":"Measure loss and bubble imaging.","contrary_outcome":"Loss changes precede no cavitation-specific event.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0215","id":"S5-0215","volume":"900v5","title":"A liquid-metal trace should become more fatigue-resistant after deliberate formation of reversible neck reservoirs.","prediction":"A liquid-metal trace should become more fatigue-resistant after deliberate formation of reversible neck reservoirs.","test":"Measure neck geometry and cycle life.","contrary":"Reservoirs do not extend life after cross-section matching.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0215","prediction":"A liquid-metal trace should become more fatigue-resistant after deliberate formation of reversible neck reservoirs.","feasible_test":"Measure neck geometry and cycle life.","contrary_outcome":"Reservoirs do not extend life after cross-section matching.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0216","id":"S5-0216","volume":"900v5","title":"A magnetically actuated membrane should pump ions by periodically exposing and shielding charged pores.","prediction":"A magnetically actuated membrane should pump ions by periodically exposing and shielding charged pores.","test":"Measure pore access and transport.","contrary":"Transport follows fluid advection alone.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0216","prediction":"A magnetically actuated membrane should pump ions by periodically exposing and shielding charged pores.","feasible_test":"Measure pore access and transport.","contrary_outcome":"Transport follows fluid advection alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0217","id":"S5-0217","volume":"900v5","title":"A soft electrode should release fouling particles when charge reversal changes interfacial swelling.","prediction":"A soft electrode should release fouling particles when charge reversal changes interfacial swelling.","test":"Measure swelling and detachment.","contrary":"Release is unchanged when swelling is constrained.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0217","prediction":"A soft electrode should release fouling particles when charge reversal changes interfacial swelling.","feasible_test":"Measure swelling and detachment.","contrary_outcome":"Release is unchanged when swelling is constrained.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0218","id":"S5-0218","volume":"900v5","title":"A dry powder capacitor should retain a pressure event as irreversible contact capacitance changes.","prediction":"A dry powder capacitor should retain a pressure event as irreversible contact capacitance changes.","test":"Measure contacts and capacitance after unloading.","contrary":"Capacitance returns uniquely to baseline.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0218","prediction":"A dry powder capacitor should retain a pressure event as irreversible contact capacitance changes.","feasible_test":"Measure contacts and capacitance after unloading.","contrary_outcome":"Capacitance returns uniquely to baseline.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0219","id":"S5-0219","volume":"900v5","title":"An ionic gel should generate a voltage pulse when a localized fracture abruptly releases bound counterions.","prediction":"An ionic gel should generate a voltage pulse when a localized fracture abruptly releases bound counterions.","test":"Measure ion release and voltage.","contrary":"Voltage follows electrode motion alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0219","prediction":"An ionic gel should generate a voltage pulse when a localized fracture abruptly releases bound counterions.","feasible_test":"Measure ion release and voltage.","contrary_outcome":"Voltage follows electrode motion alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0220","id":"S5-0220","volume":"900v5","title":"A flexible coil should distinguish bending from moisture through unequal phase shifts of its mechanical and electrical resonances.","prediction":"A flexible coil should distinguish bending from moisture through unequal phase shifts of its mechanical and electrical resonances.","test":"Calibrate both inputs.","contrary":"Responses remain degenerate.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0220","prediction":"A flexible coil should distinguish bending from moisture through unequal phase shifts of its mechanical and electrical resonances.","feasible_test":"Calibrate both inputs.","contrary_outcome":"Responses remain degenerate.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0221","id":"S5-0221","volume":"900v5","title":"A porous electret should show delayed discharge after vapor arrival because water must cross a connectivity threshold.","prediction":"A porous electret should show delayed discharge after vapor arrival because water must cross a connectivity threshold.","test":"Map water and charge decay.","contrary":"Discharge begins immediately with adsorption.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0221","prediction":"A porous electret should show delayed discharge after vapor arrival because water must cross a connectivity threshold.","feasible_test":"Map water and charge decay.","contrary_outcome":"Discharge begins immediately with adsorption.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0222","id":"S5-0222","volume":"900v5","title":"A conductive droplet should roll across an insulating surface when charge accumulates asymmetrically at a pinned contact line.","prediction":"A conductive droplet should roll across an insulating surface when charge accumulates asymmetrically at a pinned contact line.","test":"Map charge and motion.","contrary":"Rolling persists without contact-line charge asymmetry.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0222","prediction":"A conductive droplet should roll across an insulating surface when charge accumulates asymmetrically at a pinned contact line.","feasible_test":"Map charge and motion.","contrary_outcome":"Rolling persists without contact-line charge asymmetry.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0223","id":"S5-0223","volume":"900v5","title":"A magnetized porous solid should trap particles more strongly after wetting moves them into high-gradient contact regions.","prediction":"A magnetized porous solid should trap particles more strongly after wetting moves them into high-gradient contact regions.","test":"Image liquid and particle positions.","contrary":"Capture follows field strength without wetting effects.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0223","prediction":"A magnetized porous solid should trap particles more strongly after wetting moves them into high-gradient contact regions.","feasible_test":"Image liquid and particle positions.","contrary_outcome":"Capture follows field strength without wetting effects.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0224","id":"S5-0224","volume":"900v5","title":"A polymer electrolyte should exhibit a conductivity maximum during rapid stretching because aligned channels later disconnect.","prediction":"A polymer electrolyte should exhibit a conductivity maximum during rapid stretching because aligned channels later disconnect.","test":"Measure channels and conductivity.","contrary":"Conductivity changes monotonically.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0224","prediction":"A polymer electrolyte should exhibit a conductivity maximum during rapid stretching because aligned channels later disconnect.","feasible_test":"Measure channels and conductivity.","contrary_outcome":"Conductivity changes monotonically.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0225","id":"S5-0225","volume":"900v5","title":"A soft electrochemical junction should retain rectification after external bias ends through slow ion-binding relaxation.","prediction":"A soft electrochemical junction should retain rectification after external bias ends through slow ion-binding relaxation.","test":"Measure ion state and current-voltage curves.","contrary":"Rectification vanishes immediately.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0225","prediction":"A soft electrochemical junction should retain rectification after external bias ends through slow ion-binding relaxation.","feasible_test":"Measure ion state and current-voltage curves.","contrary_outcome":"Rectification vanishes immediately.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0226","id":"S5-0226","volume":"900v5","title":"A piezoelectric fiber mat should harvest more energy from irregular impulses when contact rearrangements prevent synchronized rebound.","prediction":"A piezoelectric fiber mat should harvest more energy from irregular impulses when contact rearrangements prevent synchronized rebound.","test":"Measure contacts and energy.","contrary":"Gains follow stiffness alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0226","prediction":"A piezoelectric fiber mat should harvest more energy from irregular impulses when contact rearrangements prevent synchronized rebound.","feasible_test":"Measure contacts and energy.","contrary_outcome":"Gains follow stiffness alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0227","id":"S5-0227","volume":"900v5","title":"A liquid electrode should identify a pressure wave through spatially separated surface-charge peaks.","prediction":"A liquid electrode should identify a pressure wave through spatially separated surface-charge peaks.","test":"Map charge and pressure.","contrary":"Charge remains uniform.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0227","prediction":"A liquid electrode should identify a pressure wave through spatially separated surface-charge peaks.","feasible_test":"Map charge and pressure.","contrary_outcome":"Charge remains uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0228","id":"S5-0228","volume":"900v5","title":"A redox membrane should create an advancing adhesion front when oxidation changes its interfacial affinity.","prediction":"A redox membrane should create an advancing adhesion front when oxidation changes its interfacial affinity.","test":"Measure redox and contact area.","contrary":"Adhesion changes globally without propagation.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0228","prediction":"A redox membrane should create an advancing adhesion front when oxidation changes its interfacial affinity.","feasible_test":"Measure redox and contact area.","contrary_outcome":"Adhesion changes globally without propagation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0229","id":"S5-0229","volume":"900v5","title":"A mechanically damaged ionic film should recover transport first along compressed crack edges.","prediction":"A mechanically damaged ionic film should recover transport first along compressed crack edges.","test":"Map conductivity during healing.","contrary":"Recovery is spatially uniform.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0229","prediction":"A mechanically damaged ionic film should recover transport first along compressed crack edges.","feasible_test":"Map conductivity during healing.","contrary_outcome":"Recovery is spatially uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0230","id":"S5-0230","volume":"900v5","title":"A porous capacitor should reveal trapped-gas migration through correlated capacitance fluctuations between electrodes.","prediction":"A porous capacitor should reveal trapped-gas migration through correlated capacitance fluctuations between electrodes.","test":"Image gas and electrical correlations.","contrary":"Fluctuations cannot locate migration.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0230","prediction":"A porous capacitor should reveal trapped-gas migration through correlated capacitance fluctuations between electrodes.","feasible_test":"Image gas and electrical correlations.","contrary_outcome":"Fluctuations cannot locate migration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0231","id":"S5-0231","volume":"900v5","title":"An electric-field-driven particle ribbon should fold into a stable helix when field removal is timed to contact formation.","prediction":"An electric-field-driven particle ribbon should fold into a stable helix when field removal is timed to contact formation.","test":"Measure contact chronology and shape.","contrary":"Helix yield is timing-independent.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0231","prediction":"An electric-field-driven particle ribbon should fold into a stable helix when field removal is timed to contact formation.","feasible_test":"Measure contact chronology and shape.","contrary_outcome":"Helix yield is timing-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0232","id":"S5-0232","volume":"900v5","title":"A conductive gel should retain electrical continuity through a growing void when mobile particles concentrate at its rim.","prediction":"A conductive gel should retain electrical continuity through a growing void when mobile particles concentrate at its rim.","test":"Map particles and current.","contrary":"Continuity fails despite rim enrichment.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0232","prediction":"A conductive gel should retain electrical continuity through a growing void when mobile particles concentrate at its rim.","feasible_test":"Map particles and current.","contrary_outcome":"Continuity fails despite rim enrichment.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0233","id":"S5-0233","volume":"900v5","title":"A charged liquid bridge should resist rupture more strongly when ion exchange slows surface relaxation.","prediction":"A charged liquid bridge should resist rupture more strongly when ion exchange slows surface relaxation.","test":"Measure ion kinetics and force.","contrary":"Resistance follows surface tension alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0233","prediction":"A charged liquid bridge should resist rupture more strongly when ion exchange slows surface relaxation.","feasible_test":"Measure ion kinetics and force.","contrary_outcome":"Resistance follows surface tension alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0234","id":"S5-0234","volume":"900v5","title":"A soft magnetic lattice should attenuate vibrations selectively after local field cycling changes contact preload.","prediction":"A soft magnetic lattice should attenuate vibrations selectively after local field cycling changes contact preload.","test":"Map preload and transmission.","contrary":"Attenuation is unchanged after preload shifts.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0234","prediction":"A soft magnetic lattice should attenuate vibrations selectively after local field cycling changes contact preload.","feasible_test":"Map preload and transmission.","contrary_outcome":"Attenuation is unchanged after preload shifts.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0235","id":"S5-0235","volume":"900v5","title":"A porous ionic sensor should distinguish a concentration pulse from a pressure pulse through the order of current extrema.","prediction":"A porous ionic sensor should distinguish a concentration pulse from a pressure pulse through the order of current extrema.","test":"Apply blinded inputs.","contrary":"Extrema order is input-independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0235","prediction":"A porous ionic sensor should distinguish a concentration pulse from a pressure pulse through the order of current extrema.","feasible_test":"Apply blinded inputs.","contrary_outcome":"Extrema order is input-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0236","id":"S5-0236","volume":"900v5","title":"A dielectric elastomer should develop a persistent voltage offset after cyclic bending redistributes trapped charge.","prediction":"A dielectric elastomer should develop a persistent voltage offset after cyclic bending redistributes trapped charge.","test":"Map charge and potential.","contrary":"Offset vanishes after strain removal.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0236","prediction":"A dielectric elastomer should develop a persistent voltage offset after cyclic bending redistributes trapped charge.","feasible_test":"Map charge and potential.","contrary_outcome":"Offset vanishes after strain removal.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0237","id":"S5-0237","volume":"900v5","title":"A redox-active coating should store a mechanical compression history through unequal access to buried reactive sites.","prediction":"A redox-active coating should store a mechanical compression history through unequal access to buried reactive sites.","test":"Measure site occupancy and compression history.","contrary":"Occupancy depends only on final potential.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0237","prediction":"A redox-active coating should store a mechanical compression history through unequal access to buried reactive sites.","feasible_test":"Measure site occupancy and compression history.","contrary_outcome":"Occupancy depends only on final potential.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0238","id":"S5-0238","volume":"900v5","title":"A flexible conductor should detect imminent delamination through intermittent inductance changes from moving current loops.","prediction":"A flexible conductor should detect imminent delamination through intermittent inductance changes from moving current loops.","test":"Measure loops and impedance.","contrary":"Changes occur only after complete separation.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0238","prediction":"A flexible conductor should detect imminent delamination through intermittent inductance changes from moving current loops.","feasible_test":"Measure loops and impedance.","contrary_outcome":"Changes occur only after complete separation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0239","id":"S5-0239","volume":"900v5","title":"A liquid-metal cavity should self-center under an alternating field when oxide friction produces asymmetric slip.","prediction":"A liquid-metal cavity should self-center under an alternating field when oxide friction produces asymmetric slip.","test":"Measure slip and position.","contrary":"Centering is oxide-friction independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0239","prediction":"A liquid-metal cavity should self-center under an alternating field when oxide friction produces asymmetric slip.","feasible_test":"Measure slip and position.","contrary_outcome":"Centering is oxide-friction independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0240","id":"S5-0240","volume":"900v5","title":"A membrane capacitor should measure fluid direction through asymmetric streaming-potential relaxation.","prediction":"A membrane capacitor should measure fluid direction through asymmetric streaming-potential relaxation.","test":"Reverse flow at matched speeds.","contrary":"Relaxation lacks directional information.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0240","prediction":"A membrane capacitor should measure fluid direction through asymmetric streaming-potential relaxation.","feasible_test":"Reverse flow at matched speeds.","contrary_outcome":"Relaxation lacks directional information.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0241","id":"S5-0241","volume":"900v5","title":"A suspended colloid should retain a rotational temperature above its translational temperature under nonuniform acoustic forcing.","prediction":"A suspended colloid should retain a rotational temperature above its translational temperature under nonuniform acoustic forcing.","test":"Measure both fluctuation spectra.","contrary":"Temperatures agree after calibration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0241","prediction":"A suspended colloid should retain a rotational temperature above its translational temperature under nonuniform acoustic forcing.","feasible_test":"Measure both fluctuation spectra.","contrary_outcome":"Temperatures agree after calibration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0242","id":"S5-0242","volume":"900v5","title":"A droplet should avoid a hot spot through a coupled evaporation-recoil instability before thermocapillary circulation dominates.","prediction":"A droplet should avoid a hot spot through a coupled evaporation-recoil instability before thermocapillary circulation dominates.","test":"Measure recoil and flow timing.","contrary":"Motion begins only with circulation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0242","prediction":"A droplet should avoid a hot spot through a coupled evaporation-recoil instability before thermocapillary circulation dominates.","feasible_test":"Measure recoil and flow timing.","contrary_outcome":"Motion begins only with circulation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0243","id":"S5-0243","volume":"900v5","title":"A soft particle should migrate toward lower shear through delayed shape recovery in oscillatory flow.","prediction":"A soft particle should migrate toward lower shear through delayed shape recovery in oscillatory flow.","test":"Measure deformation phase and trajectory.","contrary":"Migration is independent of recovery time.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0243","prediction":"A soft particle should migrate toward lower shear through delayed shape recovery in oscillatory flow.","feasible_test":"Measure deformation phase and trajectory.","contrary_outcome":"Migration is independent of recovery time.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0244","id":"S5-0244","volume":"900v5","title":"A non-Brownian suspension should display apparent diffusion from reversible contact-network switching.","prediction":"A non-Brownian suspension should display apparent diffusion from reversible contact-network switching.","test":"Track trajectories and contacts.","contrary":"Displacements vanish when cycles are reversed.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0244","prediction":"A non-Brownian suspension should display apparent diffusion from reversible contact-network switching.","feasible_test":"Track trajectories and contacts.","contrary_outcome":"Displacements vanish when cycles are reversed.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0245","id":"S5-0245","volume":"900v5","title":"A granular rotor should select a direction spontaneously when asymmetric friction amplifies initial noise.","prediction":"A granular rotor should select a direction spontaneously when asymmetric friction amplifies initial noise.","test":"Measure rotation across repeated unbiased starts.","contrary":"Direction remains externally imposed or motionless.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0245","prediction":"A granular rotor should select a direction spontaneously when asymmetric friction amplifies initial noise.","feasible_test":"Measure rotation across repeated unbiased starts.","contrary_outcome":"Direction remains externally imposed or motionless.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0246","id":"S5-0246","volume":"900v5","title":"A weakly driven elastic network should concentrate fluctuations near a structurally soft boundary.","prediction":"A weakly driven elastic network should concentrate fluctuations near a structurally soft boundary.","test":"Map displacement spectra.","contrary":"Fluctuations follow local temperature alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0246","prediction":"A weakly driven elastic network should concentrate fluctuations near a structurally soft boundary.","feasible_test":"Map displacement spectra.","contrary_outcome":"Fluctuations follow local temperature alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0247","id":"S5-0247","volume":"900v5","title":"A liquid bridge should exhibit intermittency near rupture because adsorption and neck thinning compete.","prediction":"A liquid bridge should exhibit intermittency near rupture because adsorption and neck thinning compete.","test":"Measure adsorption and neck radius.","contrary":"Thinning remains smooth after drift correction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0247","prediction":"A liquid bridge should exhibit intermittency near rupture because adsorption and neck thinning compete.","feasible_test":"Measure adsorption and neck radius.","contrary_outcome":"Thinning remains smooth after drift correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0248","id":"S5-0248","volume":"900v5","title":"A confined droplet should show a preferred oscillation phase after a noise pulse temporarily changes wall contact.","prediction":"A confined droplet should show a preferred oscillation phase after a noise pulse temporarily changes wall contact.","test":"Measure phase and contact state.","contrary":"Phase resets randomly.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0248","prediction":"A confined droplet should show a preferred oscillation phase after a noise pulse temporarily changes wall contact.","feasible_test":"Measure phase and contact state.","contrary_outcome":"Phase resets randomly.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0249","id":"S5-0249","volume":"900v5","title":"A particle monolayer should produce long-lived displacement correlations after local bond removal.","prediction":"A particle monolayer should produce long-lived displacement correlations after local bond removal.","test":"Map correlated motion.","contrary":"Correlations decay within independent-particle expectations.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0249","prediction":"A particle monolayer should produce long-lived displacement correlations after local bond removal.","feasible_test":"Map correlated motion.","contrary_outcome":"Correlations decay within independent-particle expectations.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0250","id":"S5-0250","volume":"900v5","title":"A soft cavity should amplify weak pressure noise near buckling without improving signal-to-noise ratio.","prediction":"A soft cavity should amplify weak pressure noise near buckling without improving signal-to-noise ratio.","test":"Measure transfer and noise spectra.","contrary":"Noise amplification is absent or unequal.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0250","prediction":"A soft cavity should amplify weak pressure noise near buckling without improving signal-to-noise ratio.","feasible_test":"Measure transfer and noise spectra.","contrary_outcome":"Noise amplification is absent or unequal.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0251","id":"S5-0251","volume":"900v5","title":"A capillary lattice should exhibit avalanches whose cutoff shifts with liquid-reservoir connectivity.","prediction":"A capillary lattice should exhibit avalanches whose cutoff shifts with liquid-reservoir connectivity.","test":"Measure event sizes and topology.","contrary":"Cutoffs follow lattice size alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0251","prediction":"A capillary lattice should exhibit avalanches whose cutoff shifts with liquid-reservoir connectivity.","feasible_test":"Measure event sizes and topology.","contrary_outcome":"Cutoffs follow lattice size alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0252","id":"S5-0252","volume":"900v5","title":"A molecular assembly should retain a broad relaxation spectrum because local environments exchange slower than bond lifetimes.","prediction":"A molecular assembly should retain a broad relaxation spectrum because local environments exchange slower than bond lifetimes.","test":"Measure environment and bond dynamics.","contrary":"Relaxation is single-exponential despite slow exchange.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0252","prediction":"A molecular assembly should retain a broad relaxation spectrum because local environments exchange slower than bond lifetimes.","feasible_test":"Measure environment and bond dynamics.","contrary_outcome":"Relaxation is single-exponential despite slow exchange.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0253","id":"S5-0253","volume":"900v5","title":"A flexible particle chain should cross a barrier faster under colored noise than white noise at equal variance.","prediction":"A flexible particle chain should cross a barrier faster under colored noise than white noise at equal variance.","test":"Measure escape with calibrated forcing.","contrary":"Escape rates are noise-correlation independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0253","prediction":"A flexible particle chain should cross a barrier faster under colored noise than white noise at equal variance.","feasible_test":"Measure escape with calibrated forcing.","contrary_outcome":"Escape rates are noise-correlation independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0254","id":"S5-0254","volume":"900v5","title":"A porous membrane should show transient spatial order when independent pore closures become pressure-coupled.","prediction":"A porous membrane should show transient spatial order when independent pore closures become pressure-coupled.","test":"Map closures and pressure.","contrary":"Closure positions remain independent.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0254","prediction":"A porous membrane should show transient spatial order when independent pore closures become pressure-coupled.","feasible_test":"Map closures and pressure.","contrary_outcome":"Closure positions remain independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0255","id":"S5-0255","volume":"900v5","title":"A granular film should develop a low-noise state after repeated drive anneals its strongest force chains.","prediction":"A granular film should develop a low-noise state after repeated drive anneals its strongest force chains.","test":"Measure force and noise.","contrary":"Noise reduction lacks force-chain reorganization.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0255","prediction":"A granular film should develop a low-noise state after repeated drive anneals its strongest force chains.","feasible_test":"Measure force and noise.","contrary_outcome":"Noise reduction lacks force-chain reorganization.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0256","id":"S5-0256","volume":"900v5","title":"A coalescing droplet population should retain nonexponential waiting times from mechanically aging interfaces.","prediction":"A coalescing droplet population should retain nonexponential waiting times from mechanically aging interfaces.","test":"Measure interface age and event intervals.","contrary":"Waiting times match memoryless kinetics.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0256","prediction":"A coalescing droplet population should retain nonexponential waiting times from mechanically aging interfaces.","feasible_test":"Measure interface age and event intervals.","contrary_outcome":"Waiting times match memoryless kinetics.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0257","id":"S5-0257","volume":"900v5","title":"A compliant tube should display a critical slowing of recoil before its collapse threshold.","prediction":"A compliant tube should display a critical slowing of recoil before its collapse threshold.","test":"Measure recovery after small perturbations.","contrary":"Relaxation time remains bounded and unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0257","prediction":"A compliant tube should display a critical slowing of recoil before its collapse threshold.","feasible_test":"Measure recovery after small perturbations.","contrary_outcome":"Relaxation time remains bounded and unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0258","id":"S5-0258","volume":"900v5","title":"A colloidal crystal should reveal an impending defect avalanche through increased rotational correlations.","prediction":"A colloidal crystal should reveal an impending defect avalanche through increased rotational correlations.","test":"Measure orientations before events.","contrary":"Correlations rise only afterward.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0258","prediction":"A colloidal crystal should reveal an impending defect avalanche through increased rotational correlations.","feasible_test":"Measure orientations before events.","contrary_outcome":"Correlations rise only afterward.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0259","id":"S5-0259","volume":"900v5","title":"A wet fiber network should switch between two conductance states through cooperative bridge migration.","prediction":"A wet fiber network should switch between two conductance states through cooperative bridge migration.","test":"Image bridges and flow.","contrary":"Conductance fluctuates continuously without distinct states.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0259","prediction":"A wet fiber network should switch between two conductance states through cooperative bridge migration.","feasible_test":"Image bridges and flow.","contrary_outcome":"Conductance fluctuates continuously without distinct states.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0260","id":"S5-0260","volume":"900v5","title":"A reactive interface should preserve oscillation phase through a brief interruption when a bound intermediate stores its state.","prediction":"A reactive interface should preserve oscillation phase through a brief interruption when a bound intermediate stores its state.","test":"Measure phase and intermediate.","contrary":"Restart phase is random.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0260","prediction":"A reactive interface should preserve oscillation phase through a brief interruption when a bound intermediate stores its state.","feasible_test":"Measure phase and intermediate.","contrary_outcome":"Restart phase is random.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0261","id":"S5-0261","volume":"900v5","title":"A dissipative particle assembly should change its dominant relaxation mode when one boundary becomes mobile.","prediction":"A dissipative particle assembly should change its dominant relaxation mode when one boundary becomes mobile.","test":"Measure eigenmodes experimentally.","contrary":"Modes remain boundary-independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0261","prediction":"A dissipative particle assembly should change its dominant relaxation mode when one boundary becomes mobile.","feasible_test":"Measure eigenmodes experimentally.","contrary_outcome":"Modes remain boundary-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0262","id":"S5-0262","volume":"900v5","title":"A soft contact should show return-point memory only while its contact topology remains unchanged.","prediction":"A soft contact should show return-point memory only while its contact topology remains unchanged.","test":"Measure nested load cycles and contacts.","contrary":"Memory survives topology changes equally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0262","prediction":"A soft contact should show return-point memory only while its contact topology remains unchanged.","feasible_test":"Measure nested load cycles and contacts.","contrary_outcome":"Memory survives topology changes equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0263","id":"S5-0263","volume":"900v5","title":"A liquid-filled lattice should transmit a stochastic impulse more reliably when weak noise depins blocked menisci.","prediction":"A liquid-filled lattice should transmit a stochastic impulse more reliably when weak noise depins blocked menisci.","test":"Measure event detection versus noise amplitude.","contrary":"Reliability never exceeds the zero-noise baseline.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0263","prediction":"A liquid-filled lattice should transmit a stochastic impulse more reliably when weak noise depins blocked menisci.","feasible_test":"Measure event detection versus noise amplitude.","contrary_outcome":"Reliability never exceeds the zero-noise baseline.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0264","id":"S5-0264","volume":"900v5","title":"A suspended membrane should exhibit correlated frequency jumps when adsorbed patches exchange stress.","prediction":"A suspended membrane should exhibit correlated frequency jumps when adsorbed patches exchange stress.","test":"Measure patch occupancy and modes.","contrary":"Jumps remain independent across modes.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0264","prediction":"A suspended membrane should exhibit correlated frequency jumps when adsorbed patches exchange stress.","feasible_test":"Measure patch occupancy and modes.","contrary_outcome":"Jumps remain independent across modes.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0265","id":"S5-0265","volume":"900v5","title":"A colloidal gel should have a mechanically selected aging clock that resets after network-spanning rearrangement.","prediction":"A colloidal gel should have a mechanically selected aging clock that resets after network-spanning rearrangement.","test":"Track dynamics and connectivity.","contrary":"Aging continues unchanged across rearrangements.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0265","prediction":"A colloidal gel should have a mechanically selected aging clock that resets after network-spanning rearrangement.","feasible_test":"Track dynamics and connectivity.","contrary_outcome":"Aging continues unchanged across rearrangements.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0266","id":"S5-0266","volume":"900v5","title":"A thin-film oscillator should retain frequency after mass loss if tension increases in compensation.","prediction":"A thin-film oscillator should retain frequency after mass loss if tension increases in compensation.","test":"Measure mass, tension and resonance.","contrary":"Frequency shifts with uncompensated mass change.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0266","prediction":"A thin-film oscillator should retain frequency after mass loss if tension increases in compensation.","feasible_test":"Measure mass, tension and resonance.","contrary_outcome":"Frequency shifts with uncompensated mass change.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0267","id":"S5-0267","volume":"900v5","title":"A granular valve should fail unpredictably near a jamming threshold but become reproducible after a controlled preconditioning pulse.","prediction":"A granular valve should fail unpredictably near a jamming threshold but become reproducible after a controlled preconditioning pulse.","test":"Measure distributions before and after pulse.","contrary":"Failure variability remains unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0267","prediction":"A granular valve should fail unpredictably near a jamming threshold but become reproducible after a controlled preconditioning pulse.","feasible_test":"Measure distributions before and after pulse.","contrary_outcome":"Failure variability remains unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0268","id":"S5-0268","volume":"900v5","title":"A charged droplet pair should synchronize shape noise through ion exchange across a transient liquid bridge.","prediction":"A charged droplet pair should synchronize shape noise through ion exchange across a transient liquid bridge.","test":"Measure fluctuations with bridge controls.","contrary":"Correlations match uncoupled noise.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0268","prediction":"A charged droplet pair should synchronize shape noise through ion exchange across a transient liquid bridge.","feasible_test":"Measure fluctuations with bridge controls.","contrary_outcome":"Correlations match uncoupled noise.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0269","id":"S5-0269","volume":"900v5","title":"A passive mechanical counter should accumulate only impulses separated by sufficient recovery time.","prediction":"A passive mechanical counter should accumulate only impulses separated by sufficient recovery time.","test":"Apply varied pulse intervals and read state.","contrary":"Count depends only on total impulse.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0269","prediction":"A passive mechanical counter should accumulate only impulses separated by sufficient recovery time.","feasible_test":"Apply varied pulse intervals and read state.","contrary_outcome":"Count depends only on total impulse.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0270","id":"S5-0270","volume":"900v5","title":"A reaction-driven gel should display a measurable fluctuation precursor to macroscopic oscillation onset.","prediction":"A reaction-driven gel should display a measurable fluctuation precursor to macroscopic oscillation onset.","test":"Measure chemical and mechanical spectra.","contrary":"Oscillations appear without spectral precursors.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0270","prediction":"A reaction-driven gel should display a measurable fluctuation precursor to macroscopic oscillation onset.","feasible_test":"Measure chemical and mechanical spectra.","contrary_outcome":"Oscillations appear without spectral precursors.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0271","id":"S5-0271","volume":"900v5","title":"A supported molecular rotor should stall at a hydration boundary because its drag changes faster than its driving torque.","prediction":"A supported molecular rotor should stall at a hydration boundary because its drag changes faster than its driving torque.","test":"Measure rotor speed and local water.","contrary":"Speed remains hydration-independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0271","prediction":"A supported molecular rotor should stall at a hydration boundary because its drag changes faster than its driving torque.","feasible_test":"Measure rotor speed and local water.","contrary_outcome":"Speed remains hydration-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0272","id":"S5-0272","volume":"900v5","title":"A nanoporous crystal should expel a guest selectively when mechanical compression closes its most strongly binding cavities.","prediction":"A nanoporous crystal should expel a guest selectively when mechanical compression closes its most strongly binding cavities.","test":"Measure guest identity and cavity volume.","contrary":"Release follows guest abundance alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0272","prediction":"A nanoporous crystal should expel a guest selectively when mechanical compression closes its most strongly binding cavities.","feasible_test":"Measure guest identity and cavity volume.","contrary_outcome":"Release follows guest abundance alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0273","id":"S5-0273","volume":"900v5","title":"A reversible polymer should concentrate branch points near a stressed crack through bond exchange.","prediction":"A reversible polymer should concentrate branch points near a stressed crack through bond exchange.","test":"Map labeled branch points and stress.","contrary":"Branch points remain spatially fixed.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0273","prediction":"A reversible polymer should concentrate branch points near a stressed crack through bond exchange.","feasible_test":"Map labeled branch points and stress.","contrary_outcome":"Branch points remain spatially fixed.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0274","id":"S5-0274","volume":"900v5","title":"A molecular film should develop a transport shortcut along a moving phase boundary.","prediction":"A molecular film should develop a transport shortcut along a moving phase boundary.","test":"Measure flux and phase position.","contrary":"Flux follows bulk phase fractions only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0274","prediction":"A molecular film should develop a transport shortcut along a moving phase boundary.","feasible_test":"Measure flux and phase position.","contrary_outcome":"Flux follows bulk phase fractions only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0275","id":"S5-0275","volume":"900v5","title":"A catalyst should become temporarily more selective after a pressure pulse expels an inhibitory solvent from its pores.","prediction":"A catalyst should become temporarily more selective after a pressure pulse expels an inhibitory solvent from its pores.","test":"Measure solvent occupancy and products.","contrary":"Selectivity changes without solvent displacement.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0275","prediction":"A catalyst should become temporarily more selective after a pressure pulse expels an inhibitory solvent from its pores.","feasible_test":"Measure solvent occupancy and products.","contrary_outcome":"Selectivity changes without solvent displacement.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0276","id":"S5-0276","volume":"900v5","title":"A polymer-bound chromophore should recover fluorescence after strain releases a stacked aggregate.","prediction":"A polymer-bound chromophore should recover fluorescence after strain releases a stacked aggregate.","test":"Measure molecular spacing and emission.","contrary":"Recovery persists without stack separation.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0276","prediction":"A polymer-bound chromophore should recover fluorescence after strain releases a stacked aggregate.","feasible_test":"Measure molecular spacing and emission.","contrary_outcome":"Recovery persists without stack separation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0277","id":"S5-0277","volume":"900v5","title":"A porous adsorbent should capture a short contaminant pulse better when reversible swelling narrows its exit pores.","prediction":"A porous adsorbent should capture a short contaminant pulse better when reversible swelling narrows its exit pores.","test":"Measure swelling and breakthrough.","contrary":"Capture depends only on equilibrium capacity.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0277","prediction":"A porous adsorbent should capture a short contaminant pulse better when reversible swelling narrows its exit pores.","feasible_test":"Measure swelling and breakthrough.","contrary_outcome":"Capture depends only on equilibrium capacity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0278","id":"S5-0278","volume":"900v5","title":"A host-guest network should transmit a chemical signal preferentially along a tensioned path.","prediction":"A host-guest network should transmit a chemical signal preferentially along a tensioned path.","test":"Map binding exchange and front propagation.","contrary":"Tension leaves propagation isotropic.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0278","prediction":"A host-guest network should transmit a chemical signal preferentially along a tensioned path.","feasible_test":"Map binding exchange and front propagation.","contrary_outcome":"Tension leaves propagation isotropic.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0279","id":"S5-0279","volume":"900v5","title":"A reaction-generated film should halt droplet coalescence before visibly covering the entire interface.","prediction":"A reaction-generated film should halt droplet coalescence before visibly covering the entire interface.","test":"Measure coverage and collision outcome.","contrary":"Protection requires complete visible coverage.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0279","prediction":"A reaction-generated film should halt droplet coalescence before visibly covering the entire interface.","feasible_test":"Measure coverage and collision outcome.","contrary_outcome":"Protection requires complete visible coverage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0280","id":"S5-0280","volume":"900v5","title":"A confined polymer should segregate its long chains near a moving elastic wall.","prediction":"A confined polymer should segregate its long chains near a moving elastic wall.","test":"Measure chain-length profiles.","contrary":"Profiles match static confinement.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0280","prediction":"A confined polymer should segregate its long chains near a moving elastic wall.","feasible_test":"Measure chain-length profiles.","contrary_outcome":"Profiles match static confinement.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0281","id":"S5-0281","volume":"900v5","title":"A molecular crystal should bend away from a vapor source when adsorption creates compressive stress on its exposed face.","prediction":"A molecular crystal should bend away from a vapor source when adsorption creates compressive stress on its exposed face.","test":"Measure adsorption and curvature.","contrary":"Bending follows temperature gradients alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0281","prediction":"A molecular crystal should bend away from a vapor source when adsorption creates compressive stress on its exposed face.","feasible_test":"Measure adsorption and curvature.","contrary_outcome":"Bending follows temperature gradients alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0282","id":"S5-0282","volume":"900v5","title":"A catalyst-coated bead should propel by periodically shedding an adsorbed inhibitor patch.","prediction":"A catalyst-coated bead should propel by periodically shedding an adsorbed inhibitor patch.","test":"Track patches and velocity.","contrary":"Velocity bursts lack patch shedding.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0282","prediction":"A catalyst-coated bead should propel by periodically shedding an adsorbed inhibitor patch.","feasible_test":"Track patches and velocity.","contrary_outcome":"Velocity bursts lack patch shedding.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0283","id":"S5-0283","volume":"900v5","title":"A mixed-solvent gel should sort dissolved molecules during contraction by unequal solvent affinity.","prediction":"A mixed-solvent gel should sort dissolved molecules during contraction by unequal solvent affinity.","test":"Measure solvent and solute profiles.","contrary":"Sorting follows molecular size alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0283","prediction":"A mixed-solvent gel should sort dissolved molecules during contraction by unequal solvent affinity.","feasible_test":"Measure solvent and solute profiles.","contrary_outcome":"Sorting follows molecular size alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0284","id":"S5-0284","volume":"900v5","title":"A molecularly imprinted pore should lose selectivity under shear when its binding geometry distorts.","prediction":"A molecularly imprinted pore should lose selectivity under shear when its binding geometry distorts.","test":"Measure pore conformation and uptake.","contrary":"Selectivity is shear-independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0284","prediction":"A molecularly imprinted pore should lose selectivity under shear when its binding geometry distorts.","feasible_test":"Measure pore conformation and uptake.","contrary_outcome":"Selectivity is shear-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0285","id":"S5-0285","volume":"900v5","title":"A reactive coating should repair a pinhole more efficiently when local flow delivers its crosslinker to exposed edges.","prediction":"A reactive coating should repair a pinhole more efficiently when local flow delivers its crosslinker to exposed edges.","test":"Measure crosslinker and sealing.","contrary":"Sealing follows uniform bulk reaction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0285","prediction":"A reactive coating should repair a pinhole more efficiently when local flow delivers its crosslinker to exposed edges.","feasible_test":"Measure crosslinker and sealing.","contrary_outcome":"Sealing follows uniform bulk reaction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0286","id":"S5-0286","volume":"900v5","title":"A polymer brush should retain a solvent-composition pattern after temperature returns to baseline.","prediction":"A polymer brush should retain a solvent-composition pattern after temperature returns to baseline.","test":"Map solvent and brush height.","contrary":"Composition equilibrates immediately.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0286","prediction":"A polymer brush should retain a solvent-composition pattern after temperature returns to baseline.","feasible_test":"Map solvent and brush height.","contrary_outcome":"Composition equilibrates immediately.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0287","id":"S5-0287","volume":"900v5","title":"A phase-separated catalyst should show delayed activation when its reactant first wets an inactive outer phase.","prediction":"A phase-separated catalyst should show delayed activation when its reactant first wets an inactive outer phase.","test":"Map wetting and reaction onset.","contrary":"Activation precedes outer-phase penetration.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0287","prediction":"A phase-separated catalyst should show delayed activation when its reactant first wets an inactive outer phase.","feasible_test":"Map wetting and reaction onset.","contrary_outcome":"Activation precedes outer-phase penetration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0288","id":"S5-0288","volume":"900v5","title":"A covalent adaptable film should resist delamination through stress-directed bond exchange at its interface.","prediction":"A covalent adaptable film should resist delamination through stress-directed bond exchange at its interface.","test":"Measure exchange and fracture.","contrary":"Resistance persists equally with exchange arrested.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0288","prediction":"A covalent adaptable film should resist delamination through stress-directed bond exchange at its interface.","feasible_test":"Measure exchange and fracture.","contrary_outcome":"Resistance persists equally with exchange arrested.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0289","id":"S5-0289","volume":"900v5","title":"A molecular capsule should leak less under weak vibration when building blocks anneal into tighter packing.","prediction":"A molecular capsule should leak less under weak vibration when building blocks anneal into tighter packing.","test":"Measure packing and leakage.","contrary":"Vibration only increases leakage.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0289","prediction":"A molecular capsule should leak less under weak vibration when building blocks anneal into tighter packing.","feasible_test":"Measure packing and leakage.","contrary_outcome":"Vibration only increases leakage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0290","id":"S5-0290","volume":"900v5","title":"A reactive gel should form a stable reaction band at the balance point between substrate diffusion and inhibitor release.","prediction":"A reactive gel should form a stable reaction band at the balance point between substrate diffusion and inhibitor release.","test":"Map both species and activity.","contrary":"Band position is unrelated to flux balance.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0290","prediction":"A reactive gel should form a stable reaction band at the balance point between substrate diffusion and inhibitor release.","feasible_test":"Map both species and activity.","contrary_outcome":"Band position is unrelated to flux balance.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0291","id":"S5-0291","volume":"900v5","title":"A porous polymer should distinguish gas mixtures through differential swelling that opens secondary transport paths.","prediction":"A porous polymer should distinguish gas mixtures through differential swelling that opens secondary transport paths.","test":"Measure swelling and component flux.","contrary":"Mixture transport follows independent gas permeabilities.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0291","prediction":"A porous polymer should distinguish gas mixtures through differential swelling that opens secondary transport paths.","feasible_test":"Measure swelling and component flux.","contrary_outcome":"Mixture transport follows independent gas permeabilities.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0292","id":"S5-0292","volume":"900v5","title":"A self-assembled ribbon should remember assembly temperature through its distribution of locked twist defects.","prediction":"A self-assembled ribbon should remember assembly temperature through its distribution of locked twist defects.","test":"Measure defects after identical final conditions.","contrary":"Defect distribution is temperature-history independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0292","prediction":"A self-assembled ribbon should remember assembly temperature through its distribution of locked twist defects.","feasible_test":"Measure defects after identical final conditions.","contrary_outcome":"Defect distribution is temperature-history independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0293","id":"S5-0293","volume":"900v5","title":"A charged monolayer should release bound molecules preferentially at curvature reversals.","prediction":"A charged monolayer should release bound molecules preferentially at curvature reversals.","test":"Map curvature and release.","contrary":"Release follows charge density alone.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0293","prediction":"A charged monolayer should release bound molecules preferentially at curvature reversals.","feasible_test":"Map curvature and release.","contrary_outcome":"Release follows charge density alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0294","id":"S5-0294","volume":"900v5","title":"A polymer-supported catalyst should show directional selectivity when flow aligns a tethered substrate before reaction.","prediction":"A polymer-supported catalyst should show directional selectivity when flow aligns a tethered substrate before reaction.","test":"Measure alignment and product orientation.","contrary":"Products remain directionally random.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0294","prediction":"A polymer-supported catalyst should show directional selectivity when flow aligns a tethered substrate before reaction.","feasible_test":"Measure alignment and product orientation.","contrary_outcome":"Products remain directionally random.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0295","id":"S5-0295","volume":"900v5","title":"A thin adhesive should rebond faster when solvent vapor plasticizes only its separated interface.","prediction":"A thin adhesive should rebond faster when solvent vapor plasticizes only its separated interface.","test":"Map solvent and rebonding.","contrary":"Bulk plasticization is required.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0295","prediction":"A thin adhesive should rebond faster when solvent vapor plasticizes only its separated interface.","feasible_test":"Map solvent and rebonding.","contrary_outcome":"Bulk plasticization is required.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0296","id":"S5-0296","volume":"900v5","title":"A reaction front should halt at a mechanical wrinkle because folding sequesters a limiting reagent.","prediction":"A reaction front should halt at a mechanical wrinkle because folding sequesters a limiting reagent.","test":"Map reagent and front speed.","contrary":"Halting persists after reagent access is restored.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0296","prediction":"A reaction front should halt at a mechanical wrinkle because folding sequesters a limiting reagent.","feasible_test":"Map reagent and front speed.","contrary_outcome":"Halting persists after reagent access is restored.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0297","id":"S5-0297","volume":"900v5","title":"A porous shell should regulate an internal reaction by deforming its entrance when product pressure rises.","prediction":"A porous shell should regulate an internal reaction by deforming its entrance when product pressure rises.","test":"Measure aperture, pressure and turnover.","contrary":"Turnover is aperture-independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0297","prediction":"A porous shell should regulate an internal reaction by deforming its entrance when product pressure rises.","feasible_test":"Measure aperture, pressure and turnover.","contrary_outcome":"Turnover is aperture-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0298","id":"S5-0298","volume":"900v5","title":"A molecular stack should conduct heat anisotropically after reversible guest insertion aligns its backbone.","prediction":"A molecular stack should conduct heat anisotropically after reversible guest insertion aligns its backbone.","test":"Measure orientation and thermal tensor.","contrary":"Heat transport remains isotropic.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0298","prediction":"A molecular stack should conduct heat anisotropically after reversible guest insertion aligns its backbone.","feasible_test":"Measure orientation and thermal tensor.","contrary_outcome":"Heat transport remains isotropic.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0299","id":"S5-0299","volume":"900v5","title":"A chemically patterned liquid interface should guide particle assembly through differential surface mobility rather than binding.","prediction":"A chemically patterned liquid interface should guide particle assembly through differential surface mobility rather than binding.","test":"Measure adsorption and trajectories.","contrary":"Guidance disappears without specific binding.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0299","prediction":"A chemically patterned liquid interface should guide particle assembly through differential surface mobility rather than binding.","feasible_test":"Measure adsorption and trajectories.","contrary_outcome":"Guidance disappears without specific binding.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0300","id":"S5-0300","volume":"900v5","title":"A catalyst film should emit a mechanical pulse when a surface reaction changes its preferred area abruptly.","prediction":"A catalyst film should emit a mechanical pulse when a surface reaction changes its preferred area abruptly.","test":"Measure turnover and displacement.","contrary":"Displacement follows heating alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0300","prediction":"A catalyst film should emit a mechanical pulse when a surface reaction changes its preferred area abruptly.","feasible_test":"Measure turnover and displacement.","contrary_outcome":"Displacement follows heating alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0301","id":"S5-0301","volume":"900v5","title":"A fungal hypha should bridge a pore more successfully when its wall stores axial tension before contact loss.","prediction":"A fungal hypha should bridge a pore more successfully when its wall stores axial tension before contact loss.","test":"Measure tension and crossing.","contrary":"Crossing is tension-independent.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0301","prediction":"A fungal hypha should bridge a pore more successfully when its wall stores axial tension before contact loss.","feasible_test":"Measure tension and crossing.","contrary_outcome":"Crossing is tension-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0302","id":"S5-0302","volume":"900v5","title":"A seed coat should redistribute pressure after partial wetting through a continuous internal air layer.","prediction":"A seed coat should redistribute pressure after partial wetting through a continuous internal air layer.","test":"Image gas and strain.","contrary":"Pressure remains localized despite gas continuity.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0302","prediction":"A seed coat should redistribute pressure after partial wetting through a continuous internal air layer.","feasible_test":"Image gas and strain.","contrary_outcome":"Pressure remains localized despite gas continuity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0303","id":"S5-0303","volume":"900v5","title":"A root mucilage filament should thicken locally under extension because water migrates toward highly stretched chains.","prediction":"A root mucilage filament should thicken locally under extension because water migrates toward highly stretched chains.","test":"Map water and cross-section.","contrary":"Stretch causes uniform thinning.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0303","prediction":"A root mucilage filament should thicken locally under extension because water migrates toward highly stretched chains.","feasible_test":"Map water and cross-section.","contrary_outcome":"Stretch causes uniform thinning.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0304","id":"S5-0304","volume":"900v5","title":"A leaf should retain a circular dry scar after repeated dew because contact-line stress alters its wax packing.","prediction":"A leaf should retain a circular dry scar after repeated dew because contact-line stress alters its wax packing.","test":"Map wax and subsequent wetting.","contrary":"Scars disappear after water evaporates.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0304","prediction":"A leaf should retain a circular dry scar after repeated dew because contact-line stress alters its wax packing.","feasible_test":"Map wax and subsequent wetting.","contrary_outcome":"Scars disappear after water evaporates.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0305","id":"S5-0305","volume":"900v5","title":"A moss shoot should reduce water loss by bringing flexible leaf tips into contact during drying.","prediction":"A moss shoot should reduce water loss by bringing flexible leaf tips into contact during drying.","test":"Measure contact and evaporation.","contrary":"Contact prevention leaves water loss unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0305","prediction":"A moss shoot should reduce water loss by bringing flexible leaf tips into contact during drying.","feasible_test":"Measure contact and evaporation.","contrary_outcome":"Contact prevention leaves water loss unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0306","id":"S5-0306","volume":"900v5","title":"A fungal spore wall should recover from indentation through delayed internal fluid redistribution.","prediction":"A fungal spore wall should recover from indentation through delayed internal fluid redistribution.","test":"Measure recovery and fluid movement.","contrary":"Recovery is fluid-independent.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0306","prediction":"A fungal spore wall should recover from indentation through delayed internal fluid redistribution.","feasible_test":"Measure recovery and fluid movement.","contrary_outcome":"Recovery is fluid-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0307","id":"S5-0307","volume":"900v5","title":"A bamboo fiber bundle should split harmlessly along weak interfaces before transverse impact damages load-bearing fibers.","prediction":"A bamboo fiber bundle should split harmlessly along weak interfaces before transverse impact damages load-bearing fibers.","test":"Image damage progression.","contrary":"Fiber failure precedes interface splitting.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0307","prediction":"A bamboo fiber bundle should split harmlessly along weak interfaces before transverse impact damages load-bearing fibers.","feasible_test":"Image damage progression.","contrary_outcome":"Fiber failure precedes interface splitting.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0308","id":"S5-0308","volume":"900v5","title":"A leaf vein network should attenuate pressure pulses at loops through phase cancellation.","prediction":"A leaf vein network should attenuate pressure pulses at loops through phase cancellation.","test":"Measure pressure at loop junctions.","contrary":"Loops behave like equal-length unbranched channels.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0308","prediction":"A leaf vein network should attenuate pressure pulses at loops through phase cancellation.","feasible_test":"Measure pressure at loop junctions.","contrary_outcome":"Loops behave like equal-length unbranched channels.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0309","id":"S5-0309","volume":"900v5","title":"A seed wing should adopt a stable landing orientation through elastic rebound at its first surface contact.","prediction":"A seed wing should adopt a stable landing orientation through elastic rebound at its first surface contact.","test":"Measure impact and final orientation.","contrary":"Orientation is set entirely before contact.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0309","prediction":"A seed wing should adopt a stable landing orientation through elastic rebound at its first surface contact.","feasible_test":"Measure impact and final orientation.","contrary_outcome":"Orientation is set entirely before contact.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0310","id":"S5-0310","volume":"900v5","title":"A fungal gill should retain a local fold after compression because opposing wet surfaces adhere.","prediction":"A fungal gill should retain a local fold after compression because opposing wet surfaces adhere.","test":"Measure contact and recovery.","contrary":"Fold persists equally when adhesion is suppressed.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0310","prediction":"A fungal gill should retain a local fold after compression because opposing wet surfaces adhere.","feasible_test":"Measure contact and recovery.","contrary_outcome":"Fold persists equally when adhesion is suppressed.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0311","id":"S5-0311","volume":"900v5","title":"A wood ray should conduct a wetting front across a growth-ring boundary faster than adjacent tissue.","prediction":"A wood ray should conduct a wetting front across a growth-ring boundary faster than adjacent tissue.","test":"Map arrival times.","contrary":"Ray and adjacent pathways show equal normalized speed.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0311","prediction":"A wood ray should conduct a wetting front across a growth-ring boundary faster than adjacent tissue.","feasible_test":"Map arrival times.","contrary_outcome":"Ray and adjacent pathways show equal normalized speed.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0312","id":"S5-0312","volume":"900v5","title":"A leaf hair should act as a sacrificial bending element that protects the epidermis during abrasion.","prediction":"A leaf hair should act as a sacrificial bending element that protects the epidermis during abrasion.","test":"Measure forces and damage.","contrary":"Damage is unchanged with hairs constrained.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0312","prediction":"A leaf hair should act as a sacrificial bending element that protects the epidermis during abrasion.","feasible_test":"Measure forces and damage.","contrary_outcome":"Damage is unchanged with hairs constrained.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0313","id":"S5-0313","volume":"900v5","title":"A root sheath should vent trapped gas through a moving seam during rapid rehydration.","prediction":"A root sheath should vent trapped gas through a moving seam during rapid rehydration.","test":"Image gas and seam motion.","contrary":"Gas leaves without seam opening.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0313","prediction":"A root sheath should vent trapped gas through a moving seam during rapid rehydration.","feasible_test":"Image gas and seam motion.","contrary_outcome":"Gas leaves without seam opening.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0314","id":"S5-0314","volume":"900v5","title":"A fungal cord should show acoustic mode splitting when internal liquid channels become disconnected.","prediction":"A fungal cord should show acoustic mode splitting when internal liquid channels become disconnected.","test":"Measure modes and channel topology.","contrary":"Splitting follows water mass alone.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0314","prediction":"A fungal cord should show acoustic mode splitting when internal liquid channels become disconnected.","feasible_test":"Measure modes and channel topology.","contrary_outcome":"Splitting follows water mass alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0315","id":"S5-0315","volume":"900v5","title":"A fruit valve should delay release after wetting by redistributing stored strain into its hinge.","prediction":"A fruit valve should delay release after wetting by redistributing stored strain into its hinge.","test":"Map strain and opening.","contrary":"Delay lacks hinge strain accumulation.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0315","prediction":"A fruit valve should delay release after wetting by redistributing stored strain into its hinge.","feasible_test":"Map strain and opening.","contrary_outcome":"Delay lacks hinge strain accumulation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0316","id":"S5-0316","volume":"900v5","title":"A moss mat should detach cleanly from a surface when drying breaks basal capillary contacts sequentially.","prediction":"A moss mat should detach cleanly from a surface when drying breaks basal capillary contacts sequentially.","test":"Image detachment and bridges.","contrary":"Detachment requires tissue rupture.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0316","prediction":"A moss mat should detach cleanly from a surface when drying breaks basal capillary contacts sequentially.","feasible_test":"Image detachment and bridges.","contrary_outcome":"Detachment requires tissue rupture.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0317","id":"S5-0317","volume":"900v5","title":"A seed mucilage halo should stabilize its outer boundary through elastic tension in radial fibrils.","prediction":"A seed mucilage halo should stabilize its outer boundary through elastic tension in radial fibrils.","test":"Measure boundary fluctuations and fibril tension.","contrary":"Stability follows viscosity alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0317","prediction":"A seed mucilage halo should stabilize its outer boundary through elastic tension in radial fibrils.","feasible_test":"Measure boundary fluctuations and fibril tension.","contrary_outcome":"Stability follows viscosity alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0318","id":"S5-0318","volume":"900v5","title":"A leaf petiole should twist after asymmetric embolism shifts its hydraulic stiffness.","prediction":"A leaf petiole should twist after asymmetric embolism shifts its hydraulic stiffness.","test":"Map gas and torsion.","contrary":"Twist is unrelated to embolism position.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0318","prediction":"A leaf petiole should twist after asymmetric embolism shifts its hydraulic stiffness.","feasible_test":"Map gas and torsion.","contrary_outcome":"Twist is unrelated to embolism position.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0319","id":"S5-0319","volume":"900v5","title":"A fungal cell-wall sheet should preserve a strain pattern after drying through anisotropic hydrogen-bond reformation.","prediction":"A fungal cell-wall sheet should preserve a strain pattern after drying through anisotropic hydrogen-bond reformation.","test":"Map molecular orientation and reloading.","contrary":"Pattern erases after water removal.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0319","prediction":"A fungal cell-wall sheet should preserve a strain pattern after drying through anisotropic hydrogen-bond reformation.","feasible_test":"Map molecular orientation and reloading.","contrary_outcome":"Pattern erases after water removal.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0320","id":"S5-0320","volume":"900v5","title":"A bark laminate should dissipate impact through friction between partially detached layers.","prediction":"A bark laminate should dissipate impact through friction between partially detached layers.","test":"Measure sliding and energy loss.","contrary":"Damping remains unchanged after layers are bonded.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0320","prediction":"A bark laminate should dissipate impact through friction between partially detached layers.","feasible_test":"Measure sliding and energy loss.","contrary_outcome":"Damping remains unchanged after layers are bonded.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0321","id":"S5-0321","volume":"900v5","title":"A cellulose fiber should wick water faster after a twist releases a blocked lumen.","prediction":"A cellulose fiber should wick water faster after a twist releases a blocked lumen.","test":"Image lumen and front speed.","contrary":"Twisting leaves flow unchanged.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0321","prediction":"A cellulose fiber should wick water faster after a twist releases a blocked lumen.","feasible_test":"Image lumen and front speed.","contrary_outcome":"Twisting leaves flow unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0322","id":"S5-0322","volume":"900v5","title":"A plant epidermal strip should open an artificial slit when its cells lose water unevenly.","prediction":"A plant epidermal strip should open an artificial slit when its cells lose water unevenly.","test":"Measure local water and slit width.","contrary":"Opening requires externally imposed tension.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0322","prediction":"A plant epidermal strip should open an artificial slit when its cells lose water unevenly.","feasible_test":"Measure local water and slit width.","contrary_outcome":"Opening requires externally imposed tension.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0323","id":"S5-0323","volume":"900v5","title":"A root-bound particle should detach after a humidity pulse reverses mucilage curvature at its contact.","prediction":"A root-bound particle should detach after a humidity pulse reverses mucilage curvature at its contact.","test":"Measure curvature and adhesion.","contrary":"Detachment follows only reduced contact area.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0323","prediction":"A root-bound particle should detach after a humidity pulse reverses mucilage curvature at its contact.","feasible_test":"Measure curvature and adhesion.","contrary_outcome":"Detachment follows only reduced contact area.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0324","id":"S5-0324","volume":"900v5","title":"A fungal mat should absorb a droplet through a propagating sequence of strand contacts.","prediction":"A fungal mat should absorb a droplet through a propagating sequence of strand contacts.","test":"Image bridge formation and uptake.","contrary":"Uptake proceeds without contact rearrangement.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0324","prediction":"A fungal mat should absorb a droplet through a propagating sequence of strand contacts.","feasible_test":"Image bridge formation and uptake.","contrary_outcome":"Uptake proceeds without contact rearrangement.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0325","id":"S5-0325","volume":"900v5","title":"A leaf surface should retain fewer dust grains when daily thermal expansion periodically breaks weak adhesion contacts.","prediction":"A leaf surface should retain fewer dust grains when daily thermal expansion periodically breaks weak adhesion contacts.","test":"Measure contact failures and dust mass.","contrary":"Dust loss is thermal-motion independent.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0325","prediction":"A leaf surface should retain fewer dust grains when daily thermal expansion periodically breaks weak adhesion contacts.","feasible_test":"Measure contact failures and dust mass.","contrary_outcome":"Dust loss is thermal-motion independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0326","id":"S5-0326","volume":"900v5","title":"A seed coat should show an optical precursor to cracking through localized water-induced birefringence.","prediction":"A seed coat should show an optical precursor to cracking through localized water-induced birefringence.","test":"Measure polarization and crack onset.","contrary":"Signal begins only after cracking.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0326","prediction":"A seed coat should show an optical precursor to cracking through localized water-induced birefringence.","feasible_test":"Measure polarization and crack onset.","contrary_outcome":"Signal begins only after cracking.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0327","id":"S5-0327","volume":"900v5","title":"A wood channel should preserve gas transport after liquid blockage through corner films of air.","prediction":"A wood channel should preserve gas transport after liquid blockage through corner films of air.","test":"Map phases and gas flow.","contrary":"Gas flow stops at liquid continuity.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0327","prediction":"A wood channel should preserve gas transport after liquid blockage through corner films of air.","feasible_test":"Map phases and gas flow.","contrary_outcome":"Gas flow stops at liquid continuity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0328","id":"S5-0328","volume":"900v5","title":"A fungal hypha should relax torsion by forming a short helical segment before wall yielding.","prediction":"A fungal hypha should relax torsion by forming a short helical segment before wall yielding.","test":"Measure shape and torque.","contrary":"Yielding occurs without helicity.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0328","prediction":"A fungal hypha should relax torsion by forming a short helical segment before wall yielding.","feasible_test":"Measure shape and torque.","contrary_outcome":"Yielding occurs without helicity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0329","id":"S5-0329","volume":"900v5","title":"A dry grass awn should release a trapped particle during rewetting through a curvature reversal at its base.","prediction":"A dry grass awn should release a trapped particle during rewetting through a curvature reversal at its base.","test":"Track base motion and release.","contrary":"Release is independent of base curvature.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0329","prediction":"A dry grass awn should release a trapped particle during rewetting through a curvature reversal at its base.","feasible_test":"Track base motion and release.","contrary_outcome":"Release is independent of base curvature.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0330","id":"S5-0330","volume":"900v5","title":"A leaf-derived porous film should change oxygen permeability reversibly when mechanical strain opens intercellular voids.","prediction":"A leaf-derived porous film should change oxygen permeability reversibly when mechanical strain opens intercellular voids.","test":"Measure voids and oxygen flux.","contrary":"Flux changes follow thickness alone.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0330","prediction":"A leaf-derived porous film should change oxygen permeability reversibly when mechanical strain opens intercellular voids.","feasible_test":"Measure voids and oxygen flux.","contrary_outcome":"Flux changes follow thickness alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0331","id":"S5-0331","volume":"900v5","title":"A passive desalination membrane should reduce fouling when an osmotic pressure pulse closes large bypass pores.","prediction":"A passive desalination membrane should reduce fouling when an osmotic pressure pulse closes large bypass pores.","test":"Image pores and rejection.","contrary":"Fouling reduction occurs without pore closure.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0331","prediction":"A passive desalination membrane should reduce fouling when an osmotic pressure pulse closes large bypass pores.","feasible_test":"Image pores and rejection.","contrary_outcome":"Fouling reduction occurs without pore closure.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0332","id":"S5-0332","volume":"900v5","title":"A capillary mixer should improve at lower flow when elastic wall recovery produces transverse eddies.","prediction":"A capillary mixer should improve at lower flow when elastic wall recovery produces transverse eddies.","test":"Measure wall and mixing.","contrary":"Mixing follows diffusion alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0332","prediction":"A capillary mixer should improve at lower flow when elastic wall recovery produces transverse eddies.","feasible_test":"Measure wall and mixing.","contrary_outcome":"Mixing follows diffusion alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0333","id":"S5-0333","volume":"900v5","title":"A soft sorter should separate particles by contact relaxation time using a moving compression gate.","prediction":"A soft sorter should separate particles by contact relaxation time using a moving compression gate.","test":"Measure passage and relaxation independently.","contrary":"Sorting follows size alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0333","prediction":"A soft sorter should separate particles by contact relaxation time using a moving compression gate.","feasible_test":"Measure passage and relaxation independently.","contrary_outcome":"Sorting follows size alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0334","id":"S5-0334","volume":"900v5","title":"A microfluidic oscillator should restart in a reproducible phase after a bubble reservoir buffers its pressure.","prediction":"A microfluidic oscillator should restart in a reproducible phase after a bubble reservoir buffers its pressure.","test":"Measure restart phase and bubble volume.","contrary":"Phase remains random.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0334","prediction":"A microfluidic oscillator should restart in a reproducible phase after a bubble reservoir buffers its pressure.","feasible_test":"Measure restart phase and bubble volume.","contrary_outcome":"Phase remains random.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0335","id":"S5-0335","volume":"900v5","title":"A floating solar absorber should self-level through liquid redistribution between connected buoyancy chambers.","prediction":"A floating solar absorber should self-level through liquid redistribution between connected buoyancy chambers.","test":"Measure tilt and chamber volumes.","contrary":"Leveling persists with connections blocked equally.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0335","prediction":"A floating solar absorber should self-level through liquid redistribution between connected buoyancy chambers.","feasible_test":"Measure tilt and chamber volumes.","contrary_outcome":"Leveling persists with connections blocked equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0336","id":"S5-0336","volume":"900v5","title":"A porous acoustic valve should close under loud sound when radiation pressure collapses a compliant throat.","prediction":"A porous acoustic valve should close under loud sound when radiation pressure collapses a compliant throat.","test":"Measure throat and transmission.","contrary":"Attenuation requires heating rather than collapse.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0336","prediction":"A porous acoustic valve should close under loud sound when radiation pressure collapses a compliant throat.","feasible_test":"Measure throat and transmission.","contrary_outcome":"Attenuation requires heating rather than collapse.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0337","id":"S5-0337","volume":"900v5","title":"A droplet printer should reduce satellite formation when its nozzle stores and returns capillary energy at pinch-off.","prediction":"A droplet printer should reduce satellite formation when its nozzle stores and returns capillary energy at pinch-off.","test":"Measure nozzle motion and satellites.","contrary":"Constraining recoil leaves satellite rate unchanged.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0337","prediction":"A droplet printer should reduce satellite formation when its nozzle stores and returns capillary energy at pinch-off.","feasible_test":"Measure nozzle motion and satellites.","contrary_outcome":"Constraining recoil leaves satellite rate unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0338","id":"S5-0338","volume":"900v5","title":"A mechanical filter should shed clogging fibers after a small reverse twist changes pore handedness.","prediction":"A mechanical filter should shed clogging fibers after a small reverse twist changes pore handedness.","test":"Image pores and released fibers.","contrary":"Release follows reverse pressure alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0338","prediction":"A mechanical filter should shed clogging fibers after a small reverse twist changes pore handedness.","feasible_test":"Image pores and released fibers.","contrary_outcome":"Release follows reverse pressure alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0339","id":"S5-0339","volume":"900v5","title":"A capillary timer should compensate temperature through opposing viscosity and swelling changes.","prediction":"A capillary timer should compensate temperature through opposing viscosity and swelling changes.","test":"Measure interval and geometry.","contrary":"Compensation fails across the calibrated range.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0339","prediction":"A capillary timer should compensate temperature through opposing viscosity and swelling changes.","feasible_test":"Measure interval and geometry.","contrary_outcome":"Compensation fails across the calibrated range.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0340","id":"S5-0340","volume":"900v5","title":"A flexible membrane pump should move liquid using asynchronous recoil of unequal chambers under uniform pressure cycling.","prediction":"A flexible membrane pump should move liquid using asynchronous recoil of unequal chambers under uniform pressure cycling.","test":"Measure chamber phases and net flow.","contrary":"Flow remains zero.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0340","prediction":"A flexible membrane pump should move liquid using asynchronous recoil of unequal chambers under uniform pressure cycling.","feasible_test":"Measure chamber phases and net flow.","contrary_outcome":"Flow remains zero.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0341","id":"S5-0341","volume":"900v5","title":"A porous gripper should distinguish roughness from porosity through separate pressure-decay stages.","prediction":"A porous gripper should distinguish roughness from porosity through separate pressure-decay stages.","test":"Test blinded surfaces.","contrary":"Decay stages cannot separate properties.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0341","prediction":"A porous gripper should distinguish roughness from porosity through separate pressure-decay stages.","feasible_test":"Test blinded surfaces.","contrary_outcome":"Decay stages cannot separate properties.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0342","id":"S5-0342","volume":"900v5","title":"A hydrogel fuse should interrupt flow after cumulative exposure by progressively narrowing a hidden side channel.","prediction":"A hydrogel fuse should interrupt flow after cumulative exposure by progressively narrowing a hidden side channel.","test":"Measure channel and exposure.","contrary":"Threshold depends only on peak concentration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0342","prediction":"A hydrogel fuse should interrupt flow after cumulative exposure by progressively narrowing a hidden side channel.","feasible_test":"Measure channel and exposure.","contrary_outcome":"Threshold depends only on peak concentration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0343","id":"S5-0343","volume":"900v5","title":"A thermal vent should open preferentially toward a heat source because one hinge face dries faster.","prediction":"A thermal vent should open preferentially toward a heat source because one hinge face dries faster.","test":"Measure face water and orientation.","contrary":"Opening direction is random.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0343","prediction":"A thermal vent should open preferentially toward a heat source because one hinge face dries faster.","feasible_test":"Measure face water and orientation.","contrary_outcome":"Opening direction is random.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0344","id":"S5-0344","volume":"900v5","title":"A liquid-metal switch should retain low resistance after deformation when a porous reservoir supplies the neck.","prediction":"A liquid-metal switch should retain low resistance after deformation when a porous reservoir supplies the neck.","test":"Measure reservoir flux and resistance.","contrary":"Reservoir connection provides no benefit.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0344","prediction":"A liquid-metal switch should retain low resistance after deformation when a porous reservoir supplies the neck.","feasible_test":"Measure reservoir flux and resistance.","contrary_outcome":"Reservoir connection provides no benefit.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0345","id":"S5-0345","volume":"900v5","title":"A passive microfluidic sampler should capture concentration peaks through faster uptake than release at a deformable entrance.","prediction":"A passive microfluidic sampler should capture concentration peaks through faster uptake than release at a deformable entrance.","test":"Measure entrance and internal concentration.","contrary":"Sample represents only the time average.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0345","prediction":"A passive microfluidic sampler should capture concentration peaks through faster uptake than release at a deformable entrance.","feasible_test":"Measure entrance and internal concentration.","contrary_outcome":"Sample represents only the time average.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0346","id":"S5-0346","volume":"900v5","title":"A capillary motor should step reproducibly when a moving evaporation front sequentially releases pinned teeth.","prediction":"A capillary motor should step reproducibly when a moving evaporation front sequentially releases pinned teeth.","test":"Track front and steps.","contrary":"Steps lack release chronology.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0346","prediction":"A capillary motor should step reproducibly when a moving evaporation front sequentially releases pinned teeth.","feasible_test":"Track front and steps.","contrary_outcome":"Steps lack release chronology.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0347","id":"S5-0347","volume":"900v5","title":"A compliant sieve should retain fragile particles without crushing them by spreading force through neighboring pore walls.","prediction":"A compliant sieve should retain fragile particles without crushing them by spreading force through neighboring pore walls.","test":"Map forces and damage.","contrary":"Damage matches rigid sieves at equal flux.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0347","prediction":"A compliant sieve should retain fragile particles without crushing them by spreading force through neighboring pore walls.","feasible_test":"Map forces and damage.","contrary_outcome":"Damage matches rigid sieves at equal flux.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0348","id":"S5-0348","volume":"900v5","title":"A flexible thermal contact should preserve conductance during vibration through internal liquid redistribution.","prediction":"A flexible thermal contact should preserve conductance during vibration through internal liquid redistribution.","test":"Measure liquid and heat flux.","contrary":"Conductance stability is liquid-independent.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0348","prediction":"A flexible thermal contact should preserve conductance during vibration through internal liquid redistribution.","feasible_test":"Measure liquid and heat flux.","contrary_outcome":"Conductance stability is liquid-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0349","id":"S5-0349","volume":"900v5","title":"A passive optical cleaner should concentrate dust into removable lines through a traveling dew front.","prediction":"A passive optical cleaner should concentrate dust into removable lines through a traveling dew front.","test":"Track dust and wetting.","contrary":"Dust remains uniformly distributed.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0349","prediction":"A passive optical cleaner should concentrate dust into removable lines through a traveling dew front.","feasible_test":"Track dust and wetting.","contrary_outcome":"Dust remains uniformly distributed.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0350","id":"S5-0350","volume":"900v5","title":"A soft microreactor should avoid gas lock when pressure-induced wall motion guides bubbles into a vent.","prediction":"A soft microreactor should avoid gas lock when pressure-induced wall motion guides bubbles into a vent.","test":"Image bubbles and walls.","contrary":"Gas-lock rate is unchanged with rigid walls.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0350","prediction":"A soft microreactor should avoid gas lock when pressure-induced wall motion guides bubbles into a vent.","feasible_test":"Image bubbles and walls.","contrary_outcome":"Gas-lock rate is unchanged with rigid walls.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0351","id":"S5-0351","volume":"900v5","title":"A porous battery separator analogue should heal a tear through swelling-driven overlap of mobile fibers.","prediction":"A porous battery separator analogue should heal a tear through swelling-driven overlap of mobile fibers.","test":"Image overlap and ionic transport.","contrary":"Transport recovers without fiber overlap.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0351","prediction":"A porous battery separator analogue should heal a tear through swelling-driven overlap of mobile fibers.","feasible_test":"Image overlap and ionic transport.","contrary_outcome":"Transport recovers without fiber overlap.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0352","id":"S5-0352","volume":"900v5","title":"A capillary latch should record a pressure threshold through irreversible relocation of an internal liquid plug.","prediction":"A capillary latch should record a pressure threshold through irreversible relocation of an internal liquid plug.","test":"Measure plug after known loads.","contrary":"Plug position follows final pressure only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0352","prediction":"A capillary latch should record a pressure threshold through irreversible relocation of an internal liquid plug.","feasible_test":"Measure plug after known loads.","contrary_outcome":"Plug position follows final pressure only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0353","id":"S5-0353","volume":"900v5","title":"A microfluidic regulator should stabilize outlet flow through a delayed collapse of a bypass channel.","prediction":"A microfluidic regulator should stabilize outlet flow through a delayed collapse of a bypass channel.","test":"Measure flow and bypass geometry.","contrary":"Stabilization requires external feedback.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0353","prediction":"A microfluidic regulator should stabilize outlet flow through a delayed collapse of a bypass channel.","feasible_test":"Measure flow and bypass geometry.","contrary_outcome":"Stabilization requires external feedback.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0354","id":"S5-0354","volume":"900v5","title":"A compliant particle trap should release one particle at a time through load sharing between adjacent pockets.","prediction":"A compliant particle trap should release one particle at a time through load sharing between adjacent pockets.","test":"Image forces and release order.","contrary":"Particles release in uncontrolled groups.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0354","prediction":"A compliant particle trap should release one particle at a time through load sharing between adjacent pockets.","feasible_test":"Image forces and release order.","contrary_outcome":"Particles release in uncontrolled groups.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0355","id":"S5-0355","volume":"900v5","title":"A porous heat shield should activate cooling only after a critical bending event reconnects its water supply.","prediction":"A porous heat shield should activate cooling only after a critical bending event reconnects its water supply.","test":"Measure bend, connectivity and cooling.","contrary":"Cooling is independent of bending history.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0355","prediction":"A porous heat shield should activate cooling only after a critical bending event reconnects its water supply.","feasible_test":"Measure bend, connectivity and cooling.","contrary_outcome":"Cooling is independent of bending history.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0356","id":"S5-0356","volume":"900v5","title":"A flexible acoustic lens should refocus automatically when a warm spot changes local cavity pressure.","prediction":"A flexible acoustic lens should refocus automatically when a warm spot changes local cavity pressure.","test":"Map pressure and focus.","contrary":"Focus shifts are explained by uniform sound-speed change.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0356","prediction":"A flexible acoustic lens should refocus automatically when a warm spot changes local cavity pressure.","feasible_test":"Map pressure and focus.","contrary_outcome":"Focus shifts are explained by uniform sound-speed change.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0357","id":"S5-0357","volume":"900v5","title":"A thin-film dispenser should meter equal liquid doses through repeated meniscus snap-through.","prediction":"A thin-film dispenser should meter equal liquid doses through repeated meniscus snap-through.","test":"Measure doses and interface motion.","contrary":"Dose variation exceeds a rigid volumetric control.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0357","prediction":"A thin-film dispenser should meter equal liquid doses through repeated meniscus snap-through.","feasible_test":"Measure doses and interface motion.","contrary_outcome":"Dose variation exceeds a rigid volumetric control.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0358","id":"S5-0358","volume":"900v5","title":"A mechanical seal should tighten under leakage because escaping liquid swells a confined peripheral ring.","prediction":"A mechanical seal should tighten under leakage because escaping liquid swells a confined peripheral ring.","test":"Measure leakage and ring strain.","contrary":"Leakage persists despite verified swelling.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0358","prediction":"A mechanical seal should tighten under leakage because escaping liquid swells a confined peripheral ring.","feasible_test":"Measure leakage and ring strain.","contrary_outcome":"Leakage persists despite verified swelling.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0359","id":"S5-0359","volume":"900v5","title":"A capillary oscillator should distinguish gas leaks from liquid leaks through opposite changes in duty cycle.","prediction":"A capillary oscillator should distinguish gas leaks from liquid leaks through opposite changes in duty cycle.","test":"Calibrate known leaks.","contrary":"Duty-cycle changes are indistinguishable.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0359","prediction":"A capillary oscillator should distinguish gas leaks from liquid leaks through opposite changes in duty cycle.","feasible_test":"Calibrate known leaks.","contrary_outcome":"Duty-cycle changes are indistinguishable.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0360","id":"S5-0360","volume":"900v5","title":"A self-folding porous strip should transport an object through sequential adhesion and release under uniform humidity cycles.","prediction":"A self-folding porous strip should transport an object through sequential adhesion and release under uniform humidity cycles.","test":"Track contacts and displacement.","contrary":"No net transport survives drift correction.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0360","prediction":"A self-folding porous strip should transport an object through sequential adhesion and release under uniform humidity cycles.","feasible_test":"Track contacts and displacement.","contrary_outcome":"No net transport survives drift correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0361","id":"S5-0361","volume":"900v5","title":"A flexible fin should reduce vortex shedding when internal liquid shifts its bending phase.","prediction":"A flexible fin should reduce vortex shedding when internal liquid shifts its bending phase.","test":"Measure liquid motion and wake spectra.","contrary":"Wake changes follow mean stiffness alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0361","prediction":"A flexible fin should reduce vortex shedding when internal liquid shifts its bending phase.","feasible_test":"Measure liquid motion and wake spectra.","contrary_outcome":"Wake changes follow mean stiffness alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0362","id":"S5-0362","volume":"900v5","title":"A porous wing analogue should vent gust pressure through temporarily opened surface flaps.","prediction":"A porous wing analogue should vent gust pressure through temporarily opened surface flaps.","test":"Measure flap motion and lift transients.","contrary":"Gust reduction persists with flaps fixed equally.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0362","prediction":"A porous wing analogue should vent gust pressure through temporarily opened surface flaps.","feasible_test":"Measure flap motion and lift transients.","contrary_outcome":"Gust reduction persists with flaps fixed equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0363","id":"S5-0363","volume":"900v5","title":"A floating filament should align across a vortex boundary when capillary tension exceeds local drag.","prediction":"A floating filament should align across a vortex boundary when capillary tension exceeds local drag.","test":"Track orientation and flow.","contrary":"Alignment follows local streamlines only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0363","prediction":"A floating filament should align across a vortex boundary when capillary tension exceeds local drag.","feasible_test":"Track orientation and flow.","contrary_outcome":"Alignment follows local streamlines only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0364","id":"S5-0364","volume":"900v5","title":"A falling porous particle should change its tumbling rate as trapped gas escapes.","prediction":"A falling porous particle should change its tumbling rate as trapped gas escapes.","test":"Measure gas content and trajectory.","contrary":"Tumbling is gas-independent after mass correction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0364","prediction":"A falling porous particle should change its tumbling rate as trapped gas escapes.","feasible_test":"Measure gas content and trajectory.","contrary_outcome":"Tumbling is gas-independent after mass correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0365","id":"S5-0365","volume":"900v5","title":"A droplet-laden airflow should deposit particles preferentially where flexible fibers synchronize their motion.","prediction":"A droplet-laden airflow should deposit particles preferentially where flexible fibers synchronize their motion.","test":"Measure fiber phase and deposition.","contrary":"Capture follows exposed area alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0365","prediction":"A droplet-laden airflow should deposit particles preferentially where flexible fibers synchronize their motion.","feasible_test":"Measure fiber phase and deposition.","contrary_outcome":"Capture follows exposed area alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0366","id":"S5-0366","volume":"900v5","title":"A compliant vortex generator should fold during strong gusts and recover low-drag geometry afterward.","prediction":"A compliant vortex generator should fold during strong gusts and recover low-drag geometry afterward.","test":"Measure shape and force.","contrary":"Drag reduction comes only from permanent deformation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0366","prediction":"A compliant vortex generator should fold during strong gusts and recover low-drag geometry afterward.","feasible_test":"Measure shape and force.","contrary_outcome":"Drag reduction comes only from permanent deformation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0367","id":"S5-0367","volume":"900v5","title":"An air bubble should steer a nearby sedimenting plate through its asymmetric wake even without contact.","prediction":"An air bubble should steer a nearby sedimenting plate through its asymmetric wake even without contact.","test":"Map flow and plate trajectory.","contrary":"Deflection disappears outside direct-contact range.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0367","prediction":"An air bubble should steer a nearby sedimenting plate through its asymmetric wake even without contact.","feasible_test":"Map flow and plate trajectory.","contrary_outcome":"Deflection disappears outside direct-contact range.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0368","id":"S5-0368","volume":"900v5","title":"A thin air jet should remain attached longer to a wet flexible wall because capillary stress changes curvature.","prediction":"A thin air jet should remain attached longer to a wet flexible wall because capillary stress changes curvature.","test":"Measure curvature and separation point.","contrary":"Attachment follows dry geometry alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0368","prediction":"A thin air jet should remain attached longer to a wet flexible wall because capillary stress changes curvature.","feasible_test":"Measure curvature and separation point.","contrary_outcome":"Attachment follows dry geometry alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0369","id":"S5-0369","volume":"900v5","title":"A granular surface should emit fewer fines after wind-induced grain rocking compacts its exposed contacts.","prediction":"A granular surface should emit fewer fines after wind-induced grain rocking compacts its exposed contacts.","test":"Measure rocking and aerosol flux.","contrary":"Emission reduction requires bulk compaction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0369","prediction":"A granular surface should emit fewer fines after wind-induced grain rocking compacts its exposed contacts.","feasible_test":"Measure rocking and aerosol flux.","contrary_outcome":"Emission reduction requires bulk compaction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0370","id":"S5-0370","volume":"900v5","title":"A porous umbrella analogue should prevent abrupt inversion through sequential pressure equalization.","prediction":"A porous umbrella analogue should prevent abrupt inversion through sequential pressure equalization.","test":"Measure cavity pressures and shape.","contrary":"Inversion remains simultaneous.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0370","prediction":"A porous umbrella analogue should prevent abrupt inversion through sequential pressure equalization.","feasible_test":"Measure cavity pressures and shape.","contrary_outcome":"Inversion remains simultaneous.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0371","id":"S5-0371","volume":"900v5","title":"A fluttering ribbon should sweep suspended particles into narrow bands through oscillatory boundary-layer convergence.","prediction":"A fluttering ribbon should sweep suspended particles into narrow bands through oscillatory boundary-layer convergence.","test":"Measure particles and flow.","contrary":"Bands follow gravitational settling alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0371","prediction":"A fluttering ribbon should sweep suspended particles into narrow bands through oscillatory boundary-layer convergence.","feasible_test":"Measure particles and flow.","contrary_outcome":"Bands follow gravitational settling alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0372","id":"S5-0372","volume":"900v5","title":"A flexible surface should suppress droplet splashing when its recoil arrives before lamella breakup.","prediction":"A flexible surface should suppress droplet splashing when its recoil arrives before lamella breakup.","test":"Measure recoil and splash timing.","contrary":"Suppression is recoil-phase independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0372","prediction":"A flexible surface should suppress droplet splashing when its recoil arrives before lamella breakup.","feasible_test":"Measure recoil and splash timing.","contrary_outcome":"Suppression is recoil-phase independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0373","id":"S5-0373","volume":"900v5","title":"A rough air channel should retain a directional flow memory after condensation creates asymmetric rivulets.","prediction":"A rough air channel should retain a directional flow memory after condensation creates asymmetric rivulets.","test":"Map rivulets and resistance.","contrary":"Resistance is reciprocal after flow reversal.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0373","prediction":"A rough air channel should retain a directional flow memory after condensation creates asymmetric rivulets.","feasible_test":"Map rivulets and resistance.","contrary_outcome":"Resistance is reciprocal after flow reversal.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0374","id":"S5-0374","volume":"900v5","title":"A dust raft should lift from water when acoustic pressure synchronizes its capillary contacts.","prediction":"A dust raft should lift from water when acoustic pressure synchronizes its capillary contacts.","test":"Measure contacts and lift threshold.","contrary":"Lift follows bulk radiation pressure alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0374","prediction":"A dust raft should lift from water when acoustic pressure synchronizes its capillary contacts.","feasible_test":"Measure contacts and lift threshold.","contrary_outcome":"Lift follows bulk radiation pressure alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0375","id":"S5-0375","volume":"900v5","title":"A falling liquid-filled capsule should stabilize orientation when internal sloshing counteracts its angular velocity.","prediction":"A falling liquid-filled capsule should stabilize orientation when internal sloshing counteracts its angular velocity.","test":"Measure rotation and liquid motion.","contrary":"Stability is unchanged when liquid is immobilized.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0375","prediction":"A falling liquid-filled capsule should stabilize orientation when internal sloshing counteracts its angular velocity.","feasible_test":"Measure rotation and liquid motion.","contrary_outcome":"Stability is unchanged when liquid is immobilized.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0376","id":"S5-0376","volume":"900v5","title":"A suspended membrane should detect vortex approach through a localized tension wave before wake contact.","prediction":"A suspended membrane should detect vortex approach through a localized tension wave before wake contact.","test":"Measure upstream pressure and membrane motion.","contrary":"Motion begins only with local wake arrival.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0376","prediction":"A suspended membrane should detect vortex approach through a localized tension wave before wake contact.","feasible_test":"Measure upstream pressure and membrane motion.","contrary_outcome":"Motion begins only with local wake arrival.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0377","id":"S5-0377","volume":"900v5","title":"A porous surface should reduce rebound of dry grains when impact drives air into a compliant subsurface cavity.","prediction":"A porous surface should reduce rebound of dry grains when impact drives air into a compliant subsurface cavity.","test":"Measure pressure and rebound.","contrary":"Damping is unchanged when cavities are vented.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0377","prediction":"A porous surface should reduce rebound of dry grains when impact drives air into a compliant subsurface cavity.","feasible_test":"Measure pressure and rebound.","contrary_outcome":"Damping is unchanged when cavities are vented.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0378","id":"S5-0378","volume":"900v5","title":"A curved liquid film should guide an air jet through pressure-dependent deformation.","prediction":"A curved liquid film should guide an air jet through pressure-dependent deformation.","test":"Measure jet and film shape.","contrary":"Guidance follows fixed geometry alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0378","prediction":"A curved liquid film should guide an air jet through pressure-dependent deformation.","feasible_test":"Measure jet and film shape.","contrary_outcome":"Guidance follows fixed geometry alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0379","id":"S5-0379","volume":"900v5","title":"A fiber mat should remove droplets more effectively after weak vibration opens downstream drainage pathways.","prediction":"A fiber mat should remove droplets more effectively after weak vibration opens downstream drainage pathways.","test":"Image pathways and collection.","contrary":"Improvement follows collision rate alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0379","prediction":"A fiber mat should remove droplets more effectively after weak vibration opens downstream drainage pathways.","feasible_test":"Image pathways and collection.","contrary_outcome":"Improvement follows collision rate alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0380","id":"S5-0380","volume":"900v5","title":"A small elastic sail should turn toward weaker airflow when its leeward edge collapses first.","prediction":"A small elastic sail should turn toward weaker airflow when its leeward edge collapses first.","test":"Measure edge shape and torque.","contrary":"Torque turns it toward stronger flow.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0380","prediction":"A small elastic sail should turn toward weaker airflow when its leeward edge collapses first.","feasible_test":"Measure edge shape and torque.","contrary_outcome":"Torque turns it toward stronger flow.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0381","id":"S5-0381","volume":"900v5","title":"A settling flake should alternate between gliding states when its wet coating redistributes.","prediction":"A settling flake should alternate between gliding states when its wet coating redistributes.","test":"Measure coating and trajectory.","contrary":"State transitions are coating-independent.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0381","prediction":"A settling flake should alternate between gliding states when its wet coating redistributes.","feasible_test":"Measure coating and trajectory.","contrary_outcome":"State transitions are coating-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0382","id":"S5-0382","volume":"900v5","title":"A bubble curtain should sort suspended particles by wetting hysteresis at equal density.","prediction":"A bubble curtain should sort suspended particles by wetting hysteresis at equal density.","test":"Measure surface hysteresis and passage.","contrary":"Sorting follows size alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0382","prediction":"A bubble curtain should sort suspended particles by wetting hysteresis at equal density.","feasible_test":"Measure surface hysteresis and passage.","contrary_outcome":"Sorting follows size alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0383","id":"S5-0383","volume":"900v5","title":"A compressed gas jet should trigger a mechanical latch through cooling-induced contraction before momentum loading peaks.","prediction":"A compressed gas jet should trigger a mechanical latch through cooling-induced contraction before momentum loading peaks.","test":"Measure temperature, force and switching.","contrary":"Switching follows force alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0383","prediction":"A compressed gas jet should trigger a mechanical latch through cooling-induced contraction before momentum loading peaks.","feasible_test":"Measure temperature, force and switching.","contrary_outcome":"Switching follows force alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0384","id":"S5-0384","volume":"900v5","title":"A porous acoustic liner should clear accumulated droplets when standing-wave pressure drives them toward drains.","prediction":"A porous acoustic liner should clear accumulated droplets when standing-wave pressure drives them toward drains.","test":"Track droplets and sound field.","contrary":"Drainage is unchanged by node placement.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0384","prediction":"A porous acoustic liner should clear accumulated droplets when standing-wave pressure drives them toward drains.","feasible_test":"Track droplets and sound field.","contrary_outcome":"Drainage is unchanged by node placement.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0385","id":"S5-0385","volume":"900v5","title":"A flexible mesh should prevent ice shedding in large sheets by segmenting interfacial stress.","prediction":"A flexible mesh should prevent ice shedding in large sheets by segmenting interfacial stress.","test":"Measure crack sizes and mesh motion.","contrary":"Sheet sizes match rigid controls.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0385","prediction":"A flexible mesh should prevent ice shedding in large sheets by segmenting interfacial stress.","feasible_test":"Measure crack sizes and mesh motion.","contrary_outcome":"Sheet sizes match rigid controls.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0386","id":"S5-0386","volume":"900v5","title":"A falling seed replica should retain flight stability after damage when flexible veins redistribute aerodynamic load.","prediction":"A falling seed replica should retain flight stability after damage when flexible veins redistribute aerodynamic load.","test":"Measure deformation and trajectory.","contrary":"Stability depends only on remaining area.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0386","prediction":"A falling seed replica should retain flight stability after damage when flexible veins redistribute aerodynamic load.","feasible_test":"Measure deformation and trajectory.","contrary_outcome":"Stability depends only on remaining area.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0387","id":"S5-0387","volume":"900v5","title":"A liquid-filled fiber should oscillate differently in crossflow when internal flow opposes external vortex forcing.","prediction":"A liquid-filled fiber should oscillate differently in crossflow when internal flow opposes external vortex forcing.","test":"Measure internal velocity and modes.","contrary":"Modes follow total mass alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0387","prediction":"A liquid-filled fiber should oscillate differently in crossflow when internal flow opposes external vortex forcing.","feasible_test":"Measure internal velocity and modes.","contrary_outcome":"Modes follow total mass alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0388","id":"S5-0388","volume":"900v5","title":"A low-speed air stream should carry a volatile tracer upstream locally through condensation-driven recirculation.","prediction":"A low-speed air stream should carry a volatile tracer upstream locally through condensation-driven recirculation.","test":"Map tracer and velocity.","contrary":"Upstream signal is explained by diffusion alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0388","prediction":"A low-speed air stream should carry a volatile tracer upstream locally through condensation-driven recirculation.","feasible_test":"Map tracer and velocity.","contrary_outcome":"Upstream signal is explained by diffusion alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0389","id":"S5-0389","volume":"900v5","title":"A water-coated rough surface should develop an aerodynamic drag minimum when droplets align into streamwise ridges.","prediction":"A water-coated rough surface should develop an aerodynamic drag minimum when droplets align into streamwise ridges.","test":"Measure ridge geometry and drag.","contrary":"Drag follows water coverage monotonically.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0389","prediction":"A water-coated rough surface should develop an aerodynamic drag minimum when droplets align into streamwise ridges.","feasible_test":"Measure ridge geometry and drag.","contrary_outcome":"Drag follows water coverage monotonically.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0390","id":"S5-0390","volume":"900v5","title":"A compliant vent should emit narrowband sound that predicts its impending closure.","prediction":"A compliant vent should emit narrowband sound that predicts its impending closure.","test":"Measure aperture and acoustic spectrum.","contrary":"Sound begins only after closure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0390","prediction":"A compliant vent should emit narrowband sound that predicts its impending closure.","feasible_test":"Measure aperture and acoustic spectrum.","contrary_outcome":"Sound begins only after closure.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0391","id":"S5-0391","volume":"900v5","title":"A porous electrode should develop a moving current hotspot as bubbles uncover and re-cover its active regions.","prediction":"A porous electrode should develop a moving current hotspot as bubbles uncover and re-cover its active regions.","test":"Map bubbles and current.","contrary":"Hotspots remain fixed to chemical defects.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0391","prediction":"A porous electrode should develop a moving current hotspot as bubbles uncover and re-cover its active regions.","feasible_test":"Map bubbles and current.","contrary_outcome":"Hotspots remain fixed to chemical defects.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0392","id":"S5-0392","volume":"900v5","title":"A catalyst grain should remember a gas pulse through a delayed redistribution of adsorbed intermediate.","prediction":"A catalyst grain should remember a gas pulse through a delayed redistribution of adsorbed intermediate.","test":"Map adsorbates and product output.","contrary":"Output depends only on instantaneous gas concentration.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0392","prediction":"A catalyst grain should remember a gas pulse through a delayed redistribution of adsorbed intermediate.","feasible_test":"Map adsorbates and product output.","contrary_outcome":"Output depends only on instantaneous gas concentration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0393","id":"S5-0393","volume":"900v5","title":"A photoactive membrane should reverse solute flux after illumination stops because stored charge outlives its concentration gradient.","prediction":"A photoactive membrane should reverse solute flux after illumination stops because stored charge outlives its concentration gradient.","test":"Measure charge and concentration.","contrary":"Flux decays without reversal.","layers":[1],"categories":["biology","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0393","prediction":"A photoactive membrane should reverse solute flux after illumination stops because stored charge outlives its concentration gradient.","feasible_test":"Measure charge and concentration.","contrary_outcome":"Flux decays without reversal.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0394","id":"S5-0394","volume":"900v5","title":"A redox coating should become more wettable under mechanical tension that exposes buried charged groups.","prediction":"A redox coating should become more wettable under mechanical tension that exposes buried charged groups.","test":"Map groups and contact angles.","contrary":"Wetting follows strain-induced roughness alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0394","prediction":"A redox coating should become more wettable under mechanical tension that exposes buried charged groups.","feasible_test":"Map groups and contact angles.","contrary_outcome":"Wetting follows strain-induced roughness alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0395","id":"S5-0395","volume":"900v5","title":"A catalytic foam should resist gas blockage when elastic cell walls guide bubbles into shared channels.","prediction":"A catalytic foam should resist gas blockage when elastic cell walls guide bubbles into shared channels.","test":"Image bubbles and turnover.","contrary":"Blocked area matches rigid foam controls.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0395","prediction":"A catalytic foam should resist gas blockage when elastic cell walls guide bubbles into shared channels.","feasible_test":"Image bubbles and turnover.","contrary_outcome":"Blocked area matches rigid foam controls.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0396","id":"S5-0396","volume":"900v5","title":"A chemically powered particle should stop near a soft wall because its reaction product changes wall adhesion.","prediction":"A chemically powered particle should stop near a soft wall because its reaction product changes wall adhesion.","test":"Measure product, adhesion and speed.","contrary":"Stopping persists without product adsorption equally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0396","prediction":"A chemically powered particle should stop near a soft wall because its reaction product changes wall adhesion.","feasible_test":"Measure product, adhesion and speed.","contrary_outcome":"Stopping persists without product adsorption equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0397","id":"S5-0397","volume":"900v5","title":"A reaction-generated solid should detach periodically when its growth stress exceeds reversible adhesion.","prediction":"A reaction-generated solid should detach periodically when its growth stress exceeds reversible adhesion.","test":"Measure stress and shedding.","contrary":"Detachment requires external shear.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0397","prediction":"A reaction-generated solid should detach periodically when its growth stress exceeds reversible adhesion.","feasible_test":"Measure stress and shedding.","contrary_outcome":"Detachment requires external shear.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0398","id":"S5-0398","volume":"900v5","title":"A porous photocatalyst should produce a reaction front that follows its internal light-trapping path.","prediction":"A porous photocatalyst should produce a reaction front that follows its internal light-trapping path.","test":"Map optical intensity and conversion.","contrary":"Conversion follows external illumination only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0398","prediction":"A porous photocatalyst should produce a reaction front that follows its internal light-trapping path.","feasible_test":"Map optical intensity and conversion.","contrary_outcome":"Conversion follows external illumination only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0399","id":"S5-0399","volume":"900v5","title":"A supported enzyme should retain activity under pulsed shear when its tether relaxes between pulses.","prediction":"A supported enzyme should retain activity under pulsed shear when its tether relaxes between pulses.","test":"Measure tether extension and turnover.","contrary":"Pulsing provides no gain at equal cumulative shear.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0399","prediction":"A supported enzyme should retain activity under pulsed shear when its tether relaxes between pulses.","feasible_test":"Measure tether extension and turnover.","contrary_outcome":"Pulsing provides no gain at equal cumulative shear.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0400","id":"S5-0400","volume":"900v5","title":"A molecular switch should generate a net bending cycle when illumination alternates between two wavelengths with unequal penetration depths.","prediction":"A molecular switch should generate a net bending cycle when illumination alternates between two wavelengths with unequal penetration depths.","test":"Measure conversion profiles and curvature.","contrary":"Bending is symmetric with no cycle area.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0400","prediction":"A molecular switch should generate a net bending cycle when illumination alternates between two wavelengths with unequal penetration depths.","feasible_test":"Measure conversion profiles and curvature.","contrary_outcome":"Bending is symmetric with no cycle area.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0401","id":"S5-0401","volume":"900v5","title":"A gas-selective polymer should exhibit transient reversed selectivity after an abrupt pressure drop.","prediction":"A gas-selective polymer should exhibit transient reversed selectivity after an abrupt pressure drop.","test":"Measure component flux and swelling.","contrary":"Selectivity retains its steady-state sign.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0401","prediction":"A gas-selective polymer should exhibit transient reversed selectivity after an abrupt pressure drop.","feasible_test":"Measure component flux and swelling.","contrary_outcome":"Selectivity retains its steady-state sign.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0402","id":"S5-0402","volume":"900v5","title":"A reactive droplet should accumulate ions at its rear through a wake of delayed complexation.","prediction":"A reactive droplet should accumulate ions at its rear through a wake of delayed complexation.","test":"Map ions and flow.","contrary":"Ion profiles follow passive advection alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0402","prediction":"A reactive droplet should accumulate ions at its rear through a wake of delayed complexation.","feasible_test":"Map ions and flow.","contrary_outcome":"Ion profiles follow passive advection alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0403","id":"S5-0403","volume":"900v5","title":"A catalytic gel should suppress runaway heating by swelling away from its heat source.","prediction":"A catalytic gel should suppress runaway heating by swelling away from its heat source.","test":"Measure reaction rate, contact and temperature.","contrary":"Temperature limitation occurs without swelling.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0403","prediction":"A catalytic gel should suppress runaway heating by swelling away from its heat source.","feasible_test":"Measure reaction rate, contact and temperature.","contrary_outcome":"Temperature limitation occurs without swelling.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0404","id":"S5-0404","volume":"900v5","title":"A confined reaction should exhibit a delayed rate peak when product first clears an adsorbing pore entrance.","prediction":"A confined reaction should exhibit a delayed rate peak when product first clears an adsorbing pore entrance.","test":"Measure entrance occupancy and turnover.","contrary":"Rate peak is occupancy-independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0404","prediction":"A confined reaction should exhibit a delayed rate peak when product first clears an adsorbing pore entrance.","feasible_test":"Measure entrance occupancy and turnover.","contrary_outcome":"Rate peak is occupancy-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0405","id":"S5-0405","volume":"900v5","title":"A photochemical coating should erase a stress pattern faster from compressed than stretched regions.","prediction":"A photochemical coating should erase a stress pattern faster from compressed than stretched regions.","test":"Measure conversion and stress.","contrary":"Erasure is strain-independent.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0405","prediction":"A photochemical coating should erase a stress pattern faster from compressed than stretched regions.","feasible_test":"Measure conversion and stress.","contrary_outcome":"Erasure is strain-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0406","id":"S5-0406","volume":"900v5","title":"A molecular assembly should transmit an oxidation trigger farther when its surface becomes more permeable after the first reaction.","prediction":"A molecular assembly should transmit an oxidation trigger farther when its surface becomes more permeable after the first reaction.","test":"Map conversion and permeability.","contrary":"Propagation remains local despite permeability increase.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0406","prediction":"A molecular assembly should transmit an oxidation trigger farther when its surface becomes more permeable after the first reaction.","feasible_test":"Map conversion and permeability.","contrary_outcome":"Propagation remains local despite permeability increase.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0407","id":"S5-0407","volume":"900v5","title":"A porous chelator should release ions selectively during bending because different sites experience unequal local strain.","prediction":"A porous chelator should release ions selectively during bending because different sites experience unequal local strain.","test":"Measure strain and ion identity.","contrary":"Release follows initial loading only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0407","prediction":"A porous chelator should release ions selectively during bending because different sites experience unequal local strain.","feasible_test":"Measure strain and ion identity.","contrary_outcome":"Release follows initial loading only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0408","id":"S5-0408","volume":"900v5","title":"A catalyst layer should show an activity stripe at a moving wetting front because reactant partitioning peaks at intermediate hydration.","prediction":"A catalyst layer should show an activity stripe at a moving wetting front because reactant partitioning peaks at intermediate hydration.","test":"Map hydration and rate.","contrary":"Rate follows water content monotonically.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0408","prediction":"A catalyst layer should show an activity stripe at a moving wetting front because reactant partitioning peaks at intermediate hydration.","feasible_test":"Map hydration and rate.","contrary_outcome":"Rate follows water content monotonically.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0409","id":"S5-0409","volume":"900v5","title":"A polymer-supported dye should recover after photobleaching through diffusion of unexposed segments into the illuminated zone.","prediction":"A polymer-supported dye should recover after photobleaching through diffusion of unexposed segments into the illuminated zone.","test":"Track chains and emission.","contrary":"Recovery occurs without segment movement.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0409","prediction":"A polymer-supported dye should recover after photobleaching through diffusion of unexposed segments into the illuminated zone.","feasible_test":"Track chains and emission.","contrary_outcome":"Recovery occurs without segment movement.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0410","id":"S5-0410","volume":"900v5","title":"A gas-producing enzyme film should wrinkle before bubble release and thereby concentrate subsequent nucleation.","prediction":"A gas-producing enzyme film should wrinkle before bubble release and thereby concentrate subsequent nucleation.","test":"Measure wrinkle and bubble locations.","contrary":"Nucleation ignores preexisting wrinkles.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0410","prediction":"A gas-producing enzyme film should wrinkle before bubble release and thereby concentrate subsequent nucleation.","feasible_test":"Measure wrinkle and bubble locations.","contrary_outcome":"Nucleation ignores preexisting wrinkles.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0411","id":"S5-0411","volume":"900v5","title":"A porous molecular film should delay an inhibitor more than a substrate through reversible wall binding.","prediction":"A porous molecular film should delay an inhibitor more than a substrate through reversible wall binding.","test":"Measure both breakthrough curves.","contrary":"Delay follows free diffusivity alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0411","prediction":"A porous molecular film should delay an inhibitor more than a substrate through reversible wall binding.","feasible_test":"Measure both breakthrough curves.","contrary_outcome":"Delay follows free diffusivity alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0412","id":"S5-0412","volume":"900v5","title":"A reversible polymer coating should shed contamination when a chemical pulse changes its preferred curvature.","prediction":"A reversible polymer coating should shed contamination when a chemical pulse changes its preferred curvature.","test":"Measure curvature and particle release.","contrary":"Release is unchanged with curvature constrained.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0412","prediction":"A reversible polymer coating should shed contamination when a chemical pulse changes its preferred curvature.","feasible_test":"Measure curvature and particle release.","contrary_outcome":"Release is unchanged with curvature constrained.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0413","id":"S5-0413","volume":"900v5","title":"A redox-active membrane should store a chemical pulse as a localized mechanical indentation.","prediction":"A redox-active membrane should store a chemical pulse as a localized mechanical indentation.","test":"Read shape after solution restoration.","contrary":"Indentation disappears with the pulse.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0413","prediction":"A redox-active membrane should store a chemical pulse as a localized mechanical indentation.","feasible_test":"Read shape after solution restoration.","contrary_outcome":"Indentation disappears with the pulse.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0414","id":"S5-0414","volume":"900v5","title":"A reaction-diffusion system should generate a stationary boundary when catalyst motion opposes substrate diffusion.","prediction":"A reaction-diffusion system should generate a stationary boundary when catalyst motion opposes substrate diffusion.","test":"Map both species and reaction.","contrary":"Boundary drifts despite flux balance.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0414","prediction":"A reaction-diffusion system should generate a stationary boundary when catalyst motion opposes substrate diffusion.","feasible_test":"Map both species and reaction.","contrary_outcome":"Boundary drifts despite flux balance.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0415","id":"S5-0415","volume":"900v5","title":"A photothermal catalyst should produce less byproduct when internal flow removes hot fluid from its active surface.","prediction":"A photothermal catalyst should produce less byproduct when internal flow removes hot fluid from its active surface.","test":"Measure temperature and selectivity.","contrary":"Selectivity changes are temperature-independent.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0415","prediction":"A photothermal catalyst should produce less byproduct when internal flow removes hot fluid from its active surface.","feasible_test":"Measure temperature and selectivity.","contrary_outcome":"Selectivity changes are temperature-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0416","id":"S5-0416","volume":"900v5","title":"A host-guest film should display a permeability overshoot when incoming molecules temporarily break more crosslinks than they reform.","prediction":"A host-guest film should display a permeability overshoot when incoming molecules temporarily break more crosslinks than they reform.","test":"Measure bonds and flux.","contrary":"Flux rises monotonically to equilibrium.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0416","prediction":"A host-guest film should display a permeability overshoot when incoming molecules temporarily break more crosslinks than they reform.","feasible_test":"Measure bonds and flux.","contrary_outcome":"Flux rises monotonically to equilibrium.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0417","id":"S5-0417","volume":"900v5","title":"A charged catalyst should sort reaction products spatially through product-specific diffusiophoresis.","prediction":"A charged catalyst should sort reaction products spatially through product-specific diffusiophoresis.","test":"Map products and particle motion.","contrary":"Spatial separation follows passive diffusion only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0417","prediction":"A charged catalyst should sort reaction products spatially through product-specific diffusiophoresis.","feasible_test":"Map products and particle motion.","contrary_outcome":"Spatial separation follows passive diffusion only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0418","id":"S5-0418","volume":"900v5","title":"A polymer gel should retain a mechanical imprint after a transient acid pulse catalyzes local bond exchange under load.","prediction":"A polymer gel should retain a mechanical imprint after a transient acid pulse catalyzes local bond exchange under load.","test":"Measure bonds and residual shape.","contrary":"Shape recovers despite local exchange.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0418","prediction":"A polymer gel should retain a mechanical imprint after a transient acid pulse catalyzes local bond exchange under load.","feasible_test":"Measure bonds and residual shape.","contrary_outcome":"Shape recovers despite local exchange.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0419","id":"S5-0419","volume":"900v5","title":"A microreactor should avoid intermediate inhibition when a deforming wall periodically exposes fresh binding sites.","prediction":"A microreactor should avoid intermediate inhibition when a deforming wall periodically exposes fresh binding sites.","test":"Measure wall and inhibitor occupancy.","contrary":"Output is unchanged when wall motion is prevented.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0419","prediction":"A microreactor should avoid intermediate inhibition when a deforming wall periodically exposes fresh binding sites.","feasible_test":"Measure wall and inhibitor occupancy.","contrary_outcome":"Output is unchanged when wall motion is prevented.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0420","id":"S5-0420","volume":"900v5","title":"A molecular capsule should display a release burst when external solvent changes its shell's preferred twist.","prediction":"A molecular capsule should display a release burst when external solvent changes its shell's preferred twist.","test":"Measure twist and cargo.","contrary":"Release follows solvent partitioning without torsion.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0420","prediction":"A molecular capsule should display a release burst when external solvent changes its shell's preferred twist.","feasible_test":"Measure twist and cargo.","contrary_outcome":"Release follows solvent partitioning without torsion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0421","id":"S5-0421","volume":"900v5","title":"A porous optical film should distinguish acidic vapor from humidity through opposite spatial movement of its resonance nodes.","prediction":"A porous optical film should distinguish acidic vapor from humidity through opposite spatial movement of its resonance nodes.","test":"Calibrate gases and water.","contrary":"Node trajectories overlap.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0421","prediction":"A porous optical film should distinguish acidic vapor from humidity through opposite spatial movement of its resonance nodes.","feasible_test":"Calibrate gases and water.","contrary_outcome":"Node trajectories overlap.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0422","id":"S5-0422","volume":"900v5","title":"A thin thermal sensor should reveal a hidden chemical reaction through a phase lead rather than temperature magnitude.","prediction":"A thin thermal sensor should reveal a hidden chemical reaction through a phase lead rather than temperature magnitude.","test":"Compare reaction and inert heat inputs.","contrary":"Phase adds no reaction specificity.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0422","prediction":"A thin thermal sensor should reveal a hidden chemical reaction through a phase lead rather than temperature magnitude.","feasible_test":"Compare reaction and inert heat inputs.","contrary_outcome":"Phase adds no reaction specificity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0423","id":"S5-0423","volume":"900v5","title":"A flexible acoustic cavity should distinguish wall fouling from liquid filling through mode-dependent frequency ratios.","prediction":"A flexible acoustic cavity should distinguish wall fouling from liquid filling through mode-dependent frequency ratios.","test":"Test known states blindly.","contrary":"Ratios remain indistinguishable.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0423","prediction":"A flexible acoustic cavity should distinguish wall fouling from liquid filling through mode-dependent frequency ratios.","feasible_test":"Test known states blindly.","contrary_outcome":"Ratios remain indistinguishable.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0424","id":"S5-0424","volume":"900v5","title":"A photonic strain gauge should retain accuracy after scratches when it reads a distributed mode rather than local intensity.","prediction":"A photonic strain gauge should retain accuracy after scratches when it reads a distributed mode rather than local intensity.","test":"Apply known damage and strain.","contrary":"Distributed readout gives no error reduction.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0424","prediction":"A photonic strain gauge should retain accuracy after scratches when it reads a distributed mode rather than local intensity.","feasible_test":"Apply known damage and strain.","contrary_outcome":"Distributed readout gives no error reduction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0425","id":"S5-0425","volume":"900v5","title":"A dielectric pore probe should detect adsorption front velocity from cross-correlated electrical noise.","prediction":"A dielectric pore probe should detect adsorption front velocity from cross-correlated electrical noise.","test":"Compare noise and imaged fronts.","contrary":"Noise correlations fail to recover velocity.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0425","prediction":"A dielectric pore probe should detect adsorption front velocity from cross-correlated electrical noise.","feasible_test":"Compare noise and imaged fronts.","contrary_outcome":"Noise correlations fail to recover velocity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0426","id":"S5-0426","volume":"900v5","title":"A capillary pressure sensor should reject acceleration artifacts by comparing opposed menisci.","prediction":"A capillary pressure sensor should reject acceleration artifacts by comparing opposed menisci.","test":"Test pressure and acceleration independently.","contrary":"Differential signal remains acceleration-sensitive.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0426","prediction":"A capillary pressure sensor should reject acceleration artifacts by comparing opposed menisci.","feasible_test":"Test pressure and acceleration independently.","contrary_outcome":"Differential signal remains acceleration-sensitive.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0427","id":"S5-0427","volume":"900v5","title":"A fluorescent coating should identify solvent ingress direction through anisotropic rotational recovery.","prediction":"A fluorescent coating should identify solvent ingress direction through anisotropic rotational recovery.","test":"Measure molecular rotation after directional exposure.","contrary":"Recovery is orientation-independent.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0427","prediction":"A fluorescent coating should identify solvent ingress direction through anisotropic rotational recovery.","feasible_test":"Measure molecular rotation after directional exposure.","contrary_outcome":"Recovery is orientation-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0428","id":"S5-0428","volume":"900v5","title":"A resonant mass sensor should separate reversible adsorption from irreversible deposition through cycle-to-cycle phase recovery.","prediction":"A resonant mass sensor should separate reversible adsorption from irreversible deposition through cycle-to-cycle phase recovery.","test":"Compare known loads.","contrary":"Recovery does not classify loads.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0428","prediction":"A resonant mass sensor should separate reversible adsorption from irreversible deposition through cycle-to-cycle phase recovery.","feasible_test":"Compare known loads.","contrary_outcome":"Recovery does not classify loads.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0429","id":"S5-0429","volume":"900v5","title":"An optical contact sensor should detect lubrication failure through increased temporal asymmetry of speckle fluctuations.","prediction":"An optical contact sensor should detect lubrication failure through increased temporal asymmetry of speckle fluctuations.","test":"Compare film thickness and friction.","contrary":"Asymmetry begins only after wear.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0429","prediction":"An optical contact sensor should detect lubrication failure through increased temporal asymmetry of speckle fluctuations.","feasible_test":"Compare film thickness and friction.","contrary_outcome":"Asymmetry begins only after wear.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0430","id":"S5-0430","volume":"900v5","title":"A thermal pulse probe should recover pore-size distribution better from cooling curvature than a single fitted time constant.","prediction":"A thermal pulse probe should recover pore-size distribution better from cooling curvature than a single fitted time constant.","test":"Test independently imaged networks.","contrary":"Curvature adds no predictive information.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0430","prediction":"A thermal pulse probe should recover pore-size distribution better from cooling curvature than a single fitted time constant.","feasible_test":"Test independently imaged networks.","contrary_outcome":"Curvature adds no predictive information.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0431","id":"S5-0431","volume":"900v5","title":"A soft flow sensor should identify two-phase flow through intermittent torsional pulses from passing interfaces.","prediction":"A soft flow sensor should identify two-phase flow through intermittent torsional pulses from passing interfaces.","test":"Image phases and sensor motion.","contrary":"Torsion follows total flow alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0431","prediction":"A soft flow sensor should identify two-phase flow through intermittent torsional pulses from passing interfaces.","feasible_test":"Image phases and sensor motion.","contrary_outcome":"Torsion follows total flow alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0432","id":"S5-0432","volume":"900v5","title":"A polarization measurement should distinguish reversible wall alignment from fracture-induced birefringence through recovery paths.","prediction":"A polarization measurement should distinguish reversible wall alignment from fracture-induced birefringence through recovery paths.","test":"Test controlled loading and damage.","contrary":"Paths remain indistinguishable.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0432","prediction":"A polarization measurement should distinguish reversible wall alignment from fracture-induced birefringence through recovery paths.","feasible_test":"Test controlled loading and damage.","contrary_outcome":"Paths remain indistinguishable.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0433","id":"S5-0433","volume":"900v5","title":"An acoustic sensor should detect the first connected ice bridge through a new low-loss propagation path.","prediction":"An acoustic sensor should detect the first connected ice bridge through a new low-loss propagation path.","test":"Image freezing topology.","contrary":"Signal follows total ice fraction only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0433","prediction":"An acoustic sensor should detect the first connected ice bridge through a new low-loss propagation path.","feasible_test":"Image freezing topology.","contrary_outcome":"Signal follows total ice fraction only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0434","id":"S5-0434","volume":"900v5","title":"A porous resistance sensor should detect dust loading before hydraulic pressure rises by monitoring contact-noise intermittency.","prediction":"A porous resistance sensor should detect dust loading before hydraulic pressure rises by monitoring contact-noise intermittency.","test":"Measure dust, noise and pressure.","contrary":"Noise changes occur only after pressure rise.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0434","prediction":"A porous resistance sensor should detect dust loading before hydraulic pressure rises by monitoring contact-noise intermittency.","feasible_test":"Measure dust, noise and pressure.","contrary_outcome":"Noise changes occur only after pressure rise.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0435","id":"S5-0435","volume":"900v5","title":"A flexible calorimeter should distinguish swelling heat from reaction heat through simultaneous strain measurement.","prediction":"A flexible calorimeter should distinguish swelling heat from reaction heat through simultaneous strain measurement.","test":"Calibrate each process.","contrary":"Joint measurements remain underdetermined.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0435","prediction":"A flexible calorimeter should distinguish swelling heat from reaction heat through simultaneous strain measurement.","feasible_test":"Calibrate each process.","contrary_outcome":"Joint measurements remain underdetermined.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0436","id":"S5-0436","volume":"900v5","title":"A waveguide humidity sensor should recover faster after mechanical vibration empties dead-end liquid pockets.","prediction":"A waveguide humidity sensor should recover faster after mechanical vibration empties dead-end liquid pockets.","test":"Image pockets and optical recovery.","contrary":"Recovery is unchanged by emptying.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0436","prediction":"A waveguide humidity sensor should recover faster after mechanical vibration empties dead-end liquid pockets.","feasible_test":"Image pockets and optical recovery.","contrary_outcome":"Recovery is unchanged by emptying.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0437","id":"S5-0437","volume":"900v5","title":"A microcantilever should detect molecular-film aging through changes in its response to short rather than sustained loads.","prediction":"A microcantilever should detect molecular-film aging through changes in its response to short rather than sustained loads.","test":"Compare load durations and film dynamics.","contrary":"Responses scale identically with aging.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0437","prediction":"A microcantilever should detect molecular-film aging through changes in its response to short rather than sustained loads.","feasible_test":"Compare load durations and film dynamics.","contrary_outcome":"Responses scale identically with aging.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0438","id":"S5-0438","volume":"900v5","title":"A transparent adhesive sensor should reveal bond rupture density through emitted-light intermittency without tracking individual cracks.","prediction":"A transparent adhesive sensor should reveal bond rupture density through emitted-light intermittency without tracking individual cracks.","test":"Compare light and microscopy.","contrary":"Emission cannot quantify ruptures.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0438","prediction":"A transparent adhesive sensor should reveal bond rupture density through emitted-light intermittency without tracking individual cracks.","feasible_test":"Compare light and microscopy.","contrary_outcome":"Emission cannot quantify ruptures.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0439","id":"S5-0439","volume":"900v5","title":"A thermal-emission assay should identify trapped gas through angle-dependent cooling transients.","prediction":"A thermal-emission assay should identify trapped gas through angle-dependent cooling transients.","test":"Test calibrated gas pockets.","contrary":"Angular response follows surface geometry alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0439","prediction":"A thermal-emission assay should identify trapped gas through angle-dependent cooling transients.","feasible_test":"Test calibrated gas pockets.","contrary_outcome":"Angular response follows surface geometry alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0440","id":"S5-0440","volume":"900v5","title":"A capacitive coating should distinguish compression from drying through opposite phase loops in complex impedance.","prediction":"A capacitive coating should distinguish compression from drying through opposite phase loops in complex impedance.","test":"Calibrate both perturbations.","contrary":"Loops overlap across inputs.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0440","prediction":"A capacitive coating should distinguish compression from drying through opposite phase loops in complex impedance.","feasible_test":"Calibrate both perturbations.","contrary_outcome":"Loops overlap across inputs.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0441","id":"S5-0441","volume":"900v5","title":"A mechanically active sensor should reduce chemical-response hysteresis by periodically renewing its exposed surface.","prediction":"A mechanically active sensor should reduce chemical-response hysteresis by periodically renewing its exposed surface.","test":"Measure surface exchange and output.","contrary":"Hysteresis reduction is exchange-independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0441","prediction":"A mechanically active sensor should reduce chemical-response hysteresis by periodically renewing its exposed surface.","feasible_test":"Measure surface exchange and output.","contrary_outcome":"Hysteresis reduction is exchange-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0442","id":"S5-0442","volume":"900v5","title":"A capillary imaging assay should locate unseen pore blockage through upstream meniscus fluctuation correlations.","prediction":"A capillary imaging assay should locate unseen pore blockage through upstream meniscus fluctuation correlations.","test":"Compare known blockages.","contrary":"Correlations cannot localize blockage.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0442","prediction":"A capillary imaging assay should locate unseen pore blockage through upstream meniscus fluctuation correlations.","feasible_test":"Compare known blockages.","contrary_outcome":"Correlations cannot localize blockage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0443","id":"S5-0443","volume":"900v5","title":"A fluorescent pressure film should retain overload duration through a slow recovery tail.","prediction":"A fluorescent pressure film should retain overload duration through a slow recovery tail.","test":"Apply equal-peak pulses of varied duration.","contrary":"Recovery depends only on peak load.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0443","prediction":"A fluorescent pressure film should retain overload duration through a slow recovery tail.","feasible_test":"Apply equal-peak pulses of varied duration.","contrary_outcome":"Recovery depends only on peak load.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0444","id":"S5-0444","volume":"900v5","title":"A suspended resonator should detect solvent composition gradients through mode-shape asymmetry.","prediction":"A suspended resonator should detect solvent composition gradients through mode-shape asymmetry.","test":"Measure composition profiles.","contrary":"Asymmetry follows total mass alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0444","prediction":"A suspended resonator should detect solvent composition gradients through mode-shape asymmetry.","feasible_test":"Measure composition profiles.","contrary_outcome":"Asymmetry follows total mass alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0445","id":"S5-0445","volume":"900v5","title":"An optical fiber should reveal internal gel fracture through localized spectral broadening before transmission falls.","prediction":"An optical fiber should reveal internal gel fracture through localized spectral broadening before transmission falls.","test":"Image fracture and spectra.","contrary":"Broadening begins only after intensity loss.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0445","prediction":"An optical fiber should reveal internal gel fracture through localized spectral broadening before transmission falls.","feasible_test":"Image fracture and spectra.","contrary_outcome":"Broadening begins only after intensity loss.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0446","id":"S5-0446","volume":"900v5","title":"A dielectric assay should identify bound-water release through a separate relaxation peak during heating.","prediction":"A dielectric assay should identify bound-water release through a separate relaxation peak during heating.","test":"Compare calorimetry and spectra.","contrary":"Peaks cannot separate bound and free water.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0446","prediction":"A dielectric assay should identify bound-water release through a separate relaxation peak during heating.","feasible_test":"Compare calorimetry and spectra.","contrary_outcome":"Peaks cannot separate bound and free water.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0447","id":"S5-0447","volume":"900v5","title":"A thermal sensor should detect capillary bridge rupture through a discontinuous contact conductance drop.","prediction":"A thermal sensor should detect capillary bridge rupture through a discontinuous contact conductance drop.","test":"Image rupture and heat flux.","contrary":"Conductance varies continuously through rupture.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0447","prediction":"A thermal sensor should detect capillary bridge rupture through a discontinuous contact conductance drop.","feasible_test":"Image rupture and heat flux.","contrary_outcome":"Conductance varies continuously through rupture.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0448","id":"S5-0448","volume":"900v5","title":"A soft acoustic probe should distinguish a filled pore from an empty collapsed pore through nonlinear harmonics.","prediction":"A soft acoustic probe should distinguish a filled pore from an empty collapsed pore through nonlinear harmonics.","test":"Test known topologies.","contrary":"Harmonic signatures remain degenerate.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0448","prediction":"A soft acoustic probe should distinguish a filled pore from an empty collapsed pore through nonlinear harmonics.","feasible_test":"Test known topologies.","contrary_outcome":"Harmonic signatures remain degenerate.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0449","id":"S5-0449","volume":"900v5","title":"A pressure-sensitive optical tag should identify loading sequence through the order of retained bistable domains.","prediction":"A pressure-sensitive optical tag should identify loading sequence through the order of retained bistable domains.","test":"Apply reversed sequences.","contrary":"Final pattern is sequence-independent.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0449","prediction":"A pressure-sensitive optical tag should identify loading sequence through the order of retained bistable domains.","feasible_test":"Apply reversed sequences.","contrary_outcome":"Final pattern is sequence-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0450","id":"S5-0450","volume":"900v5","title":"A photothermal assay should reveal interfacial debonding through a delayed acoustic echo despite unchanged optical reflectance.","prediction":"A photothermal assay should reveal interfacial debonding through a delayed acoustic echo despite unchanged optical reflectance.","test":"Compare echoes and destructive sectioning.","contrary":"Echoes add no debonding sensitivity.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0450","prediction":"A photothermal assay should reveal interfacial debonding through a delayed acoustic echo despite unchanged optical reflectance.","feasible_test":"Compare echoes and destructive sectioning.","contrary_outcome":"Echoes add no debonding sensitivity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0451","id":"S5-0451","volume":"900v5","title":"A dry mineral bed should release a concentrated dissolved-organic pulse when its first connected water film forms.","prediction":"A dry mineral bed should release a concentrated dissolved-organic pulse when its first connected water film forms.","test":"Measure connectivity and effluent.","contrary":"Release follows cumulative water volume alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0451","prediction":"A dry mineral bed should release a concentrated dissolved-organic pulse when its first connected water film forms.","feasible_test":"Measure connectivity and effluent.","contrary_outcome":"Release follows cumulative water volume alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0452","id":"S5-0452","volume":"900v5","title":"A sediment surface should retain a cooling-induced density layer that suppresses colloid resuspension after warming begins.","prediction":"A sediment surface should retain a cooling-induced density layer that suppresses colloid resuspension after warming begins.","test":"Map density and particle flux.","contrary":"Resuspension follows instantaneous temperature only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0452","prediction":"A sediment surface should retain a cooling-induced density layer that suppresses colloid resuspension after warming begins.","feasible_test":"Map density and particle flux.","contrary_outcome":"Resuspension follows instantaneous temperature only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0453","id":"S5-0453","volume":"900v5","title":"A salt-crusted pore should preferentially admit fog droplets through mechanically fractured edges.","prediction":"A salt-crusted pore should preferentially admit fog droplets through mechanically fractured edges.","test":"Image impacts and entry sites.","contrary":"Entry is independent of crust fractures.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0453","prediction":"A salt-crusted pore should preferentially admit fog droplets through mechanically fractured edges.","feasible_test":"Image impacts and entry sites.","contrary_outcome":"Entry is independent of crust fractures.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0454","id":"S5-0454","volume":"900v5","title":"A porous rock analogue should develop transient negative pore pressure after rapid external decompression because gas leaves before liquid.","prediction":"A porous rock analogue should develop transient negative pore pressure after rapid external decompression because gas leaves before liquid.","test":"Measure phase-specific flow and pressure.","contrary":"Pressure follows external decompression monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0454","prediction":"A porous rock analogue should develop transient negative pore pressure after rapid external decompression because gas leaves before liquid.","feasible_test":"Measure phase-specific flow and pressure.","contrary_outcome":"Pressure follows external decompression monotonically.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0455","id":"S5-0455","volume":"900v5","title":"A mineral-coated fiber network should collect dissolved phosphate preferentially where compression creates new grain contacts.","prediction":"A mineral-coated fiber network should collect dissolved phosphate preferentially where compression creates new grain contacts.","test":"Map contacts and phosphate.","contrary":"Adsorption follows exposed area alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0455","prediction":"A mineral-coated fiber network should collect dissolved phosphate preferentially where compression creates new grain contacts.","feasible_test":"Map contacts and phosphate.","contrary_outcome":"Adsorption follows exposed area alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0456","id":"S5-0456","volume":"900v5","title":"A soil aggregate should survive rainfall better after a mild freeze creates a reinforcing internal mineral bridge.","prediction":"A soil aggregate should survive rainfall better after a mild freeze creates a reinforcing internal mineral bridge.","test":"Image bridge and impact strength.","contrary":"Freeze history only weakens aggregates.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0456","prediction":"A soil aggregate should survive rainfall better after a mild freeze creates a reinforcing internal mineral bridge.","feasible_test":"Image bridge and impact strength.","contrary_outcome":"Freeze history only weakens aggregates.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0457","id":"S5-0457","volume":"900v5","title":"A clay-lined pore should eject trapped colloids when rewetting causes its walls to buckle inward.","prediction":"A clay-lined pore should eject trapped colloids when rewetting causes its walls to buckle inward.","test":"Measure wall motion and particle release.","contrary":"Release requires external flow shear.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0457","prediction":"A clay-lined pore should eject trapped colloids when rewetting causes its walls to buckle inward.","feasible_test":"Measure wall motion and particle release.","contrary_outcome":"Release requires external flow shear.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0458","id":"S5-0458","volume":"900v5","title":"A wet ash layer should retain a pH gradient after clean-water flushing through slow dissolution of inaccessible grains.","prediction":"A wet ash layer should retain a pH gradient after clean-water flushing through slow dissolution of inaccessible grains.","test":"Map pH and grain access.","contrary":"Gradient decays at the free-diffusion rate.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0458","prediction":"A wet ash layer should retain a pH gradient after clean-water flushing through slow dissolution of inaccessible grains.","feasible_test":"Map pH and grain access.","contrary_outcome":"Gradient decays at the free-diffusion rate.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0459","id":"S5-0459","volume":"900v5","title":"A submerged mineral film should peel from its support during gas nucleation at buried defects.","prediction":"A submerged mineral film should peel from its support during gas nucleation at buried defects.","test":"Image gas and peeling.","contrary":"Peeling occurs without buried bubbles.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0459","prediction":"A submerged mineral film should peel from its support during gas nucleation at buried defects.","feasible_test":"Image gas and peeling.","contrary_outcome":"Peeling occurs without buried bubbles.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0460","id":"S5-0460","volume":"900v5","title":"A carbonate grain should accumulate fines in its dissolving wake through locally increased density.","prediction":"A carbonate grain should accumulate fines in its dissolving wake through locally increased density.","test":"Measure density and particle trajectories.","contrary":"Capture follows surface adhesion only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0460","prediction":"A carbonate grain should accumulate fines in its dissolving wake through locally increased density.","feasible_test":"Measure density and particle trajectories.","contrary_outcome":"Capture follows surface adhesion only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0461","id":"S5-0461","volume":"900v5","title":"A layered sand bed should form isolated vapor pockets when its drying front crosses a capillary barrier.","prediction":"A layered sand bed should form isolated vapor pockets when its drying front crosses a capillary barrier.","test":"Image phases and front motion.","contrary":"Gas remains continuously connected.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0461","prediction":"A layered sand bed should form isolated vapor pockets when its drying front crosses a capillary barrier.","feasible_test":"Image phases and front motion.","contrary_outcome":"Gas remains continuously connected.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0462","id":"S5-0462","volume":"900v5","title":"A mineral-organic film should concentrate water at stressed fold lines through increased local sorption.","prediction":"A mineral-organic film should concentrate water at stressed fold lines through increased local sorption.","test":"Map stress and water.","contrary":"Sorption follows thickness alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0462","prediction":"A mineral-organic film should concentrate water at stressed fold lines through increased local sorption.","feasible_test":"Map stress and water.","contrary_outcome":"Sorption follows thickness alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0463","id":"S5-0463","volume":"900v5","title":"A porous salt layer should trap an aerosol pulse temporarily by deliquescing at its entrance.","prediction":"A porous salt layer should trap an aerosol pulse temporarily by deliquescing at its entrance.","test":"Measure liquid and breakthrough.","contrary":"Capture is unchanged below deliquescence.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0463","prediction":"A porous salt layer should trap an aerosol pulse temporarily by deliquescing at its entrance.","feasible_test":"Measure liquid and breakthrough.","contrary_outcome":"Capture is unchanged below deliquescence.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0464","id":"S5-0464","volume":"900v5","title":"A sediment seam should conduct an acoustic pulse faster after slight wetting connects stiff liquid bridges.","prediction":"A sediment seam should conduct an acoustic pulse faster after slight wetting connects stiff liquid bridges.","test":"Measure bridge topology and wave speed.","contrary":"Speed follows average saturation alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0464","prediction":"A sediment seam should conduct an acoustic pulse faster after slight wetting connects stiff liquid bridges.","feasible_test":"Measure bridge topology and wave speed.","contrary_outcome":"Speed follows average saturation alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0465","id":"S5-0465","volume":"900v5","title":"A mineral rind should develop a preferred crack spacing set by vapor diffusion length during dehydration.","prediction":"A mineral rind should develop a preferred crack spacing set by vapor diffusion length during dehydration.","test":"Measure front and cracks.","contrary":"Spacing follows rind thickness alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0465","prediction":"A mineral rind should develop a preferred crack spacing set by vapor diffusion length during dehydration.","feasible_test":"Measure front and cracks.","contrary_outcome":"Spacing follows rind thickness alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0466","id":"S5-0466","volume":"900v5","title":"A clay-coated droplet should retain dissolved ions after evaporation through cooperative collapse of its shell.","prediction":"A clay-coated droplet should retain dissolved ions after evaporation through cooperative collapse of its shell.","test":"Measure shell and ion release upon rewetting.","contrary":"Retention follows ordinary crystallization only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0466","prediction":"A clay-coated droplet should retain dissolved ions after evaporation through cooperative collapse of its shell.","feasible_test":"Measure shell and ion release upon rewetting.","contrary_outcome":"Retention follows ordinary crystallization only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0467","id":"S5-0467","volume":"900v5","title":"A porous carbonate should focus dissolution below a moving contact line because repeated wetting renews reactants.","prediction":"A porous carbonate should focus dissolution below a moving contact line because repeated wetting renews reactants.","test":"Map reaction and line history.","contrary":"Dissolution follows total wet time alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0467","prediction":"A porous carbonate should focus dissolution below a moving contact line because repeated wetting renews reactants.","feasible_test":"Map reaction and line history.","contrary_outcome":"Dissolution follows total wet time alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0468","id":"S5-0468","volume":"900v5","title":"A thermal pulse through sediment should generate a transient solute counterflow through differential adsorption enthalpies.","prediction":"A thermal pulse through sediment should generate a transient solute counterflow through differential adsorption enthalpies.","test":"Measure solute and water velocities.","contrary":"Solute always follows water.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0468","prediction":"A thermal pulse through sediment should generate a transient solute counterflow through differential adsorption enthalpies.","feasible_test":"Measure solute and water velocities.","contrary_outcome":"Solute always follows water.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0469","id":"S5-0469","volume":"900v5","title":"A floating mineral raft should sort grains by wetting relaxation time during gentle wave cycling.","prediction":"A floating mineral raft should sort grains by wetting relaxation time during gentle wave cycling.","test":"Measure single-grain wetting and positions.","contrary":"Sorting follows density alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0469","prediction":"A floating mineral raft should sort grains by wetting relaxation time during gentle wave cycling.","feasible_test":"Measure single-grain wetting and positions.","contrary_outcome":"Sorting follows density alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0470","id":"S5-0470","volume":"900v5","title":"A salt-bearing soil analogue should preserve a dry internal lens after surface flooding because trapped gas resists compression.","prediction":"A salt-bearing soil analogue should preserve a dry internal lens after surface flooding because trapped gas resists compression.","test":"Image gas and saturation.","contrary":"Flooding eliminates dry regions immediately.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0470","prediction":"A salt-bearing soil analogue should preserve a dry internal lens after surface flooding because trapped gas resists compression.","feasible_test":"Image gas and saturation.","contrary_outcome":"Flooding eliminates dry regions immediately.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0471","id":"S5-0471","volume":"900v5","title":"A mineral gel should stiffen first at its drying front when migrating ions crosslink the network.","prediction":"A mineral gel should stiffen first at its drying front when migrating ions crosslink the network.","test":"Map ions and modulus.","contrary":"Stiffening follows water loss without ion enrichment.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0471","prediction":"A mineral gel should stiffen first at its drying front when migrating ions crosslink the network.","feasible_test":"Map ions and modulus.","contrary_outcome":"Stiffening follows water loss without ion enrichment.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0472","id":"S5-0472","volume":"900v5","title":"A sediment fracture should seal faster after pulsed than continuous mineral supply because rest allows nuclei to anchor.","prediction":"A sediment fracture should seal faster after pulsed than continuous mineral supply because rest allows nuclei to anchor.","test":"Measure anchoring and aperture.","contrary":"Sealing depends only on supplied mineral mass.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0472","prediction":"A sediment fracture should seal faster after pulsed than continuous mineral supply because rest allows nuclei to anchor.","feasible_test":"Measure anchoring and aperture.","contrary_outcome":"Sealing depends only on supplied mineral mass.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0473","id":"S5-0473","volume":"900v5","title":"A porous stone should emit a spatially localized odorant pulse when humidity displaces adsorbed organic molecules.","prediction":"A porous stone should emit a spatially localized odorant pulse when humidity displaces adsorbed organic molecules.","test":"Map vapor and local water.","contrary":"Release is spatially uniform.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0473","prediction":"A porous stone should emit a spatially localized odorant pulse when humidity displaces adsorbed organic molecules.","feasible_test":"Map vapor and local water.","contrary_outcome":"Release is spatially uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0474","id":"S5-0474","volume":"900v5","title":"A sand layer should show transient upward grain motion when capillary bridges contract during cooling.","prediction":"A sand layer should show transient upward grain motion when capillary bridges contract during cooling.","test":"Measure bridges and grain displacement.","contrary":"Motion requires external vibration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0474","prediction":"A sand layer should show transient upward grain motion when capillary bridges contract during cooling.","feasible_test":"Measure bridges and grain displacement.","contrary_outcome":"Motion requires external vibration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0475","id":"S5-0475","volume":"900v5","title":"A clay film should crack along a chemical front when ion exchange produces a localized shrinkage band.","prediction":"A clay film should crack along a chemical front when ion exchange produces a localized shrinkage band.","test":"Map ions and strain.","contrary":"Cracks ignore the exchange front.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0475","prediction":"A clay film should crack along a chemical front when ion exchange produces a localized shrinkage band.","feasible_test":"Map ions and strain.","contrary_outcome":"Cracks ignore the exchange front.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0476","id":"S5-0476","volume":"900v5","title":"A mineral aggregate should show a dissolution-rate minimum while internal gas disconnects its wet surface network.","prediction":"A mineral aggregate should show a dissolution-rate minimum while internal gas disconnects its wet surface network.","test":"Image gas and reaction.","contrary":"Rate follows wetted area continuously.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0476","prediction":"A mineral aggregate should show a dissolution-rate minimum while internal gas disconnects its wet surface network.","feasible_test":"Image gas and reaction.","contrary_outcome":"Rate follows wetted area continuously.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0477","id":"S5-0477","volume":"900v5","title":"A sediment bed should retain microfibers more strongly after flow reversal wraps them around contact clusters.","prediction":"A sediment bed should retain microfibers more strongly after flow reversal wraps them around contact clusters.","test":"Track fiber geometry and retention.","contrary":"Retention is reversal-independent.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0477","prediction":"A sediment bed should retain microfibers more strongly after flow reversal wraps them around contact clusters.","feasible_test":"Track fiber geometry and retention.","contrary_outcome":"Retention is reversal-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0478","id":"S5-0478","volume":"900v5","title":"A drying porous shell should become more permeable when residual compressive stress opens tangential cracks.","prediction":"A drying porous shell should become more permeable when residual compressive stress opens tangential cracks.","test":"Measure stress, cracks and flow.","contrary":"Permeability changes require tensile stress.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0478","prediction":"A drying porous shell should become more permeable when residual compressive stress opens tangential cracks.","feasible_test":"Measure stress, cracks and flow.","contrary_outcome":"Permeability changes require tensile stress.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0479","id":"S5-0479","volume":"900v5","title":"A carbonate membrane should preferentially precipitate at throats that carry the largest pressure fluctuations.","prediction":"A carbonate membrane should preferentially precipitate at throats that carry the largest pressure fluctuations.","test":"Map fluctuations and deposition.","contrary":"Deposition follows mean flow alone.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0479","prediction":"A carbonate membrane should preferentially precipitate at throats that carry the largest pressure fluctuations.","feasible_test":"Map fluctuations and deposition.","contrary_outcome":"Deposition follows mean flow alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0480","id":"S5-0480","volume":"900v5","title":"A mineral dust film should shed in coherent islands when dew bridges transfer stress between grains.","prediction":"A mineral dust film should shed in coherent islands when dew bridges transfer stress between grains.","test":"Measure bridges and detachment sizes.","contrary":"Grains detach independently.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0480","prediction":"A mineral dust film should shed in coherent islands when dew bridges transfer stress between grains.","feasible_test":"Measure bridges and detachment sizes.","contrary_outcome":"Grains detach independently.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0481","id":"S5-0481","volume":"900v5","title":"A nonviable root tip should concentrate condensation at its softened outer boundary.","prediction":"A nonviable root tip should concentrate condensation at its softened outer boundary.","test":"Map modulus and dew.","contrary":"Condensation follows curvature and temperature only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0481","prediction":"A nonviable root tip should concentrate condensation at its softened outer boundary.","feasible_test":"Map modulus and dew.","contrary_outcome":"Condensation follows curvature and temperature only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0482","id":"S5-0482","volume":"900v5","title":"A fungal mat should retain hydraulic conductivity after a local tear through elastic closure of neighboring channels.","prediction":"A fungal mat should retain hydraulic conductivity after a local tear through elastic closure of neighboring channels.","test":"Image channels and flow.","contrary":"Conductivity drops in proportion to severed area.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0482","prediction":"A fungal mat should retain hydraulic conductivity after a local tear through elastic closure of neighboring channels.","feasible_test":"Image channels and flow.","contrary_outcome":"Conductivity drops in proportion to severed area.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0483","id":"S5-0483","volume":"900v5","title":"A leaf vein should carry a mechanical wave farther when its fluid column remains continuous.","prediction":"A leaf vein should carry a mechanical wave farther when its fluid column remains continuous.","test":"Compare embolized and intact veins.","contrary":"Propagation is liquid-continuity independent.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0483","prediction":"A leaf vein should carry a mechanical wave farther when its fluid column remains continuous.","feasible_test":"Compare embolized and intact veins.","contrary_outcome":"Propagation is liquid-continuity independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0484","id":"S5-0484","volume":"900v5","title":"A seed coat should stiffen locally ahead of a drying front because solute accumulates there.","prediction":"A seed coat should stiffen locally ahead of a drying front because solute accumulates there.","test":"Map solute and indentation modulus.","contrary":"Stiffness follows water content alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0484","prediction":"A seed coat should stiffen locally ahead of a drying front because solute accumulates there.","feasible_test":"Map solute and indentation modulus.","contrary_outcome":"Stiffness follows water content alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0485","id":"S5-0485","volume":"900v5","title":"A moss cushion should resist compression more strongly during rapid wetting than after full hydration.","prediction":"A moss cushion should resist compression more strongly during rapid wetting than after full hydration.","test":"Measure force and water distribution.","contrary":"Resistance depends only on total water.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0485","prediction":"A moss cushion should resist compression more strongly during rapid wetting than after full hydration.","feasible_test":"Measure force and water distribution.","contrary_outcome":"Resistance depends only on total water.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0486","id":"S5-0486","volume":"900v5","title":"A fungal cord junction should act as a capillary reservoir during pressure drops.","prediction":"A fungal cord junction should act as a capillary reservoir during pressure drops.","test":"Measure junction volume and branch flow.","contrary":"Junctions provide no buffering beyond their volume.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0486","prediction":"A fungal cord junction should act as a capillary reservoir during pressure drops.","feasible_test":"Measure junction volume and branch flow.","contrary_outcome":"Junctions provide no buffering beyond their volume.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0487","id":"S5-0487","volume":"900v5","title":"A leaf hair layer should support a droplet through collective bending with little epidermal pressure.","prediction":"A leaf hair layer should support a droplet through collective bending with little epidermal pressure.","test":"Measure hair motion and substrate force.","contrary":"Most force reaches the epidermis directly.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0487","prediction":"A leaf hair layer should support a droplet through collective bending with little epidermal pressure.","feasible_test":"Measure hair motion and substrate force.","contrary_outcome":"Most force reaches the epidermis directly.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0488","id":"S5-0488","volume":"900v5","title":"A woody fiber should transmit an electric streaming pulse during bending-induced internal water flow.","prediction":"A woody fiber should transmit an electric streaming pulse during bending-induced internal water flow.","test":"Measure voltage and lumen flow.","contrary":"Voltage remains after fluid motion is eliminated equally.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0488","prediction":"A woody fiber should transmit an electric streaming pulse during bending-induced internal water flow.","feasible_test":"Measure voltage and lumen flow.","contrary_outcome":"Voltage remains after fluid motion is eliminated equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0489","id":"S5-0489","volume":"900v5","title":"A root exudate film should become more slippery after shear aligns its long molecules near the wall.","prediction":"A root exudate film should become more slippery after shear aligns its long molecules near the wall.","test":"Map alignment and friction.","contrary":"Friction follows viscosity without alignment.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0489","prediction":"A root exudate film should become more slippery after shear aligns its long molecules near the wall.","feasible_test":"Map alignment and friction.","contrary_outcome":"Friction follows viscosity without alignment.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0490","id":"S5-0490","volume":"900v5","title":"A fungal spore should retain asymmetric hydration after apparently uniform surface wetting.","prediction":"A fungal spore should retain asymmetric hydration after apparently uniform surface wetting.","test":"Map internal water.","contrary":"Water becomes uniform with surface coverage.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0490","prediction":"A fungal spore should retain asymmetric hydration after apparently uniform surface wetting.","feasible_test":"Map internal water.","contrary_outcome":"Water becomes uniform with surface coverage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0491","id":"S5-0491","volume":"900v5","title":"A leaf skeleton should route a crack toward an empty mesh cell rather than through a major vein.","prediction":"A leaf skeleton should route a crack toward an empty mesh cell rather than through a major vein.","test":"Map stress and path.","contrary":"Cracks follow local stress without network effects.","layers":[1],"categories":["biology","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0491","prediction":"A leaf skeleton should route a crack toward an empty mesh cell rather than through a major vein.","feasible_test":"Map stress and path.","contrary_outcome":"Cracks follow local stress without network effects.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0492","id":"S5-0492","volume":"900v5","title":"A grass stem should resist torsional failure through sequential unwinding of nested fiber layers.","prediction":"A grass stem should resist torsional failure through sequential unwinding of nested fiber layers.","test":"Image layers and torque.","contrary":"All layers deform together.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0492","prediction":"A grass stem should resist torsional failure through sequential unwinding of nested fiber layers.","feasible_test":"Image layers and torque.","contrary_outcome":"All layers deform together.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0493","id":"S5-0493","volume":"900v5","title":"A seed mucilage should rebuild its radial structure after drying through guided re-extension of attached fibrils.","prediction":"A seed mucilage should rebuild its radial structure after drying through guided re-extension of attached fibrils.","test":"Image labeled fibrils across cycles.","contrary":"Radial structure reappears without fibril guidance.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0493","prediction":"A seed mucilage should rebuild its radial structure after drying through guided re-extension of attached fibrils.","feasible_test":"Image labeled fibrils across cycles.","contrary_outcome":"Radial structure reappears without fibril guidance.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0494","id":"S5-0494","volume":"900v5","title":"A fungal hypha should reduce contact friction by forming a locally hydrated sleeve under sustained compression.","prediction":"A fungal hypha should reduce contact friction by forming a locally hydrated sleeve under sustained compression.","test":"Measure hydration and friction.","contrary":"Friction reduction occurs without sleeve formation.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0494","prediction":"A fungal hypha should reduce contact friction by forming a locally hydrated sleeve under sustained compression.","feasible_test":"Measure hydration and friction.","contrary_outcome":"Friction reduction occurs without sleeve formation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0495","id":"S5-0495","volume":"900v5","title":"A leaf's cut edge should wick liquid more slowly after drying closes its exposed channels.","prediction":"A leaf's cut edge should wick liquid more slowly after drying closes its exposed channels.","test":"Image channel geometry and uptake.","contrary":"Uptake is unchanged after re-equilibration.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0495","prediction":"A leaf's cut edge should wick liquid more slowly after drying closes its exposed channels.","feasible_test":"Image channel geometry and uptake.","contrary_outcome":"Uptake is unchanged after re-equilibration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0496","id":"S5-0496","volume":"900v5","title":"A bark layer should bend toward a local humidity source through differential opening of lenticel-like pores.","prediction":"A bark layer should bend toward a local humidity source through differential opening of lenticel-like pores.","test":"Measure pore opening and curvature.","contrary":"Bending follows bulk swelling alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0496","prediction":"A bark layer should bend toward a local humidity source through differential opening of lenticel-like pores.","feasible_test":"Measure pore opening and curvature.","contrary_outcome":"Bending follows bulk swelling alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0497","id":"S5-0497","volume":"900v5","title":"A fern leaflet should emit a reproducible acoustic click at the onset of hinge cavitation.","prediction":"A fern leaflet should emit a reproducible acoustic click at the onset of hinge cavitation.","test":"Measure sound and gas appearance.","contrary":"Clicks lack cavitation timing.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0497","prediction":"A fern leaflet should emit a reproducible acoustic click at the onset of hinge cavitation.","feasible_test":"Measure sound and gas appearance.","contrary_outcome":"Clicks lack cavitation timing.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0498","id":"S5-0498","volume":"900v5","title":"A root hair should trap a particle through a temporary loop formed during bending recovery.","prediction":"A root hair should trap a particle through a temporary loop formed during bending recovery.","test":"Track loop and retention.","contrary":"Capture requires chemical adhesion only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0498","prediction":"A root hair should trap a particle through a temporary loop formed during bending recovery.","feasible_test":"Track loop and retention.","contrary_outcome":"Capture requires chemical adhesion only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0499","id":"S5-0499","volume":"900v5","title":"A fungal sheet should exhibit a moving wetting ridge when water infiltrates its upper surface.","prediction":"A fungal sheet should exhibit a moving wetting ridge when water infiltrates its upper surface.","test":"Map ridge and infiltration.","contrary":"Deformation is spatially uniform.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0499","prediction":"A fungal sheet should exhibit a moving wetting ridge when water infiltrates its upper surface.","feasible_test":"Map ridge and infiltration.","contrary_outcome":"Deformation is spatially uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0500","id":"S5-0500","volume":"900v5","title":"A seed appendage should retain an electrostatic charge longer when drying closes conductive surface grooves.","prediction":"A seed appendage should retain an electrostatic charge longer when drying closes conductive surface grooves.","test":"Measure grooves and charge decay.","contrary":"Decay follows humidity without geometry dependence.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0500","prediction":"A seed appendage should retain an electrostatic charge longer when drying closes conductive surface grooves.","feasible_test":"Measure grooves and charge decay.","contrary_outcome":"Decay follows humidity without geometry dependence.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0501","id":"S5-0501","volume":"900v5","title":"A plant cuticle should recover permeability after localized stretching through slow wax migration into defects.","prediction":"A plant cuticle should recover permeability after localized stretching through slow wax migration into defects.","test":"Map wax and tracer flux.","contrary":"Recovery occurs without migration.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0501","prediction":"A plant cuticle should recover permeability after localized stretching through slow wax migration into defects.","feasible_test":"Map wax and tracer flux.","contrary_outcome":"Recovery occurs without migration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0502","id":"S5-0502","volume":"900v5","title":"A wood vessel should retain a liquid plug after surrounding tissue dries because pit membranes pin its ends.","prediction":"A wood vessel should retain a liquid plug after surrounding tissue dries because pit membranes pin its ends.","test":"Image plugs and pits.","contrary":"Plugs disappear at the same threshold as open tubes.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0502","prediction":"A wood vessel should retain a liquid plug after surrounding tissue dries because pit membranes pin its ends.","feasible_test":"Image plugs and pits.","contrary_outcome":"Plugs disappear at the same threshold as open tubes.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0503","id":"S5-0503","volume":"900v5","title":"A moss leaf should unfold faster after repeated incomplete wetting because residual water occupies its hinge.","prediction":"A moss leaf should unfold faster after repeated incomplete wetting because residual water occupies its hinge.","test":"Map water and angle.","contrary":"Unfolding is history-independent at equal mean water.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0503","prediction":"A moss leaf should unfold faster after repeated incomplete wetting because residual water occupies its hinge.","feasible_test":"Map water and angle.","contrary_outcome":"Unfolding is history-independent at equal mean water.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0504","id":"S5-0504","volume":"900v5","title":"A fungal cord should avoid sharp curvature under flow through redistribution of internal tension.","prediction":"A fungal cord should avoid sharp curvature under flow through redistribution of internal tension.","test":"Measure tension and shape.","contrary":"Shape follows passive bending with uniform tension.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0504","prediction":"A fungal cord should avoid sharp curvature under flow through redistribution of internal tension.","feasible_test":"Measure tension and shape.","contrary_outcome":"Shape follows passive bending with uniform tension.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0505","id":"S5-0505","volume":"900v5","title":"A leaf surface should show directional frost release when veins guide interfacial meltwater.","prediction":"A leaf surface should show directional frost release when veins guide interfacial meltwater.","test":"Map water and detachment.","contrary":"Release direction is vein-independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0505","prediction":"A leaf surface should show directional frost release when veins guide interfacial meltwater.","feasible_test":"Map water and detachment.","contrary_outcome":"Release direction is vein-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0506","id":"S5-0506","volume":"900v5","title":"A root sheath should retain fines during drying through collapse into a cage around particle clusters.","prediction":"A root sheath should retain fines during drying through collapse into a cage around particle clusters.","test":"Image cage and retention.","contrary":"Particles detach despite cage closure.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0506","prediction":"A root sheath should retain fines during drying through collapse into a cage around particle clusters.","feasible_test":"Image cage and retention.","contrary_outcome":"Particles detach despite cage closure.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0507","id":"S5-0507","volume":"900v5","title":"A seed coat should scatter sound differently after imbibition opens its internal lamellae.","prediction":"A seed coat should scatter sound differently after imbibition opens its internal lamellae.","test":"Measure sound and lamellar spacing.","contrary":"Changes follow bulk water mass alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0507","prediction":"A seed coat should scatter sound differently after imbibition opens its internal lamellae.","feasible_test":"Measure sound and lamellar spacing.","contrary_outcome":"Changes follow bulk water mass alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0508","id":"S5-0508","volume":"900v5","title":"A fungal mat should concentrate mechanical strain at interfaces between recently grown and older strands.","prediction":"A fungal mat should concentrate mechanical strain at interfaces between recently grown and older strands.","test":"Map age and strain.","contrary":"Strain follows thickness alone.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0508","prediction":"A fungal mat should concentrate mechanical strain at interfaces between recently grown and older strands.","feasible_test":"Map age and strain.","contrary_outcome":"Strain follows thickness alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0509","id":"S5-0509","volume":"900v5","title":"A dried fruit wall should preserve a vibration signature of prior compression through locked seam offsets.","prediction":"A dried fruit wall should preserve a vibration signature of prior compression through locked seam offsets.","test":"Measure offsets and modes.","contrary":"Modes return despite residual offsets.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0509","prediction":"A dried fruit wall should preserve a vibration signature of prior compression through locked seam offsets.","feasible_test":"Measure offsets and modes.","contrary_outcome":"Modes return despite residual offsets.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0510","id":"S5-0510","volume":"900v5","title":"A cellulose mat should produce a short water jet when a fold snaps open underwater.","prediction":"A cellulose mat should produce a short water jet when a fold snaps open underwater.","test":"Measure fold and fluid velocity.","contrary":"Fluid follows smooth quasistatic displacement.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0510","prediction":"A cellulose mat should produce a short water jet when a fold snaps open underwater.","feasible_test":"Measure fold and fluid velocity.","contrary_outcome":"Fluid follows smooth quasistatic displacement.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0511","id":"S5-0511","volume":"900v5","title":"A porous photonic coating should reveal a hidden wetting barrier through a stalled resonance front.","prediction":"A porous photonic coating should reveal a hidden wetting barrier through a stalled resonance front.","test":"Map spectral and water fronts.","contrary":"Spectral fronts cannot locate the barrier.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0511","prediction":"A porous photonic coating should reveal a hidden wetting barrier through a stalled resonance front.","feasible_test":"Map spectral and water fronts.","contrary_outcome":"Spectral fronts cannot locate the barrier.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0512","id":"S5-0512","volume":"900v5","title":"A soft dielectric sensor should distinguish internal gas release from wall fracture through opposite loss-frequency shifts.","prediction":"A soft dielectric sensor should distinguish internal gas release from wall fracture through opposite loss-frequency shifts.","test":"Calibrate known events.","contrary":"Shift directions overlap.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0512","prediction":"A soft dielectric sensor should distinguish internal gas release from wall fracture through opposite loss-frequency shifts.","feasible_test":"Calibrate known events.","contrary_outcome":"Shift directions overlap.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0513","id":"S5-0513","volume":"900v5","title":"A thermal probe should estimate contact connectivity from nonexponential cooling even when total porosity is fixed.","prediction":"A thermal probe should estimate contact connectivity from nonexponential cooling even when total porosity is fixed.","test":"Test known networks.","contrary":"Cooling depends only on porosity.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0513","prediction":"A thermal probe should estimate contact connectivity from nonexponential cooling even when total porosity is fixed.","feasible_test":"Test known networks.","contrary_outcome":"Cooling depends only on porosity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0514","id":"S5-0514","volume":"900v5","title":"A liquid-crystal indicator should record a shear event through a long-lived disclination pair.","prediction":"A liquid-crystal indicator should record a shear event through a long-lived disclination pair.","test":"Image defects after loading.","contrary":"Defects relax before readout.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0514","prediction":"A liquid-crystal indicator should record a shear event through a long-lived disclination pair.","feasible_test":"Image defects after loading.","contrary_outcome":"Defects relax before readout.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0515","id":"S5-0515","volume":"900v5","title":"A fluorescent pressure reporter should avoid concentration artifacts when anisotropy and lifetime are combined.","prediction":"A fluorescent pressure reporter should avoid concentration artifacts when anisotropy and lifetime are combined.","test":"Test independently varied concentration and pressure.","contrary":"Combined signals remain confounded.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0515","prediction":"A fluorescent pressure reporter should avoid concentration artifacts when anisotropy and lifetime are combined.","feasible_test":"Test independently varied concentration and pressure.","contrary_outcome":"Combined signals remain confounded.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0516","id":"S5-0516","volume":"900v5","title":"A microacoustic assay should identify a fluid inclusion's viscosity from its damping spectrum without resolving its shape optically.","prediction":"A microacoustic assay should identify a fluid inclusion's viscosity from its damping spectrum without resolving its shape optically.","test":"Test known inclusions.","contrary":"Shape uncertainty dominates viscosity estimates.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0516","prediction":"A microacoustic assay should identify a fluid inclusion's viscosity from its damping spectrum without resolving its shape optically.","feasible_test":"Test known inclusions.","contrary_outcome":"Shape uncertainty dominates viscosity estimates.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0517","id":"S5-0517","volume":"900v5","title":"A photothermal sensor should distinguish adsorption from wetting through the sign of its initial heat pulse.","prediction":"A photothermal sensor should distinguish adsorption from wetting through the sign of its initial heat pulse.","test":"Calibrate both processes.","contrary":"Signs are not separable.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0517","prediction":"A photothermal sensor should distinguish adsorption from wetting through the sign of its initial heat pulse.","feasible_test":"Calibrate both processes.","contrary_outcome":"Signs are not separable.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0518","id":"S5-0518","volume":"900v5","title":"A resonant membrane should reveal a buried gel phase boundary through local mode conversion.","prediction":"A resonant membrane should reveal a buried gel phase boundary through local mode conversion.","test":"Map phase and vibration.","contrary":"Conversion follows thickness variation alone.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0518","prediction":"A resonant membrane should reveal a buried gel phase boundary through local mode conversion.","feasible_test":"Map phase and vibration.","contrary_outcome":"Conversion follows thickness variation alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0519","id":"S5-0519","volume":"900v5","title":"A fiber-optic pressure probe should retain calibration under torsion when two counterwound sensing paths are compared.","prediction":"A fiber-optic pressure probe should retain calibration under torsion when two counterwound sensing paths are compared.","test":"Apply combined loads.","contrary":"Correction fails blinded pressure recovery.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0519","prediction":"A fiber-optic pressure probe should retain calibration under torsion when two counterwound sensing paths are compared.","feasible_test":"Apply combined loads.","contrary_outcome":"Correction fails blinded pressure recovery.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0520","id":"S5-0520","volume":"900v5","title":"A porous capacitance sensor should report an evaporation front's direction through sequential electrode covariance.","prediction":"A porous capacitance sensor should report an evaporation front's direction through sequential electrode covariance.","test":"Compare known fronts.","contrary":"Covariance cannot recover direction.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0520","prediction":"A porous capacitance sensor should report an evaporation front's direction through sequential electrode covariance.","feasible_test":"Compare known fronts.","contrary_outcome":"Covariance cannot recover direction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0521","id":"S5-0521","volume":"900v5","title":"A thin optical cavity should detect interfacial creep from a slow polarization drift despite constant gap thickness.","prediction":"A thin optical cavity should detect interfacial creep from a slow polarization drift despite constant gap thickness.","test":"Measure creep and thickness.","contrary":"Drift follows thickness alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0521","prediction":"A thin optical cavity should detect interfacial creep from a slow polarization drift despite constant gap thickness.","feasible_test":"Measure creep and thickness.","contrary_outcome":"Drift follows thickness alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0522","id":"S5-0522","volume":"900v5","title":"A soft acoustic tag should retain an impact's approximate duration through unequal recovery of two cavities.","prediction":"A soft acoustic tag should retain an impact's approximate duration through unequal recovery of two cavities.","test":"Apply equal-energy pulses.","contrary":"Recovery ratios depend only on energy.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0522","prediction":"A soft acoustic tag should retain an impact's approximate duration through unequal recovery of two cavities.","feasible_test":"Apply equal-energy pulses.","contrary_outcome":"Recovery ratios depend only on energy.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0523","id":"S5-0523","volume":"900v5","title":"A microthermal array should locate vapor channels through delayed temperature anticorrelations.","prediction":"A microthermal array should locate vapor channels through delayed temperature anticorrelations.","test":"Map gas and heat.","contrary":"Correlations cannot identify channels.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0523","prediction":"A microthermal array should locate vapor channels through delayed temperature anticorrelations.","feasible_test":"Map gas and heat.","contrary_outcome":"Correlations cannot identify channels.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0524","id":"S5-0524","volume":"900v5","title":"A fluorescent membrane should distinguish ion binding from protonation through time-dependent polarization.","prediction":"A fluorescent membrane should distinguish ion binding from protonation through time-dependent polarization.","test":"Calibrate both changes.","contrary":"Polarization paths overlap.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0524","prediction":"A fluorescent membrane should distinguish ion binding from protonation through time-dependent polarization.","feasible_test":"Calibrate both changes.","contrary_outcome":"Polarization paths overlap.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0525","id":"S5-0525","volume":"900v5","title":"A granular sensor should retain overload count as progressive contact-network densification.","prediction":"A granular sensor should retain overload count as progressive contact-network densification.","test":"Measure topology after counted pulses.","contrary":"State depends only on the largest pulse.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0525","prediction":"A granular sensor should retain overload count as progressive contact-network densification.","feasible_test":"Measure topology after counted pulses.","contrary_outcome":"State depends only on the largest pulse.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0526","id":"S5-0526","volume":"900v5","title":"A flexible optical grating should detect delamination through an abrupt rotation of its strain axis.","prediction":"A flexible optical grating should detect delamination through an abrupt rotation of its strain axis.","test":"Measure axis and interface separation.","contrary":"Rotation occurs equally without delamination.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0526","prediction":"A flexible optical grating should detect delamination through an abrupt rotation of its strain axis.","feasible_test":"Measure axis and interface separation.","contrary_outcome":"Rotation occurs equally without delamination.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0527","id":"S5-0527","volume":"900v5","title":"A dielectric droplet sensor should identify coalescence through a transient higher-order harmonic.","prediction":"A dielectric droplet sensor should identify coalescence through a transient higher-order harmonic.","test":"Image known mergers.","contrary":"Harmonics lack event specificity.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0527","prediction":"A dielectric droplet sensor should identify coalescence through a transient higher-order harmonic.","feasible_test":"Image known mergers.","contrary_outcome":"Harmonics lack event specificity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0528","id":"S5-0528","volume":"900v5","title":"A capillary gauge should measure shear direction through unequal depinning times of opposed interfaces.","prediction":"A capillary gauge should measure shear direction through unequal depinning times of opposed interfaces.","test":"Apply reversed shear.","contrary":"Depinning order is direction-independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0528","prediction":"A capillary gauge should measure shear direction through unequal depinning times of opposed interfaces.","feasible_test":"Apply reversed shear.","contrary_outcome":"Depinning order is direction-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0529","id":"S5-0529","volume":"900v5","title":"A resonator should detect reversible molecular crosslinking through temperature-dependent frequency-noise asymmetry.","prediction":"A resonator should detect reversible molecular crosslinking through temperature-dependent frequency-noise asymmetry.","test":"Measure bond exchange and noise.","contrary":"Asymmetry follows instrumental drift only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0529","prediction":"A resonator should detect reversible molecular crosslinking through temperature-dependent frequency-noise asymmetry.","feasible_test":"Measure bond exchange and noise.","contrary_outcome":"Asymmetry follows instrumental drift only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0530","id":"S5-0530","volume":"900v5","title":"An optical film should reveal a moving hydration boundary through changes in scattered-light chirality.","prediction":"An optical film should reveal a moving hydration boundary through changes in scattered-light chirality.","test":"Map water and polarization.","contrary":"Chirality carries no boundary information.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0530","prediction":"An optical film should reveal a moving hydration boundary through changes in scattered-light chirality.","feasible_test":"Map water and polarization.","contrary_outcome":"Chirality carries no boundary information.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0531","id":"S5-0531","volume":"900v5","title":"A porous thermal sensor should distinguish water from oil contamination through differential recovery after a heat pulse.","prediction":"A porous thermal sensor should distinguish water from oil contamination through differential recovery after a heat pulse.","test":"Test calibrated liquids.","contrary":"Recovery curves overlap after viscosity matching.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0531","prediction":"A porous thermal sensor should distinguish water from oil contamination through differential recovery after a heat pulse.","feasible_test":"Test calibrated liquids.","contrary_outcome":"Recovery curves overlap after viscosity matching.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0532","id":"S5-0532","volume":"900v5","title":"A suspended waveguide should detect a single internal crack through mode-coupling phase rather than total attenuation.","prediction":"A suspended waveguide should detect a single internal crack through mode-coupling phase rather than total attenuation.","test":"Compare imaged cracks.","contrary":"Phase adds no sensitivity.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0532","prediction":"A suspended waveguide should detect a single internal crack through mode-coupling phase rather than total attenuation.","feasible_test":"Compare imaged cracks.","contrary_outcome":"Phase adds no sensitivity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0533","id":"S5-0533","volume":"900v5","title":"A colorimetric gel should record exposure frequency through competition between fast protonation and slow structural recovery.","prediction":"A colorimetric gel should record exposure frequency through competition between fast protonation and slow structural recovery.","test":"Apply equal-dose pulse trains.","contrary":"Final color depends only on dose.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0533","prediction":"A colorimetric gel should record exposure frequency through competition between fast protonation and slow structural recovery.","feasible_test":"Apply equal-dose pulse trains.","contrary_outcome":"Final color depends only on dose.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0534","id":"S5-0534","volume":"900v5","title":"An acoustic pressure sensor should reject temperature drift using a mode that samples a sealed reference cavity.","prediction":"An acoustic pressure sensor should reject temperature drift using a mode that samples a sealed reference cavity.","test":"Test independent temperature and pressure.","contrary":"Reference correction does not reduce error.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0534","prediction":"An acoustic pressure sensor should reject temperature drift using a mode that samples a sealed reference cavity.","feasible_test":"Test independent temperature and pressure.","contrary_outcome":"Reference correction does not reduce error.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0535","id":"S5-0535","volume":"900v5","title":"A soft magnetic probe should locate hidden slip planes through spatial changes in magnetic noise under small loads.","prediction":"A soft magnetic probe should locate hidden slip planes through spatial changes in magnetic noise under small loads.","test":"Compare destructive sections.","contrary":"Noise cannot localize planes.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0535","prediction":"A soft magnetic probe should locate hidden slip planes through spatial changes in magnetic noise under small loads.","feasible_test":"Compare destructive sections.","contrary_outcome":"Noise cannot localize planes.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0536","id":"S5-0536","volume":"900v5","title":"A thermal-emission coating should report surface water continuity through a change in polarization ratio.","prediction":"A thermal-emission coating should report surface water continuity through a change in polarization ratio.","test":"Image water topology.","contrary":"Ratio follows water mass alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0536","prediction":"A thermal-emission coating should report surface water continuity through a change in polarization ratio.","feasible_test":"Image water topology.","contrary_outcome":"Ratio follows water mass alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0537","id":"S5-0537","volume":"900v5","title":"A piezoelectric mat should distinguish abrasion from flexing through different burst-duration distributions.","prediction":"A piezoelectric mat should distinguish abrasion from flexing through different burst-duration distributions.","test":"Apply blinded mechanical events.","contrary":"Distributions remain indistinguishable.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0537","prediction":"A piezoelectric mat should distinguish abrasion from flexing through different burst-duration distributions.","feasible_test":"Apply blinded mechanical events.","contrary_outcome":"Distributions remain indistinguishable.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0538","id":"S5-0538","volume":"900v5","title":"A fluorescent pore sensor should identify clogging material by its effect on molecular rotation near the wall.","prediction":"A fluorescent pore sensor should identify clogging material by its effect on molecular rotation near the wall.","test":"Test chemically distinct deposits.","contrary":"Responses follow blockage area only.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0538","prediction":"A fluorescent pore sensor should identify clogging material by its effect on molecular rotation near the wall.","feasible_test":"Test chemically distinct deposits.","contrary_outcome":"Responses follow blockage area only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0539","id":"S5-0539","volume":"900v5","title":"A capillary balance should separate humidity drift from deposited mass by reversing its meniscus orientation.","prediction":"A capillary balance should separate humidity drift from deposited mass by reversing its meniscus orientation.","test":"Calibrate both inputs.","contrary":"Reversal leaves both signals degenerate.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0539","prediction":"A capillary balance should separate humidity drift from deposited mass by reversing its meniscus orientation.","feasible_test":"Calibrate both inputs.","contrary_outcome":"Reversal leaves both signals degenerate.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0540","id":"S5-0540","volume":"900v5","title":"A transparent sensor should detect fatigue through irreversible rotation of nanoscale scattering domains before crack formation.","prediction":"A transparent sensor should detect fatigue through irreversible rotation of nanoscale scattering domains before crack formation.","test":"Measure domains and fatigue life.","contrary":"Rotation begins only after cracks.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0540","prediction":"A transparent sensor should detect fatigue through irreversible rotation of nanoscale scattering domains before crack formation.","feasible_test":"Measure domains and fatigue life.","contrary_outcome":"Rotation begins only after cracks.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0541","id":"S5-0541","volume":"900v5","title":"An elastic droplet skin should store compression as hidden folds that unfold during later evaporation.","prediction":"An elastic droplet skin should store compression as hidden folds that unfold during later evaporation.","test":"Measure fold area and surface shape.","contrary":"Folds collapse irreversibly or remain unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0541","prediction":"An elastic droplet skin should store compression as hidden folds that unfold during later evaporation.","feasible_test":"Measure fold area and surface shape.","contrary_outcome":"Folds collapse irreversibly or remain unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0542","id":"S5-0542","volume":"900v5","title":"A capillary bridge should draw a flexible wall toward its narrowest region and thereby stabilize itself.","prediction":"A capillary bridge should draw a flexible wall toward its narrowest region and thereby stabilize itself.","test":"Measure wall displacement and bridge lifetime.","contrary":"Wall motion accelerates rupture.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0542","prediction":"A capillary bridge should draw a flexible wall toward its narrowest region and thereby stabilize itself.","feasible_test":"Measure wall displacement and bridge lifetime.","contrary_outcome":"Wall motion accelerates rupture.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0543","id":"S5-0543","volume":"900v5","title":"A liquid thread should form a transient hollow neck when an elastic interface relaxes slower than its interior.","prediction":"A liquid thread should form a transient hollow neck when an elastic interface relaxes slower than its interior.","test":"Image three-dimensional neck topology.","contrary":"Neck remains simply connected.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0543","prediction":"A liquid thread should form a transient hollow neck when an elastic interface relaxes slower than its interior.","feasible_test":"Image three-dimensional neck topology.","contrary_outcome":"Neck remains simply connected.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0544","id":"S5-0544","volume":"900v5","title":"A bubble should migrate toward a softer wall region during pressure oscillation because deformation creates asymmetric drag.","prediction":"A bubble should migrate toward a softer wall region during pressure oscillation because deformation creates asymmetric drag.","test":"Map wall stiffness and motion.","contrary":"Migration follows pressure gradients alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0544","prediction":"A bubble should migrate toward a softer wall region during pressure oscillation because deformation creates asymmetric drag.","feasible_test":"Map wall stiffness and motion.","contrary_outcome":"Migration follows pressure gradients alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0545","id":"S5-0545","volume":"900v5","title":"A granular slurry should expel clear solvent in a pulse when a local shear jam spans its channel.","prediction":"A granular slurry should expel clear solvent in a pulse when a local shear jam spans its channel.","test":"Measure jamming and solvent flux.","contrary":"Expulsion occurs without spanning contacts.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0545","prediction":"A granular slurry should expel clear solvent in a pulse when a local shear jam spans its channel.","feasible_test":"Measure jamming and solvent flux.","contrary_outcome":"Expulsion occurs without spanning contacts.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0546","id":"S5-0546","volume":"900v5","title":"A droplet should retain an internal vortex after translation stops when its interface carries a rotating elastic patch.","prediction":"A droplet should retain an internal vortex after translation stops when its interface carries a rotating elastic patch.","test":"Measure patch and velocity.","contrary":"Flow decays at the unmodified viscous rate.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0546","prediction":"A droplet should retain an internal vortex after translation stops when its interface carries a rotating elastic patch.","feasible_test":"Measure patch and velocity.","contrary_outcome":"Flow decays at the unmodified viscous rate.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0547","id":"S5-0547","volume":"900v5","title":"A liquid bridge should select its rupture side according to previous contact-line motion.","prediction":"A liquid bridge should select its rupture side according to previous contact-line motion.","test":"Reverse loading histories and image rupture.","contrary":"Rupture side is history-independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0547","prediction":"A liquid bridge should select its rupture side according to previous contact-line motion.","feasible_test":"Reverse loading histories and image rupture.","contrary_outcome":"Rupture side is history-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0548","id":"S5-0548","volume":"900v5","title":"A porous film should produce a sequence of equal liquid pulses when its cavities drain by snap-through.","prediction":"A porous film should produce a sequence of equal liquid pulses when its cavities drain by snap-through.","test":"Measure cavity states and pulse volumes.","contrary":"Pulse volumes are uncontrolled.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0548","prediction":"A porous film should produce a sequence of equal liquid pulses when its cavities drain by snap-through.","feasible_test":"Measure cavity states and pulse volumes.","contrary_outcome":"Pulse volumes are uncontrolled.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0549","id":"S5-0549","volume":"900v5","title":"A deformable capsule should pass a constriction more readily after a short precompression aligns its internal filaments.","prediction":"A deformable capsule should pass a constriction more readily after a short precompression aligns its internal filaments.","test":"Image filaments and passage pressure.","contrary":"Precompression effect persists without alignment equally.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0549","prediction":"A deformable capsule should pass a constriction more readily after a short precompression aligns its internal filaments.","feasible_test":"Image filaments and passage pressure.","contrary_outcome":"Precompression effect persists without alignment equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0550","id":"S5-0550","volume":"900v5","title":"A foam should redirect a pressure pulse along wet borders when dry cell faces become mechanically isolated.","prediction":"A foam should redirect a pressure pulse along wet borders when dry cell faces become mechanically isolated.","test":"Measure pressure and liquid topology.","contrary":"Pulse paths follow geometry alone.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0550","prediction":"A foam should redirect a pressure pulse along wet borders when dry cell faces become mechanically isolated.","feasible_test":"Measure pressure and liquid topology.","contrary_outcome":"Pulse paths follow geometry alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0551","id":"S5-0551","volume":"900v5","title":"A droplet should roll rather than slide after its contact line deposits a lubricating molecular trail.","prediction":"A droplet should roll rather than slide after its contact line deposits a lubricating molecular trail.","test":"Measure trail and internal rotation.","contrary":"Motion mode ignores trail formation.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0551","prediction":"A droplet should roll rather than slide after its contact line deposits a lubricating molecular trail.","feasible_test":"Measure trail and internal rotation.","contrary_outcome":"Motion mode ignores trail formation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0552","id":"S5-0552","volume":"900v5","title":"A thin liquid film should thicken locally when substrate contraction draws fluid toward a moving fold.","prediction":"A thin liquid film should thicken locally when substrate contraction draws fluid toward a moving fold.","test":"Map fold and thickness.","contrary":"Thickening follows evaporation heterogeneity only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0552","prediction":"A thin liquid film should thicken locally when substrate contraction draws fluid toward a moving fold.","feasible_test":"Map fold and thickness.","contrary_outcome":"Thickening follows evaporation heterogeneity only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0553","id":"S5-0553","volume":"900v5","title":"A capillary interface should sort particles by rotational drag during repeated depinning.","prediction":"A capillary interface should sort particles by rotational drag during repeated depinning.","test":"Measure rotation and final position.","contrary":"Sorting follows translational drag alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0553","prediction":"A capillary interface should sort particles by rotational drag during repeated depinning.","feasible_test":"Measure rotation and final position.","contrary_outcome":"Sorting follows translational drag alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0554","id":"S5-0554","volume":"900v5","title":"A liquid-filled shell should resist puncture through a pressure wave that loads distant supports.","prediction":"A liquid-filled shell should resist puncture through a pressure wave that loads distant supports.","test":"Measure pressure propagation and puncture force.","contrary":"Distant supports carry no transient load.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0554","prediction":"A liquid-filled shell should resist puncture through a pressure wave that loads distant supports.","feasible_test":"Measure pressure propagation and puncture force.","contrary_outcome":"Distant supports carry no transient load.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0555","id":"S5-0555","volume":"900v5","title":"A wet fiber pair should twist together when evaporation moves their liquid bridge off-axis.","prediction":"A wet fiber pair should twist together when evaporation moves their liquid bridge off-axis.","test":"Track bridge and torque.","contrary":"Twisting is bridge-position independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0555","prediction":"A wet fiber pair should twist together when evaporation moves their liquid bridge off-axis.","feasible_test":"Track bridge and torque.","contrary_outcome":"Twisting is bridge-position independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0556","id":"S5-0556","volume":"900v5","title":"A gas pocket should remain trapped after pore expansion because a liquid collar follows the wall.","prediction":"A gas pocket should remain trapped after pore expansion because a liquid collar follows the wall.","test":"Image collar and gas escape.","contrary":"Expansion always vents gas immediately.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0556","prediction":"A gas pocket should remain trapped after pore expansion because a liquid collar follows the wall.","feasible_test":"Image collar and gas escape.","contrary_outcome":"Expansion always vents gas immediately.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0557","id":"S5-0557","volume":"900v5","title":"A confined suspension should recover flow faster after rest when weak aggregates break preferentially at the entrance.","prediction":"A confined suspension should recover flow faster after rest when weak aggregates break preferentially at the entrance.","test":"Map aggregates and restart pressure.","contrary":"Rest only increases resistance.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0557","prediction":"A confined suspension should recover flow faster after rest when weak aggregates break preferentially at the entrance.","feasible_test":"Map aggregates and restart pressure.","contrary_outcome":"Rest only increases resistance.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0558","id":"S5-0558","volume":"900v5","title":"A droplet bridge should draw solute toward its neck through curvature-driven solvent exchange.","prediction":"A droplet bridge should draw solute toward its neck through curvature-driven solvent exchange.","test":"Measure concentration and radius.","contrary":"Solute follows uniform evaporation only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0558","prediction":"A droplet bridge should draw solute toward its neck through curvature-driven solvent exchange.","feasible_test":"Measure concentration and radius.","contrary_outcome":"Solute follows uniform evaporation only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0559","id":"S5-0559","volume":"900v5","title":"A flexible channel should produce a delayed backflow after forward pressure ends because wall recoil overtakes plug motion.","prediction":"A flexible channel should produce a delayed backflow after forward pressure ends because wall recoil overtakes plug motion.","test":"Measure wall and velocity.","contrary":"Flow decays monotonically without reversal.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0559","prediction":"A flexible channel should produce a delayed backflow after forward pressure ends because wall recoil overtakes plug motion.","feasible_test":"Measure wall and velocity.","contrary_outcome":"Flow decays monotonically without reversal.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0560","id":"S5-0560","volume":"900v5","title":"A floating sheet should migrate away from a wetting patch through capillary stress transmitted across its edges.","prediction":"A floating sheet should migrate away from a wetting patch through capillary stress transmitted across its edges.","test":"Map menisci and force.","contrary":"Motion requires bulk surface flow.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0560","prediction":"A floating sheet should migrate away from a wetting patch through capillary stress transmitted across its edges.","feasible_test":"Map menisci and force.","contrary_outcome":"Motion requires bulk surface flow.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0561","id":"S5-0561","volume":"900v5","title":"A liquid lens should damp neighboring capillary waves by recruiting an interfacial viscosity gradient.","prediction":"A liquid lens should damp neighboring capillary waves by recruiting an interfacial viscosity gradient.","test":"Measure wave loss and surface rheology.","contrary":"Loss is unchanged with uniform viscosity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0561","prediction":"A liquid lens should damp neighboring capillary waves by recruiting an interfacial viscosity gradient.","feasible_test":"Measure wave loss and surface rheology.","contrary_outcome":"Loss is unchanged with uniform viscosity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0562","id":"S5-0562","volume":"900v5","title":"A capillary network should preserve a flow split after pressure equalization through unequal meniscus pinning.","prediction":"A capillary network should preserve a flow split after pressure equalization through unequal meniscus pinning.","test":"Track branch flux and interfaces.","contrary":"Split resets immediately.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0562","prediction":"A capillary network should preserve a flow split after pressure equalization through unequal meniscus pinning.","feasible_test":"Track branch flux and interfaces.","contrary_outcome":"Split resets immediately.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0563","id":"S5-0563","volume":"900v5","title":"A bubble should flatten asymmetrically near a permeable wall because local drainage relieves pressure on one side.","prediction":"A bubble should flatten asymmetrically near a permeable wall because local drainage relieves pressure on one side.","test":"Measure shape and wall flux.","contrary":"Shape follows elastic compliance alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0563","prediction":"A bubble should flatten asymmetrically near a permeable wall because local drainage relieves pressure on one side.","feasible_test":"Measure shape and wall flux.","contrary_outcome":"Shape follows elastic compliance alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0564","id":"S5-0564","volume":"900v5","title":"A droplet should cross a narrow gap by forming a temporary vapor bridge that prewets the far surface.","prediction":"A droplet should cross a narrow gap by forming a temporary vapor bridge that prewets the far surface.","test":"Image condensation and transfer.","contrary":"Transfer requires direct liquid contact first.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0564","prediction":"A droplet should cross a narrow gap by forming a temporary vapor bridge that prewets the far surface.","feasible_test":"Image condensation and transfer.","contrary_outcome":"Transfer requires direct liquid contact first.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0565","id":"S5-0565","volume":"900v5","title":"A soft particle should rotate in an extensional flow when internal solvent migration breaks shape symmetry.","prediction":"A soft particle should rotate in an extensional flow when internal solvent migration breaks shape symmetry.","test":"Measure water and orientation.","contrary":"Rotation follows initial asymmetry alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0565","prediction":"A soft particle should rotate in an extensional flow when internal solvent migration breaks shape symmetry.","feasible_test":"Measure water and orientation.","contrary_outcome":"Rotation follows initial asymmetry alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0566","id":"S5-0566","volume":"900v5","title":"A wet granular cluster should expand transiently after decompression because bridges pull rotating grains into a more open packing.","prediction":"A wet granular cluster should expand transiently after decompression because bridges pull rotating grains into a more open packing.","test":"Measure contacts and volume.","contrary":"Packing contracts monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0566","prediction":"A wet granular cluster should expand transiently after decompression because bridges pull rotating grains into a more open packing.","feasible_test":"Measure contacts and volume.","contrary_outcome":"Packing contracts monotonically.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0567","id":"S5-0567","volume":"900v5","title":"A moving air-liquid interface should align flexible fibers through sequential end capture.","prediction":"A moving air-liquid interface should align flexible fibers through sequential end capture.","test":"Track endpoints and orientation.","contrary":"Both ends respond simultaneously without alignment bias.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0567","prediction":"A moving air-liquid interface should align flexible fibers through sequential end capture.","feasible_test":"Track endpoints and orientation.","contrary_outcome":"Both ends respond simultaneously without alignment bias.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0568","id":"S5-0568","volume":"900v5","title":"A draining liquid sheet should form stationary channels where interfacial particles jam its ridges.","prediction":"A draining liquid sheet should form stationary channels where interfacial particles jam its ridges.","test":"Map particles and thickness.","contrary":"Channels persist equally without particles.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0568","prediction":"A draining liquid sheet should form stationary channels where interfacial particles jam its ridges.","feasible_test":"Map particles and thickness.","contrary_outcome":"Channels persist equally without particles.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0569","id":"S5-0569","volume":"900v5","title":"A capillary plug should split into unequal parts when an internal gel stores an off-center stress.","prediction":"A capillary plug should split into unequal parts when an internal gel stores an off-center stress.","test":"Measure gel strain and daughter volumes.","contrary":"Division follows geometry alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0569","prediction":"A capillary plug should split into unequal parts when an internal gel stores an off-center stress.","feasible_test":"Measure gel strain and daughter volumes.","contrary_outcome":"Division follows geometry alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0570","id":"S5-0570","volume":"900v5","title":"A droplet should maintain a noncircular footprint on a chemically uniform surface through residual substrate shear.","prediction":"A droplet should maintain a noncircular footprint on a chemically uniform surface through residual substrate shear.","test":"Map strain and contact line.","contrary":"Footprint circularizes after force removal.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0570","prediction":"A droplet should maintain a noncircular footprint on a chemically uniform surface through residual substrate shear.","feasible_test":"Map strain and contact line.","contrary_outcome":"Footprint circularizes after force removal.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0571","id":"S5-0571","volume":"900v5","title":"A thin shell should acquire directional stiffness after one asymmetric buckling cycle.","prediction":"A thin shell should acquire directional stiffness after one asymmetric buckling cycle.","test":"Measure ridges and stiffness tensor.","contrary":"Stiffness returns to isotropy.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0571","prediction":"A thin shell should acquire directional stiffness after one asymmetric buckling cycle.","feasible_test":"Measure ridges and stiffness tensor.","contrary_outcome":"Stiffness returns to isotropy.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0572","id":"S5-0572","volume":"900v5","title":"A fiber network should channel a crack through regions of lower rotational constraint rather than lower density.","prediction":"A fiber network should channel a crack through regions of lower rotational constraint rather than lower density.","test":"Map constraints and fracture.","contrary":"Density predicts crack path completely.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0572","prediction":"A fiber network should channel a crack through regions of lower rotational constraint rather than lower density.","feasible_test":"Map constraints and fracture.","contrary_outcome":"Density predicts crack path completely.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0573","id":"S5-0573","volume":"900v5","title":"A soft contact should produce a torque pulse when its adhesive perimeter depins at unequal times.","prediction":"A soft contact should produce a torque pulse when its adhesive perimeter depins at unequal times.","test":"Image perimeter and torque.","contrary":"Torque is absent after alignment correction.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0573","prediction":"A soft contact should produce a torque pulse when its adhesive perimeter depins at unequal times.","feasible_test":"Image perimeter and torque.","contrary_outcome":"Torque is absent after alignment correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0574","id":"S5-0574","volume":"900v5","title":"A granular spring should display an extended plateau when particle cavities collapse in a programmed spatial sequence.","prediction":"A granular spring should display an extended plateau when particle cavities collapse in a programmed spatial sequence.","test":"Measure cavities and force.","contrary":"Plateau ignores collapse order.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0574","prediction":"A granular spring should display an extended plateau when particle cavities collapse in a programmed spatial sequence.","feasible_test":"Measure cavities and force.","contrary_outcome":"Plateau ignores collapse order.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0575","id":"S5-0575","volume":"900v5","title":"An inflated tube should retain a bend after pressure removal because opposing inner surfaces temporarily adhere.","prediction":"An inflated tube should retain a bend after pressure removal because opposing inner surfaces temporarily adhere.","test":"Image contact and recovery.","contrary":"Bend persists equally without adhesion.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0575","prediction":"An inflated tube should retain a bend after pressure removal because opposing inner surfaces temporarily adhere.","feasible_test":"Image contact and recovery.","contrary_outcome":"Bend persists equally without adhesion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0576","id":"S5-0576","volume":"900v5","title":"A woven laminate should resist tearing through reversible yarn loops that tighten ahead of the tip.","prediction":"A woven laminate should resist tearing through reversible yarn loops that tighten ahead of the tip.","test":"Measure loops and crack speed.","contrary":"Tearing is unchanged when loops are fixed.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0576","prediction":"A woven laminate should resist tearing through reversible yarn loops that tighten ahead of the tip.","feasible_test":"Measure loops and crack speed.","contrary_outcome":"Tearing is unchanged when loops are fixed.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0577","id":"S5-0577","volume":"900v5","title":"A compliant lattice should redirect a wave by temporarily closing selected gaps under the wave's own stress.","prediction":"A compliant lattice should redirect a wave by temporarily closing selected gaps under the wave's own stress.","test":"Measure gaps and energy.","contrary":"Routing is amplitude-independent.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0577","prediction":"A compliant lattice should redirect a wave by temporarily closing selected gaps under the wave's own stress.","feasible_test":"Measure gaps and energy.","contrary_outcome":"Routing is amplitude-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0578","id":"S5-0578","volume":"900v5","title":"A polymer shell should heal an indentation through solvent uptake concentrated at its strained rim.","prediction":"A polymer shell should heal an indentation through solvent uptake concentrated at its strained rim.","test":"Map solvent and shape.","contrary":"Recovery is spatially uniform.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0578","prediction":"A polymer shell should heal an indentation through solvent uptake concentrated at its strained rim.","feasible_test":"Map solvent and shape.","contrary_outcome":"Recovery is spatially uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0579","id":"S5-0579","volume":"900v5","title":"A rough contact should show a stiffness overshoot after unloading because high-force asperities relax last.","prediction":"A rough contact should show a stiffness overshoot after unloading because high-force asperities relax last.","test":"Measure contacts and stiffness.","contrary":"Stiffness returns monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0579","prediction":"A rough contact should show a stiffness overshoot after unloading because high-force asperities relax last.","feasible_test":"Measure contacts and stiffness.","contrary_outcome":"Stiffness returns monotonically.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0580","id":"S5-0580","volume":"900v5","title":"A twisted elastic loop should release its stored energy through a moving self-contact point.","prediction":"A twisted elastic loop should release its stored energy through a moving self-contact point.","test":"Track contact and angular velocity.","contrary":"Release occurs without contact migration.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0580","prediction":"A twisted elastic loop should release its stored energy through a moving self-contact point.","feasible_test":"Track contact and angular velocity.","contrary_outcome":"Release occurs without contact migration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0581","id":"S5-0581","volume":"900v5","title":"A porous membrane should survive repeated puncture better when its pores rotate to distribute strain.","prediction":"A porous membrane should survive repeated puncture better when its pores rotate to distribute strain.","test":"Image rotation and damage.","contrary":"Survival is unchanged with pore rotation blocked.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0581","prediction":"A porous membrane should survive repeated puncture better when its pores rotate to distribute strain.","feasible_test":"Image rotation and damage.","contrary_outcome":"Survival is unchanged with pore rotation blocked.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0582","id":"S5-0582","volume":"900v5","title":"A fiber mat should stiffen under shear when neighboring loops hook reversibly.","prediction":"A fiber mat should stiffen under shear when neighboring loops hook reversibly.","test":"Measure contacts and modulus.","contrary":"Stiffening occurs without hooking.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0582","prediction":"A fiber mat should stiffen under shear when neighboring loops hook reversibly.","feasible_test":"Measure contacts and modulus.","contrary_outcome":"Stiffening occurs without hooking.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0583","id":"S5-0583","volume":"900v5","title":"A layered beam should separate bending direction from loading rate through different interfacial slip patterns.","prediction":"A layered beam should separate bending direction from loading rate through different interfacial slip patterns.","test":"Map slip under blinded loads.","contrary":"Patterns remain degenerate.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0583","prediction":"A layered beam should separate bending direction from loading rate through different interfacial slip patterns.","feasible_test":"Map slip under blinded loads.","contrary_outcome":"Patterns remain degenerate.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0584","id":"S5-0584","volume":"900v5","title":"A soft shell should absorb shock by transferring gas from the impact region into flexible peripheral pockets.","prediction":"A soft shell should absorb shock by transferring gas from the impact region into flexible peripheral pockets.","test":"Measure pressure and rebound.","contrary":"Damping is unchanged with pockets disconnected.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0584","prediction":"A soft shell should absorb shock by transferring gas from the impact region into flexible peripheral pockets.","feasible_test":"Measure pressure and rebound.","contrary_outcome":"Damping is unchanged with pockets disconnected.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0585","id":"S5-0585","volume":"900v5","title":"A compressed film should emit a sequence of acoustic pulses as wrinkle domains merge.","prediction":"A compressed film should emit a sequence of acoustic pulses as wrinkle domains merge.","test":"Image domains and sound.","contrary":"Pulses lack merger timing.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0585","prediction":"A compressed film should emit a sequence of acoustic pulses as wrinkle domains merge.","feasible_test":"Image domains and sound.","contrary_outcome":"Pulses lack merger timing.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0586","id":"S5-0586","volume":"900v5","title":"An elastic lattice should retain a localized defect after global inversion and use it to select the next inversion path.","prediction":"An elastic lattice should retain a localized defect after global inversion and use it to select the next inversion path.","test":"Track defect and switching.","contrary":"Paths are defect-independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0586","prediction":"An elastic lattice should retain a localized defect after global inversion and use it to select the next inversion path.","feasible_test":"Track defect and switching.","contrary_outcome":"Paths are defect-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0587","id":"S5-0587","volume":"900v5","title":"A granular coating should resist erosion through reversible grain rotation that buries exposed edges.","prediction":"A granular coating should resist erosion through reversible grain rotation that buries exposed edges.","test":"Measure rotation and mass loss.","contrary":"Erosion resistance is rotation-independent.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0587","prediction":"A granular coating should resist erosion through reversible grain rotation that buries exposed edges.","feasible_test":"Measure rotation and mass loss.","contrary_outcome":"Erosion resistance is rotation-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0588","id":"S5-0588","volume":"900v5","title":"A stretched membrane should suppress nearby crack growth when its curvature relaxes local tension.","prediction":"A stretched membrane should suppress nearby crack growth when its curvature relaxes local tension.","test":"Map curvature and stress.","contrary":"Cracks ignore curvature changes.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0588","prediction":"A stretched membrane should suppress nearby crack growth when its curvature relaxes local tension.","feasible_test":"Map curvature and stress.","contrary_outcome":"Cracks ignore curvature changes.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0589","id":"S5-0589","volume":"900v5","title":"A soft hinge should recover a preferred angle after damage through migration of a mobile reinforcing phase.","prediction":"A soft hinge should recover a preferred angle after damage through migration of a mobile reinforcing phase.","test":"Image reinforcement and torque.","contrary":"Recovery occurs without phase migration.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0589","prediction":"A soft hinge should recover a preferred angle after damage through migration of a mobile reinforcing phase.","feasible_test":"Image reinforcement and torque.","contrary_outcome":"Recovery occurs without phase migration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0590","id":"S5-0590","volume":"900v5","title":"A hollow fiber should dissipate bending energy through internal gas compression only above a deformation threshold.","prediction":"A hollow fiber should dissipate bending energy through internal gas compression only above a deformation threshold.","test":"Measure pressure and loss.","contrary":"Loss varies smoothly without threshold.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0590","prediction":"A hollow fiber should dissipate bending energy through internal gas compression only above a deformation threshold.","feasible_test":"Measure pressure and loss.","contrary_outcome":"Loss varies smoothly without threshold.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0591","id":"S5-0591","volume":"900v5","title":"A mechanical stopper should release after a fixed number of small load cycles through progressive interface creep.","prediction":"A mechanical stopper should release after a fixed number of small load cycles through progressive interface creep.","test":"Measure creep and cycle count.","contrary":"Release depends only on elapsed time.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0591","prediction":"A mechanical stopper should release after a fixed number of small load cycles through progressive interface creep.","feasible_test":"Measure creep and cycle count.","contrary_outcome":"Release depends only on elapsed time.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0592","id":"S5-0592","volume":"900v5","title":"A flexible plate should retain an impact location as a local change in its nonlinear resonance.","prediction":"A flexible plate should retain an impact location as a local change in its nonlinear resonance.","test":"Measure spatial modes after known impacts.","contrary":"Nonlinearity cannot localize impacts.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0592","prediction":"A flexible plate should retain an impact location as a local change in its nonlinear resonance.","feasible_test":"Measure spatial modes after known impacts.","contrary_outcome":"Nonlinearity cannot localize impacts.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0593","id":"S5-0593","volume":"900v5","title":"A granular clutch should engage more reproducibly after a short reverse motion removes weak contacts.","prediction":"A granular clutch should engage more reproducibly after a short reverse motion removes weak contacts.","test":"Map contacts and engagement threshold.","contrary":"Variability is unchanged.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0593","prediction":"A granular clutch should engage more reproducibly after a short reverse motion removes weak contacts.","feasible_test":"Map contacts and engagement threshold.","contrary_outcome":"Variability is unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0594","id":"S5-0594","volume":"900v5","title":"A porous soft solid should contract laterally under tension when internal cavities rotate before changing volume.","prediction":"A porous soft solid should contract laterally under tension when internal cavities rotate before changing volume.","test":"Image cavities and strain.","contrary":"Contraction follows volume loss alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0594","prediction":"A porous soft solid should contract laterally under tension when internal cavities rotate before changing volume.","feasible_test":"Image cavities and strain.","contrary_outcome":"Contraction follows volume loss alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0595","id":"S5-0595","volume":"900v5","title":"A bent laminate should delaminate less when a lubricating interlayer redistributes stress over a longer distance.","prediction":"A bent laminate should delaminate less when a lubricating interlayer redistributes stress over a longer distance.","test":"Map shear and fracture.","contrary":"Lubrication only accelerates delamination.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0595","prediction":"A bent laminate should delaminate less when a lubricating interlayer redistributes stress over a longer distance.","feasible_test":"Map shear and fracture.","contrary_outcome":"Lubrication only accelerates delamination.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0596","id":"S5-0596","volume":"900v5","title":"A mechanical chain should propagate a state change without propagating a large displacement pulse.","prediction":"A mechanical chain should propagate a state change without propagating a large displacement pulse.","test":"Measure states and motion.","contrary":"Switching requires a comparable displacement pulse.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0596","prediction":"A mechanical chain should propagate a state change without propagating a large displacement pulse.","feasible_test":"Measure states and motion.","contrary_outcome":"Switching requires a comparable displacement pulse.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0597","id":"S5-0597","volume":"900v5","title":"A soft ring should turn an axial impulse into torsional motion when one section buckles first.","prediction":"A soft ring should turn an axial impulse into torsional motion when one section buckles first.","test":"Image buckling and torque.","contrary":"Torsion is absent after geometric correction.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0597","prediction":"A soft ring should turn an axial impulse into torsional motion when one section buckles first.","feasible_test":"Image buckling and torque.","contrary_outcome":"Torsion is absent after geometric correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0598","id":"S5-0598","volume":"900v5","title":"A fibrous gel should resist fatigue through slow exchange of load-bearing contacts during resting intervals.","prediction":"A fibrous gel should resist fatigue through slow exchange of load-bearing contacts during resting intervals.","test":"Map contacts and life.","contrary":"Rest benefits persist with exchange arrested equally.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0598","prediction":"A fibrous gel should resist fatigue through slow exchange of load-bearing contacts during resting intervals.","feasible_test":"Map contacts and life.","contrary_outcome":"Rest benefits persist with exchange arrested equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0599","id":"S5-0599","volume":"900v5","title":"An elastic microcapsule should recover its volume faster after a twist opens temporary drainage channels.","prediction":"An elastic microcapsule should recover its volume faster after a twist opens temporary drainage channels.","test":"Measure channels and recovery.","contrary":"Twisting only delays recovery.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0599","prediction":"An elastic microcapsule should recover its volume faster after a twist opens temporary drainage channels.","feasible_test":"Measure channels and recovery.","contrary_outcome":"Twisting only delays recovery.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0600","id":"S5-0600","volume":"900v5","title":"A rough adhesive should peel more quietly when a solvent pulse synchronizes microscopic contact release.","prediction":"A rough adhesive should peel more quietly when a solvent pulse synchronizes microscopic contact release.","test":"Measure contact timing and sound.","contrary":"Noise falls without synchronization.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0600","prediction":"A rough adhesive should peel more quietly when a solvent pulse synchronizes microscopic contact release.","feasible_test":"Measure contact timing and sound.","contrary_outcome":"Noise falls without synchronization.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0601","id":"S5-0601","volume":"900v5","title":"An optical cavity should reveal trapped stress through unequal resonance recovery after opposite thermal cycles.","prediction":"An optical cavity should reveal trapped stress through unequal resonance recovery after opposite thermal cycles.","test":"Measure stress and spectra.","contrary":"Recovery is cycle-direction independent.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0601","prediction":"An optical cavity should reveal trapped stress through unequal resonance recovery after opposite thermal cycles.","feasible_test":"Measure stress and spectra.","contrary_outcome":"Recovery is cycle-direction independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0602","id":"S5-0602","volume":"900v5","title":"A transparent foam should produce a persistent optical axis after small bubbles collapse selectively.","prediction":"A transparent foam should produce a persistent optical axis after small bubbles collapse selectively.","test":"Map bubble sizes and polarization.","contrary":"Polarization remains isotropic.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0602","prediction":"A transparent foam should produce a persistent optical axis after small bubbles collapse selectively.","feasible_test":"Map bubble sizes and polarization.","contrary_outcome":"Polarization remains isotropic.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0603","id":"S5-0603","volume":"900v5","title":"A reflective membrane should show a brief spectral narrowing when wrinkles align during mechanical recoil.","prediction":"A reflective membrane should show a brief spectral narrowing when wrinkles align during mechanical recoil.","test":"Measure topography and spectrum.","contrary":"Narrowing follows rigid motion alone.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0603","prediction":"A reflective membrane should show a brief spectral narrowing when wrinkles align during mechanical recoil.","feasible_test":"Measure topography and spectrum.","contrary_outcome":"Narrowing follows rigid motion alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0604","id":"S5-0604","volume":"900v5","title":"A photonic gel should display a moving dark band when solute redistribution temporarily destroys local order.","prediction":"A photonic gel should display a moving dark band when solute redistribution temporarily destroys local order.","test":"Map solute and diffraction.","contrary":"Darkening follows water content only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0604","prediction":"A photonic gel should display a moving dark band when solute redistribution temporarily destroys local order.","feasible_test":"Map solute and diffraction.","contrary_outcome":"Darkening follows water content only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0605","id":"S5-0605","volume":"900v5","title":"A waveguide should detect capillary bridge formation through increased coupling between adjacent fibers.","prediction":"A waveguide should detect capillary bridge formation through increased coupling between adjacent fibers.","test":"Image bridges and optical transfer.","contrary":"Coupling changes require solid contact.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0605","prediction":"A waveguide should detect capillary bridge formation through increased coupling between adjacent fibers.","feasible_test":"Image bridges and optical transfer.","contrary_outcome":"Coupling changes require solid contact.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0606","id":"S5-0606","volume":"900v5","title":"A soft lens should preserve image position during vibration by allowing its support liquid to move out of phase.","prediction":"A soft lens should preserve image position during vibration by allowing its support liquid to move out of phase.","test":"Measure liquid and image motion.","contrary":"Stabilization disappears after mass matching.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0606","prediction":"A soft lens should preserve image position during vibration by allowing its support liquid to move out of phase.","feasible_test":"Measure liquid and image motion.","contrary_outcome":"Stabilization disappears after mass matching.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0607","id":"S5-0607","volume":"900v5","title":"A porous optical film should retain an angle-dependent signature of previous immersion through isolated liquid pockets.","prediction":"A porous optical film should retain an angle-dependent signature of previous immersion through isolated liquid pockets.","test":"Map pockets and spectra.","contrary":"Signature vanishes upon surface drying.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0607","prediction":"A porous optical film should retain an angle-dependent signature of previous immersion through isolated liquid pockets.","feasible_test":"Map pockets and spectra.","contrary_outcome":"Signature vanishes upon surface drying.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0608","id":"S5-0608","volume":"900v5","title":"A mechanically driven grating should suppress one diffraction order through asymmetric wrinkle relaxation.","prediction":"A mechanically driven grating should suppress one diffraction order through asymmetric wrinkle relaxation.","test":"Measure orders and wrinkle timing.","contrary":"Order ratios follow static geometry alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0608","prediction":"A mechanically driven grating should suppress one diffraction order through asymmetric wrinkle relaxation.","feasible_test":"Measure orders and wrinkle timing.","contrary_outcome":"Order ratios follow static geometry alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0609","id":"S5-0609","volume":"900v5","title":"A fluorescence map should reveal internal fluid circulation through rotational anisotropy without tracking particles.","prediction":"A fluorescence map should reveal internal fluid circulation through rotational anisotropy without tracking particles.","test":"Compare independent velocimetry.","contrary":"Anisotropy cannot recover circulation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0609","prediction":"A fluorescence map should reveal internal fluid circulation through rotational anisotropy without tracking particles.","feasible_test":"Compare independent velocimetry.","contrary_outcome":"Anisotropy cannot recover circulation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0610","id":"S5-0610","volume":"900v5","title":"A photothermal membrane should bend away from a heat source after internal vapor pressure redistributes.","prediction":"A photothermal membrane should bend away from a heat source after internal vapor pressure redistributes.","test":"Measure pressure and curvature.","contrary":"Bending follows direct thermal expansion alone.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0610","prediction":"A photothermal membrane should bend away from a heat source after internal vapor pressure redistributes.","feasible_test":"Measure pressure and curvature.","contrary_outcome":"Bending follows direct thermal expansion alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0611","id":"S5-0611","volume":"900v5","title":"A liquid-crystal surface should distinguish tensile from compressive loading through opposite defect drift directions.","prediction":"A liquid-crystal surface should distinguish tensile from compressive loading through opposite defect drift directions.","test":"Track defects under calibrated loads.","contrary":"Drift directions overlap.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0611","prediction":"A liquid-crystal surface should distinguish tensile from compressive loading through opposite defect drift directions.","feasible_test":"Track defects under calibrated loads.","contrary_outcome":"Drift directions overlap.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0612","id":"S5-0612","volume":"900v5","title":"An optical scatterer should retain the order of two strain pulses through noncommuting particle rearrangements.","prediction":"An optical scatterer should retain the order of two strain pulses through noncommuting particle rearrangements.","test":"Apply reversed pulse order.","contrary":"Final spectra are order-independent.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0612","prediction":"An optical scatterer should retain the order of two strain pulses through noncommuting particle rearrangements.","feasible_test":"Apply reversed pulse order.","contrary_outcome":"Final spectra are order-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0613","id":"S5-0613","volume":"900v5","title":"A porous mirror should reduce infrared absorption after condensation fills only its smallest cavities.","prediction":"A porous mirror should reduce infrared absorption after condensation fills only its smallest cavities.","test":"Map cavity water and absorption.","contrary":"Absorption follows total water monotonically.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0613","prediction":"A porous mirror should reduce infrared absorption after condensation fills only its smallest cavities.","feasible_test":"Map cavity water and absorption.","contrary_outcome":"Absorption follows total water monotonically.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0614","id":"S5-0614","volume":"900v5","title":"A transparent gel should reveal solvent-flow direction through a temporary refractive-index wake behind a moving inclusion.","prediction":"A transparent gel should reveal solvent-flow direction through a temporary refractive-index wake behind a moving inclusion.","test":"Measure index and flow.","contrary":"Wake follows inclusion shape without flow dependence.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0614","prediction":"A transparent gel should reveal solvent-flow direction through a temporary refractive-index wake behind a moving inclusion.","feasible_test":"Measure index and flow.","contrary_outcome":"Wake follows inclusion shape without flow dependence.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0615","id":"S5-0615","volume":"900v5","title":"A resonant coating should separate surface contamination from bulk swelling through unequal spatial localization of two optical modes.","prediction":"A resonant coating should separate surface contamination from bulk swelling through unequal spatial localization of two optical modes.","test":"Calibrate both states.","contrary":"Modes remain degenerate.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0615","prediction":"A resonant coating should separate surface contamination from bulk swelling through unequal spatial localization of two optical modes.","feasible_test":"Calibrate both states.","contrary_outcome":"Modes remain degenerate.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0616","id":"S5-0616","volume":"900v5","title":"A flexible polarizer should rotate its transmission axis after a local shear front passes.","prediction":"A flexible polarizer should rotate its transmission axis after a local shear front passes.","test":"Map orientation and front.","contrary":"Axis returns immediately behind the front.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0616","prediction":"A flexible polarizer should rotate its transmission axis after a local shear front passes.","feasible_test":"Map orientation and front.","contrary_outcome":"Axis returns immediately behind the front.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0617","id":"S5-0617","volume":"900v5","title":"A thin optical film should detect adhesive aging through changes in phase noise during subcritical shear.","prediction":"A thin optical film should detect adhesive aging through changes in phase noise during subcritical shear.","test":"Compare independent peel measurements.","contrary":"Noise cannot predict adhesion.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0617","prediction":"A thin optical film should detect adhesive aging through changes in phase noise during subcritical shear.","feasible_test":"Compare independent peel measurements.","contrary_outcome":"Noise cannot predict adhesion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0618","id":"S5-0618","volume":"900v5","title":"A fluorescent molecular layer should brighten when pressure releases a quenched interfacial stack.","prediction":"A fluorescent molecular layer should brighten when pressure releases a quenched interfacial stack.","test":"Measure stack spacing and emission.","contrary":"Brightening occurs without stack separation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0618","prediction":"A fluorescent molecular layer should brighten when pressure releases a quenched interfacial stack.","feasible_test":"Measure stack spacing and emission.","contrary_outcome":"Brightening occurs without stack separation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0619","id":"S5-0619","volume":"900v5","title":"A photonic foam should show a delayed color echo after an acoustic pulse redistributes liquid between cells.","prediction":"A photonic foam should show a delayed color echo after an acoustic pulse redistributes liquid between cells.","test":"Map liquid and spectra.","contrary":"Color follows instantaneous pressure only.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0619","prediction":"A photonic foam should show a delayed color echo after an acoustic pulse redistributes liquid between cells.","feasible_test":"Map liquid and spectra.","contrary_outcome":"Color follows instantaneous pressure only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0620","id":"S5-0620","volume":"900v5","title":"A soft optical switch should retain state through a pinned liquid rim rather than a permanently deformed solid.","prediction":"A soft optical switch should retain state through a pinned liquid rim rather than a permanently deformed solid.","test":"Measure liquid and solid geometry.","contrary":"State survives complete rim removal unchanged.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0620","prediction":"A soft optical switch should retain state through a pinned liquid rim rather than a permanently deformed solid.","feasible_test":"Measure liquid and solid geometry.","contrary_outcome":"State survives complete rim removal unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0621","id":"S5-0621","volume":"900v5","title":"A flexible thermal emitter should modulate its spectrum under torsion through self-occlusion between lamellae.","prediction":"A flexible thermal emitter should modulate its spectrum under torsion through self-occlusion between lamellae.","test":"Measure geometry and emission.","contrary":"Modulation is temperature-driven only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0621","prediction":"A flexible thermal emitter should modulate its spectrum under torsion through self-occlusion between lamellae.","feasible_test":"Measure geometry and emission.","contrary_outcome":"Modulation is temperature-driven only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0622","id":"S5-0622","volume":"900v5","title":"A waveguide bundle should distinguish neighboring cracks by the sign of mode-coupling phase.","prediction":"A waveguide bundle should distinguish neighboring cracks by the sign of mode-coupling phase.","test":"Apply known crack positions.","contrary":"Phase signs cannot identify location.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0622","prediction":"A waveguide bundle should distinguish neighboring cracks by the sign of mode-coupling phase.","feasible_test":"Apply known crack positions.","contrary_outcome":"Phase signs cannot identify location.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0623","id":"S5-0623","volume":"900v5","title":"A porous optical surface should reveal subvisible icing through an abrupt change in scattered-light dwell time.","prediction":"A porous optical surface should reveal subvisible icing through an abrupt change in scattered-light dwell time.","test":"Image ice and time-resolved scattering.","contrary":"Dwell time changes only after visible frost.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0623","prediction":"A porous optical surface should reveal subvisible icing through an abrupt change in scattered-light dwell time.","feasible_test":"Image ice and time-resolved scattering.","contrary_outcome":"Dwell time changes only after visible frost.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0624","id":"S5-0624","volume":"900v5","title":"An illuminated particle cluster should self-shade into a stable rotating configuration.","prediction":"An illuminated particle cluster should self-shade into a stable rotating configuration.","test":"Measure temperature and orientation.","contrary":"Rotation requires asymmetric external forcing.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0624","prediction":"An illuminated particle cluster should self-shade into a stable rotating configuration.","feasible_test":"Measure temperature and orientation.","contrary_outcome":"Rotation requires asymmetric external forcing.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0625","id":"S5-0625","volume":"900v5","title":"A liquid-filled microprism should record acceleration direction through a metastably pinned interface.","prediction":"A liquid-filled microprism should record acceleration direction through a metastably pinned interface.","test":"Read beam deflection after calibrated pulses.","contrary":"Interface resets before readout.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0625","prediction":"A liquid-filled microprism should record acceleration direction through a metastably pinned interface.","feasible_test":"Read beam deflection after calibrated pulses.","contrary_outcome":"Interface resets before readout.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0626","id":"S5-0626","volume":"900v5","title":"A thin reflective coating should display a spiral caustic when torsional strain localizes around a buried defect.","prediction":"A thin reflective coating should display a spiral caustic when torsional strain localizes around a buried defect.","test":"Map strain and caustics.","contrary":"Caustics cannot distinguish defect-free controls.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0626","prediction":"A thin reflective coating should display a spiral caustic when torsional strain localizes around a buried defect.","feasible_test":"Map strain and caustics.","contrary_outcome":"Caustics cannot distinguish defect-free controls.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0627","id":"S5-0627","volume":"900v5","title":"A photoresponsive fiber should produce a traveling bend when self-shadowing delays activation of downstream segments.","prediction":"A photoresponsive fiber should produce a traveling bend when self-shadowing delays activation of downstream segments.","test":"Measure illumination and curvature.","contrary":"Bending is simultaneous along the fiber.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0627","prediction":"A photoresponsive fiber should produce a traveling bend when self-shadowing delays activation of downstream segments.","feasible_test":"Measure illumination and curvature.","contrary_outcome":"Bending is simultaneous along the fiber.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0628","id":"S5-0628","volume":"900v5","title":"A soft optical sensor should distinguish slow creep from sudden damage through the recovery trajectory of its diffraction peaks.","prediction":"A soft optical sensor should distinguish slow creep from sudden damage through the recovery trajectory of its diffraction peaks.","test":"Apply blinded mechanical events.","contrary":"Trajectories overlap.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0628","prediction":"A soft optical sensor should distinguish slow creep from sudden damage through the recovery trajectory of its diffraction peaks.","feasible_test":"Apply blinded mechanical events.","contrary_outcome":"Trajectories overlap.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0629","id":"S5-0629","volume":"900v5","title":"A porous fluorescent tag should retain a salt-exposure event through irreversible domain aggregation while remaining humidity-reversible.","prediction":"A porous fluorescent tag should retain a salt-exposure event through irreversible domain aggregation while remaining humidity-reversible.","test":"Measure domains under both exposures.","contrary":"Humidity alone produces the same retained state.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0629","prediction":"A porous fluorescent tag should retain a salt-exposure event through irreversible domain aggregation while remaining humidity-reversible.","feasible_test":"Measure domains under both exposures.","contrary_outcome":"Humidity alone produces the same retained state.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0630","id":"S5-0630","volume":"900v5","title":"A membrane cavity should reveal a buried liquid bridge through polarization-dependent resonance damping.","prediction":"A membrane cavity should reveal a buried liquid bridge through polarization-dependent resonance damping.","test":"Image bridge and optical loss.","contrary":"Damping depends only on added mass.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0630","prediction":"A membrane cavity should reveal a buried liquid bridge through polarization-dependent resonance damping.","feasible_test":"Image bridge and optical loss.","contrary_outcome":"Damping depends only on added mass.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0631","id":"S5-0631","volume":"900v5","title":"A synthetic membrane should resist oxidation better when damaged lipids diffuse into a sacrificial boundary domain.","prediction":"A synthetic membrane should resist oxidation better when damaged lipids diffuse into a sacrificial boundary domain.","test":"Map oxidation and lipid motion.","contrary":"Protection persists without domain access equally.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0631","prediction":"A synthetic membrane should resist oxidation better when damaged lipids diffuse into a sacrificial boundary domain.","feasible_test":"Map oxidation and lipid motion.","contrary_outcome":"Protection persists without domain access equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0632","id":"S5-0632","volume":"900v5","title":"A cell-free reaction should produce a delayed second output pulse when an adsorbed intermediate desorbs from its container.","prediction":"A cell-free reaction should produce a delayed second output pulse when an adsorbed intermediate desorbs from its container.","test":"Measure wall occupancy and product.","contrary":"Second pulse persists on nonadsorbing walls.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0632","prediction":"A cell-free reaction should produce a delayed second output pulse when an adsorbed intermediate desorbs from its container.","feasible_test":"Measure wall occupancy and product.","contrary_outcome":"Second pulse persists on nonadsorbing walls.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0633","id":"S5-0633","volume":"900v5","title":"A filament network should generate anisotropic solvent flow when compressed along a direction different from its alignment.","prediction":"A filament network should generate anisotropic solvent flow when compressed along a direction different from its alignment.","test":"Measure flow and orientation.","contrary":"Flow follows pressure alone without orientation effects.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0633","prediction":"A filament network should generate anisotropic solvent flow when compressed along a direction different from its alignment.","feasible_test":"Measure flow and orientation.","contrary_outcome":"Flow follows pressure alone without orientation effects.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0634","id":"S5-0634","volume":"900v5","title":"A vesicle should retain an oblique internal gel interface after rotation because gel-membrane bonds pin its perimeter.","prediction":"A vesicle should retain an oblique internal gel interface after rotation because gel-membrane bonds pin its perimeter.","test":"Measure interface and bonds.","contrary":"Interface always levels under gravity.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0634","prediction":"A vesicle should retain an oblique internal gel interface after rotation because gel-membrane bonds pin its perimeter.","feasible_test":"Measure interface and bonds.","contrary_outcome":"Interface always levels under gravity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0635","id":"S5-0635","volume":"900v5","title":"A coacervate droplet should rotate after internal crystallization shifts its interfacial composition.","prediction":"A coacervate droplet should rotate after internal crystallization shifts its interfacial composition.","test":"Measure crystal growth and surface distribution.","contrary":"Rotation occurs without composition asymmetry.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0635","prediction":"A coacervate droplet should rotate after internal crystallization shifts its interfacial composition.","feasible_test":"Measure crystal growth and surface distribution.","contrary_outcome":"Rotation occurs without composition asymmetry.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0636","id":"S5-0636","volume":"900v5","title":"A DNA assembly should tolerate a missing connector by rerouting mechanical load through flexible loops.","prediction":"A DNA assembly should tolerate a missing connector by rerouting mechanical load through flexible loops.","test":"Measure connector forces and failure.","contrary":"Loops provide no additional load path.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0636","prediction":"A DNA assembly should tolerate a missing connector by rerouting mechanical load through flexible loops.","feasible_test":"Measure connector forces and failure.","contrary_outcome":"Loops provide no additional load path.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0637","id":"S5-0637","volume":"900v5","title":"A protein film should become temporarily less sticky after rapid stretching exposes a hydration-rich layer.","prediction":"A protein film should become temporarily less sticky after rapid stretching exposes a hydration-rich layer.","test":"Map surface water and adhesion.","contrary":"Adhesion changes without hydration enrichment.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0637","prediction":"A protein film should become temporarily less sticky after rapid stretching exposes a hydration-rich layer.","feasible_test":"Map surface water and adhesion.","contrary_outcome":"Adhesion changes without hydration enrichment.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0638","id":"S5-0638","volume":"900v5","title":"A supported lipid membrane should transport adsorbed cargo directionally under a traveling curvature wave.","prediction":"A supported lipid membrane should transport adsorbed cargo directionally under a traveling curvature wave.","test":"Track cargo and membrane flow.","contrary":"Cargo displacement averages to zero.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0638","prediction":"A supported lipid membrane should transport adsorbed cargo directionally under a traveling curvature wave.","feasible_test":"Track cargo and membrane flow.","contrary_outcome":"Cargo displacement averages to zero.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0639","id":"S5-0639","volume":"900v5","title":"A synthetic compartment should exchange cofactors preferentially during collision-induced flattening.","prediction":"A synthetic compartment should exchange cofactors preferentially during collision-induced flattening.","test":"Measure contact geometry and exchange.","contrary":"Exchange follows contact duration alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0639","prediction":"A synthetic compartment should exchange cofactors preferentially during collision-induced flattening.","feasible_test":"Measure contact geometry and exchange.","contrary_outcome":"Exchange follows contact duration alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0640","id":"S5-0640","volume":"900v5","title":"A reconstituted actin bundle should store a pressure event as persistent filament polarity segregation.","prediction":"A reconstituted actin bundle should store a pressure event as persistent filament polarity segregation.","test":"Map polarity before and after compression.","contrary":"Polarity distribution remains unchanged.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0640","prediction":"A reconstituted actin bundle should store a pressure event as persistent filament polarity segregation.","feasible_test":"Map polarity before and after compression.","contrary_outcome":"Polarity distribution remains unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0641","id":"S5-0641","volume":"900v5","title":"A membrane-bound reaction should pause when its own product creates a local curvature barrier to substrate diffusion.","prediction":"A membrane-bound reaction should pause when its own product creates a local curvature barrier to substrate diffusion.","test":"Map curvature and substrate.","contrary":"Pause persists on curvature-clamped surfaces equally.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0641","prediction":"A membrane-bound reaction should pause when its own product creates a local curvature barrier to substrate diffusion.","feasible_test":"Map curvature and substrate.","contrary_outcome":"Pause persists on curvature-clamped surfaces equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0642","id":"S5-0642","volume":"900v5","title":"A protein cage should open a preferred face under torsion because its seam bonds share load unevenly.","prediction":"A protein cage should open a preferred face under torsion because its seam bonds share load unevenly.","test":"Measure seam forces and opening.","contrary":"Opening sites are random after symmetry correction.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0642","prediction":"A protein cage should open a preferred face under torsion because its seam bonds share load unevenly.","feasible_test":"Measure seam forces and opening.","contrary_outcome":"Opening sites are random after symmetry correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0643","id":"S5-0643","volume":"900v5","title":"A lipid-coated droplet should fuse more readily after a temporary internal pressure drop pulls lipids away from its contact patch.","prediction":"A lipid-coated droplet should fuse more readily after a temporary internal pressure drop pulls lipids away from its contact patch.","test":"Map lipid density and fusion.","contrary":"Fusion is pressure-history independent.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0643","prediction":"A lipid-coated droplet should fuse more readily after a temporary internal pressure drop pulls lipids away from its contact patch.","feasible_test":"Map lipid density and fusion.","contrary_outcome":"Fusion is pressure-history independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0644","id":"S5-0644","volume":"900v5","title":"A DNA hydrogel should recover faster from a cut when mobile strands migrate toward exposed complementary ends.","prediction":"A DNA hydrogel should recover faster from a cut when mobile strands migrate toward exposed complementary ends.","test":"Label strands and healing.","contrary":"Recovery occurs without migration.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0644","prediction":"A DNA hydrogel should recover faster from a cut when mobile strands migrate toward exposed complementary ends.","feasible_test":"Label strands and healing.","contrary_outcome":"Recovery occurs without migration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0645","id":"S5-0645","volume":"900v5","title":"A peptide condensate should maintain a pH offset after dilution through slow proton-binding exchange.","prediction":"A peptide condensate should maintain a pH offset after dilution through slow proton-binding exchange.","test":"Measure internal and external pH.","contrary":"Offset vanishes at mixing completion.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0645","prediction":"A peptide condensate should maintain a pH offset after dilution through slow proton-binding exchange.","feasible_test":"Measure internal and external pH.","contrary_outcome":"Offset vanishes at mixing completion.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0646","id":"S5-0646","volume":"900v5","title":"A cell-free enzyme assembly should amplify a weak substrate pulse through reaction-induced recruitment of inactive enzyme.","prediction":"A cell-free enzyme assembly should amplify a weak substrate pulse through reaction-induced recruitment of inactive enzyme.","test":"Measure recruitment and output.","contrary":"Amplification persists with recruitment blocked equally.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0646","prediction":"A cell-free enzyme assembly should amplify a weak substrate pulse through reaction-induced recruitment of inactive enzyme.","feasible_test":"Measure recruitment and output.","contrary_outcome":"Amplification persists with recruitment blocked equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0647","id":"S5-0647","volume":"900v5","title":"A membrane tube should transmit a chemical signal as a moving radius change without net lipid transport.","prediction":"A membrane tube should transmit a chemical signal as a moving radius change without net lipid transport.","test":"Measure radius and lipid displacement.","contrary":"Signal requires bulk membrane advection.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0647","prediction":"A membrane tube should transmit a chemical signal as a moving radius change without net lipid transport.","feasible_test":"Measure radius and lipid displacement.","contrary_outcome":"Signal requires bulk membrane advection.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0648","id":"S5-0648","volume":"900v5","title":"A polymer-coated vesicle should resist collapse by expelling its coating from the most compressed region.","prediction":"A polymer-coated vesicle should resist collapse by expelling its coating from the most compressed region.","test":"Map coating and shape.","contrary":"Resistance is unchanged with coating immobilized.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0648","prediction":"A polymer-coated vesicle should resist collapse by expelling its coating from the most compressed region.","feasible_test":"Map coating and shape.","contrary_outcome":"Resistance is unchanged with coating immobilized.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0649","id":"S5-0649","volume":"900v5","title":"A reconstituted cytoskeleton should form a persistent mechanical channel after repeated localized forcing.","prediction":"A reconstituted cytoskeleton should form a persistent mechanical channel after repeated localized forcing.","test":"Map response and filament topology.","contrary":"Response stays spatially uniform.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0649","prediction":"A reconstituted cytoskeleton should form a persistent mechanical channel after repeated localized forcing.","feasible_test":"Map response and filament topology.","contrary_outcome":"Response stays spatially uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0650","id":"S5-0650","volume":"900v5","title":"A molecularly crowded droplet should expel a bound guest when internal phase separation reduces its accessible binding volume.","prediction":"A molecularly crowded droplet should expel a bound guest when internal phase separation reduces its accessible binding volume.","test":"Measure phases and guest release.","contrary":"Release follows dilution alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0650","prediction":"A molecularly crowded droplet should expel a bound guest when internal phase separation reduces its accessible binding volume.","feasible_test":"Measure phases and guest release.","contrary_outcome":"Release follows dilution alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0651","id":"S5-0651","volume":"900v5","title":"A protein network should show a negative relaxation lobe after compression because slow crosslinks pull it past equilibrium.","prediction":"A protein network should show a negative relaxation lobe after compression because slow crosslinks pull it past equilibrium.","test":"Measure force at fixed strain.","contrary":"Force relaxes monotonically.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0651","prediction":"A protein network should show a negative relaxation lobe after compression because slow crosslinks pull it past equilibrium.","feasible_test":"Measure force at fixed strain.","contrary_outcome":"Force relaxes monotonically.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0652","id":"S5-0652","volume":"900v5","title":"A lipid pore should close faster when a nearby enzyme removes curvature-promoting molecules from its rim.","prediction":"A lipid pore should close faster when a nearby enzyme removes curvature-promoting molecules from its rim.","test":"Map enzyme, composition and pore radius.","contrary":"Closure is enzyme-location independent.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0652","prediction":"A lipid pore should close faster when a nearby enzyme removes curvature-promoting molecules from its rim.","feasible_test":"Map enzyme, composition and pore radius.","contrary_outcome":"Closure is enzyme-location independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0653","id":"S5-0653","volume":"900v5","title":"A DNA tile boundary should migrate toward lower tension during reversible bond exchange.","prediction":"A DNA tile boundary should migrate toward lower tension during reversible bond exchange.","test":"Map tension and boundary motion.","contrary":"Migration follows domain size alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0653","prediction":"A DNA tile boundary should migrate toward lower tension during reversible bond exchange.","feasible_test":"Map tension and boundary motion.","contrary_outcome":"Migration follows domain size alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0654","id":"S5-0654","volume":"900v5","title":"A synthetic membrane should retain lateral chemical asymmetry after shape recovery because its anchors remain displaced.","prediction":"A synthetic membrane should retain lateral chemical asymmetry after shape recovery because its anchors remain displaced.","test":"Map anchors and composition.","contrary":"Composition becomes uniform with shape recovery.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0654","prediction":"A synthetic membrane should retain lateral chemical asymmetry after shape recovery because its anchors remain displaced.","feasible_test":"Map anchors and composition.","contrary_outcome":"Composition becomes uniform with shape recovery.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0655","id":"S5-0655","volume":"900v5","title":"A cell-free motor network should redirect transport after local substrate depletion changes filament alignment.","prediction":"A cell-free motor network should redirect transport after local substrate depletion changes filament alignment.","test":"Measure substrate, alignment and cargo.","contrary":"Rerouting occurs without alignment change.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0655","prediction":"A cell-free motor network should redirect transport after local substrate depletion changes filament alignment.","feasible_test":"Measure substrate, alignment and cargo.","contrary_outcome":"Rerouting occurs without alignment change.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0656","id":"S5-0656","volume":"900v5","title":"A condensate should wrap a porous inclusion more slowly when internal drainage generates resisting pressure.","prediction":"A condensate should wrap a porous inclusion more slowly when internal drainage generates resisting pressure.","test":"Measure wrapping and drainage.","contrary":"Rate follows surface tension and viscosity alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0656","prediction":"A condensate should wrap a porous inclusion more slowly when internal drainage generates resisting pressure.","feasible_test":"Measure wrapping and drainage.","contrary_outcome":"Rate follows surface tension and viscosity alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0657","id":"S5-0657","volume":"900v5","title":"A protein filament should transmit torsion through a defect by reversible local unfolding.","prediction":"A protein filament should transmit torsion through a defect by reversible local unfolding.","test":"Measure conformation and torque.","contrary":"Defect blocks transmission without unfolding.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0657","prediction":"A protein filament should transmit torsion through a defect by reversible local unfolding.","feasible_test":"Measure conformation and torque.","contrary_outcome":"Defect blocks transmission without unfolding.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0658","id":"S5-0658","volume":"900v5","title":"A charged vesicle should avoid a chemically identical flat surface when adsorbed ions create a repulsive hydration layer.","prediction":"A charged vesicle should avoid a chemically identical flat surface when adsorbed ions create a repulsive hydration layer.","test":"Measure ion state and separation.","contrary":"Avoidance remains after ion removal equally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0658","prediction":"A charged vesicle should avoid a chemically identical flat surface when adsorbed ions create a repulsive hydration layer.","feasible_test":"Measure ion state and separation.","contrary_outcome":"Avoidance remains after ion removal equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0659","id":"S5-0659","volume":"900v5","title":"A molecular assembly should retain two independent memories in its bond topology and internal composition.","prediction":"A molecular assembly should retain two independent memories in its bond topology and internal composition.","test":"Apply orthogonal stimuli and decode both.","contrary":"One stimulus erases both states.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0659","prediction":"A molecular assembly should retain two independent memories in its bond topology and internal composition.","feasible_test":"Apply orthogonal stimuli and decode both.","contrary_outcome":"One stimulus erases both states.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0660","id":"S5-0660","volume":"900v5","title":"A cell-free compartment should sharpen a chemical pulse by temporarily storing its leading edge in a reversible binding layer.","prediction":"A cell-free compartment should sharpen a chemical pulse by temporarily storing its leading edge in a reversible binding layer.","test":"Measure occupancy and output waveform.","contrary":"Output only broadens.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0660","prediction":"A cell-free compartment should sharpen a chemical pulse by temporarily storing its leading edge in a reversible binding layer.","feasible_test":"Measure occupancy and output waveform.","contrary_outcome":"Output only broadens.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0661","id":"S5-0661","volume":"900v5","title":"A thermal microbattery should prolong output when mechanical recoil maintains liquid contact after partial evaporation.","prediction":"A thermal microbattery should prolong output when mechanical recoil maintains liquid contact after partial evaporation.","test":"Measure contact and voltage.","contrary":"Output follows remaining liquid mass alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0661","prediction":"A thermal microbattery should prolong output when mechanical recoil maintains liquid contact after partial evaporation.","feasible_test":"Measure contact and voltage.","contrary_outcome":"Output follows remaining liquid mass alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0662","id":"S5-0662","volume":"900v5","title":"A porous heat pipe should reject particles when meniscus curvature pushes them into side reservoirs.","prediction":"A porous heat pipe should reject particles when meniscus curvature pushes them into side reservoirs.","test":"Track particles and interfaces.","contrary":"Rejection requires a rigid filter.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0662","prediction":"A porous heat pipe should reject particles when meniscus curvature pushes them into side reservoirs.","feasible_test":"Track particles and interfaces.","contrary_outcome":"Rejection requires a rigid filter.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0663","id":"S5-0663","volume":"900v5","title":"A phase-change membrane should reduce hot-spot migration by locally consuming heat at advancing melt fronts.","prediction":"A phase-change membrane should reduce hot-spot migration by locally consuming heat at advancing melt fronts.","test":"Map heat source and phase.","contrary":"Hot spots move identically without phase change.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0663","prediction":"A phase-change membrane should reduce hot-spot migration by locally consuming heat at advancing melt fronts.","feasible_test":"Map heat source and phase.","contrary_outcome":"Hot spots move identically without phase change.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0664","id":"S5-0664","volume":"900v5","title":"A thermal oscillator should entrain a neighboring passive strip through vapor exchange without solid contact.","prediction":"A thermal oscillator should entrain a neighboring passive strip through vapor exchange without solid contact.","test":"Measure phases with vapor isolation.","contrary":"Coordination persists when vapor transfer is blocked equally.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0664","prediction":"A thermal oscillator should entrain a neighboring passive strip through vapor exchange without solid contact.","feasible_test":"Measure phases with vapor isolation.","contrary_outcome":"Coordination persists when vapor transfer is blocked equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0665","id":"S5-0665","volume":"900v5","title":"A heated porous wall should form a stable cold ring where evaporation is supplied by lateral flow.","prediction":"A heated porous wall should form a stable cold ring where evaporation is supplied by lateral flow.","test":"Map flow and temperature.","contrary":"Cold ring follows fixed illumination only.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0665","prediction":"A heated porous wall should form a stable cold ring where evaporation is supplied by lateral flow.","feasible_test":"Map flow and temperature.","contrary_outcome":"Cold ring follows fixed illumination only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0666","id":"S5-0666","volume":"900v5","title":"A transparent thermal store should release trapped light-scattering bubbles when melting changes shell compliance.","prediction":"A transparent thermal store should release trapped light-scattering bubbles when melting changes shell compliance.","test":"Measure bubbles and phase.","contrary":"Bubble release is phase-independent.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0666","prediction":"A transparent thermal store should release trapped light-scattering bubbles when melting changes shell compliance.","feasible_test":"Measure bubbles and phase.","contrary_outcome":"Bubble release is phase-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0667","id":"S5-0667","volume":"900v5","title":"A flexible radiator should bend to expose additional emitting area after thermal contact weakens.","prediction":"A flexible radiator should bend to expose additional emitting area after thermal contact weakens.","test":"Measure shape and radiative loss.","contrary":"Cooling improvement requires an external actuator.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0667","prediction":"A flexible radiator should bend to expose additional emitting area after thermal contact weakens.","feasible_test":"Measure shape and radiative loss.","contrary_outcome":"Cooling improvement requires an external actuator.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0668","id":"S5-0668","volume":"900v5","title":"A thermal interface should retain low resistance after unloading when liquid fills its newly formed contact network.","prediction":"A thermal interface should retain low resistance after unloading when liquid fills its newly formed contact network.","test":"Map liquid and conductance.","contrary":"Conductance returns to the dry baseline.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0668","prediction":"A thermal interface should retain low resistance after unloading when liquid fills its newly formed contact network.","feasible_test":"Map liquid and conductance.","contrary_outcome":"Conductance returns to the dry baseline.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0669","id":"S5-0669","volume":"900v5","title":"A porous heat sensor should reveal adsorbate identity through the ratio of heating and cooling relaxation times.","prediction":"A porous heat sensor should reveal adsorbate identity through the ratio of heating and cooling relaxation times.","test":"Calibrate known vapors.","contrary":"Ratios follow vapor concentration alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0669","prediction":"A porous heat sensor should reveal adsorbate identity through the ratio of heating and cooling relaxation times.","feasible_test":"Calibrate known vapors.","contrary_outcome":"Ratios follow vapor concentration alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0670","id":"S5-0670","volume":"900v5","title":"A phase-changing fiber should twist during cooling when crystallization propagates helically along its surface.","prediction":"A phase-changing fiber should twist during cooling when crystallization propagates helically along its surface.","test":"Image crystal and twist.","contrary":"Twisting lacks helical growth.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0670","prediction":"A phase-changing fiber should twist during cooling when crystallization propagates helically along its surface.","feasible_test":"Image crystal and twist.","contrary_outcome":"Twisting lacks helical growth.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0671","id":"S5-0671","volume":"900v5","title":"A gas-filled thermal actuator should produce a second stroke during cooling when vapor condenses into a capillary bridge.","prediction":"A gas-filled thermal actuator should produce a second stroke during cooling when vapor condenses into a capillary bridge.","test":"Measure phase topology and motion.","contrary":"Motion remains single-stage.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0671","prediction":"A gas-filled thermal actuator should produce a second stroke during cooling when vapor condenses into a capillary bridge.","feasible_test":"Measure phase topology and motion.","contrary_outcome":"Motion remains single-stage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0672","id":"S5-0672","volume":"900v5","title":"A granular thermal layer should withstand cycling better when grains rotate to relieve expansion mismatch.","prediction":"A granular thermal layer should withstand cycling better when grains rotate to relieve expansion mismatch.","test":"Track rotations and damage.","contrary":"Damage is unchanged with rotation constrained.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0672","prediction":"A granular thermal layer should withstand cycling better when grains rotate to relieve expansion mismatch.","feasible_test":"Track rotations and damage.","contrary_outcome":"Damage is unchanged with rotation constrained.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0673","id":"S5-0673","volume":"900v5","title":"A microheater should prevent dryout when its own bending redirects liquid toward its hottest region.","prediction":"A microheater should prevent dryout when its own bending redirects liquid toward its hottest region.","test":"Map shape, water and temperature.","contrary":"Bending does not improve rewetting.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0673","prediction":"A microheater should prevent dryout when its own bending redirects liquid toward its hottest region.","feasible_test":"Map shape, water and temperature.","contrary_outcome":"Bending does not improve rewetting.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0674","id":"S5-0674","volume":"900v5","title":"A porous thermal coating should retain an event record as an irreversible change in contact conductance.","prediction":"A porous thermal coating should retain an event record as an irreversible change in contact conductance.","test":"Measure contacts after heat pulses.","contrary":"Conductance depends only on final temperature.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0674","prediction":"A porous thermal coating should retain an event record as an irreversible change in contact conductance.","feasible_test":"Measure contacts after heat pulses.","contrary_outcome":"Conductance depends only on final temperature.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0675","id":"S5-0675","volume":"900v5","title":"A sealed heat exchanger should improve performance after controlled bubble fragmentation increases internal liquid circulation.","prediction":"A sealed heat exchanger should improve performance after controlled bubble fragmentation increases internal liquid circulation.","test":"Measure bubbles and flow.","contrary":"Heat transfer follows gas volume alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0675","prediction":"A sealed heat exchanger should improve performance after controlled bubble fragmentation increases internal liquid circulation.","feasible_test":"Measure bubbles and flow.","contrary_outcome":"Heat transfer follows gas volume alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0676","id":"S5-0676","volume":"900v5","title":"A latent-heat capsule should melt asymmetrically under uniform heating when residual shell stress shifts local pressure.","prediction":"A latent-heat capsule should melt asymmetrically under uniform heating when residual shell stress shifts local pressure.","test":"Map stress and phase onset.","contrary":"Melting remains spatially uniform.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0676","prediction":"A latent-heat capsule should melt asymmetrically under uniform heating when residual shell stress shifts local pressure.","feasible_test":"Map stress and phase onset.","contrary_outcome":"Melting remains spatially uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0677","id":"S5-0677","volume":"900v5","title":"A thermal gradient should drive a soft particle through a pore by changing its size more strongly at one end.","prediction":"A thermal gradient should drive a soft particle through a pore by changing its size more strongly at one end.","test":"Measure temperature, shape and motion.","contrary":"Transport follows thermophoresis alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0677","prediction":"A thermal gradient should drive a soft particle through a pore by changing its size more strongly at one end.","feasible_test":"Measure temperature, shape and motion.","contrary_outcome":"Transport follows thermophoresis alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0678","id":"S5-0678","volume":"900v5","title":"A porous insulating layer should become temporarily more insulating after heating expels water into isolated pockets.","prediction":"A porous insulating layer should become temporarily more insulating after heating expels water into isolated pockets.","test":"Map water and heat flux.","contrary":"Conductivity rises monotonically with temperature.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0678","prediction":"A porous insulating layer should become temporarily more insulating after heating expels water into isolated pockets.","feasible_test":"Map water and heat flux.","contrary_outcome":"Conductivity rises monotonically with temperature.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0679","id":"S5-0679","volume":"900v5","title":"A liquid-filled thermal switch should recover its original threshold after a rest that redistributes dissolved gas.","prediction":"A liquid-filled thermal switch should recover its original threshold after a rest that redistributes dissolved gas.","test":"Measure gas and switching.","contrary":"Threshold is rest-independent.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0679","prediction":"A liquid-filled thermal switch should recover its original threshold after a rest that redistributes dissolved gas.","feasible_test":"Measure gas and switching.","contrary_outcome":"Threshold is rest-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0680","id":"S5-0680","volume":"900v5","title":"A heat pulse should create a moving mechanical ridge in a gel through delayed solvent vaporization.","prediction":"A heat pulse should create a moving mechanical ridge in a gel through delayed solvent vaporization.","test":"Measure temperature, phase and shape.","contrary":"Ridge follows thermal expansion only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0680","prediction":"A heat pulse should create a moving mechanical ridge in a gel through delayed solvent vaporization.","feasible_test":"Measure temperature, phase and shape.","contrary_outcome":"Ridge follows thermal expansion only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0681","id":"S5-0681","volume":"900v5","title":"A charged membrane should develop a traveling conductivity minimum after a localized ion-binding pulse.","prediction":"A charged membrane should develop a traveling conductivity minimum after a localized ion-binding pulse.","test":"Map bound ions and current.","contrary":"Conductivity changes remain at the trigger site.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0681","prediction":"A charged membrane should develop a traveling conductivity minimum after a localized ion-binding pulse.","feasible_test":"Map bound ions and current.","contrary_outcome":"Conductivity changes remain at the trigger site.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0682","id":"S5-0682","volume":"900v5","title":"A conductive foam should detect fluid intrusion through the sign of its resistance noise skewness.","prediction":"A conductive foam should detect fluid intrusion through the sign of its resistance noise skewness.","test":"Compare liquids and compression.","contrary":"Skewness cannot separate inputs.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0682","prediction":"A conductive foam should detect fluid intrusion through the sign of its resistance noise skewness.","feasible_test":"Compare liquids and compression.","contrary_outcome":"Skewness cannot separate inputs.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0683","id":"S5-0683","volume":"900v5","title":"A soft magnetic chain should transmit a torsional signal only when field-induced contacts remain mobile.","prediction":"A soft magnetic chain should transmit a torsional signal only when field-induced contacts remain mobile.","test":"Measure contact rotation and propagation.","contrary":"Mobility has no effect.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0683","prediction":"A soft magnetic chain should transmit a torsional signal only when field-induced contacts remain mobile.","feasible_test":"Measure contact rotation and propagation.","contrary_outcome":"Mobility has no effect.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0684","id":"S5-0684","volume":"900v5","title":"A redox-driven hinge should retain its angle after bias removal through interfacial ion trapping.","prediction":"A redox-driven hinge should retain its angle after bias removal through interfacial ion trapping.","test":"Map ions and angle.","contrary":"Angle recovers with electrical discharge.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0684","prediction":"A redox-driven hinge should retain its angle after bias removal through interfacial ion trapping.","feasible_test":"Map ions and angle.","contrary_outcome":"Angle recovers with electrical discharge.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0685","id":"S5-0685","volume":"900v5","title":"A porous capacitor should exhibit a pulse-duration threshold when electrolyte penetrates a hidden dead-end reservoir.","prediction":"A porous capacitor should exhibit a pulse-duration threshold when electrolyte penetrates a hidden dead-end reservoir.","test":"Image penetration and capacitance.","contrary":"Capacitance depends only on integrated charge.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0685","prediction":"A porous capacitor should exhibit a pulse-duration threshold when electrolyte penetrates a hidden dead-end reservoir.","feasible_test":"Image penetration and capacitance.","contrary_outcome":"Capacitance depends only on integrated charge.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0686","id":"S5-0686","volume":"900v5","title":"An ionic droplet should generate a directional voltage after symmetric impact because its surface binds ions unequally along the contact trail.","prediction":"An ionic droplet should generate a directional voltage after symmetric impact because its surface binds ions unequally along the contact trail.","test":"Map charge and trail.","contrary":"Voltage disappears after geometric correction.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0686","prediction":"An ionic droplet should generate a directional voltage after symmetric impact because its surface binds ions unequally along the contact trail.","feasible_test":"Map charge and trail.","contrary_outcome":"Voltage disappears after geometric correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0687","id":"S5-0687","volume":"900v5","title":"A flexible electret should recover surface potential after abrasion by exposing an internally charged layer.","prediction":"A flexible electret should recover surface potential after abrasion by exposing an internally charged layer.","test":"Measure depth charge and potential.","contrary":"Abrasion only decreases potential.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0687","prediction":"A flexible electret should recover surface potential after abrasion by exposing an internally charged layer.","feasible_test":"Measure depth charge and potential.","contrary_outcome":"Abrasion only decreases potential.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0688","id":"S5-0688","volume":"900v5","title":"A magnetic particle raft should fold along a field-history-defined hinge.","prediction":"A magnetic particle raft should fold along a field-history-defined hinge.","test":"Measure remanence and folding.","contrary":"Hinge location follows geometry alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0688","prediction":"A magnetic particle raft should fold along a field-history-defined hinge.","feasible_test":"Measure remanence and folding.","contrary_outcome":"Hinge location follows geometry alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0689","id":"S5-0689","volume":"900v5","title":"A polymer electrolyte should show a reversible conductivity echo after a mechanical pulse redistributes solvent.","prediction":"A polymer electrolyte should show a reversible conductivity echo after a mechanical pulse redistributes solvent.","test":"Measure solvent and current.","contrary":"Current decays without an echo.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0689","prediction":"A polymer electrolyte should show a reversible conductivity echo after a mechanical pulse redistributes solvent.","feasible_test":"Measure solvent and current.","contrary_outcome":"Current decays without an echo.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0690","id":"S5-0690","volume":"900v5","title":"A soft electrical contact should improve after repeated humidity cycles anneal its particle junctions.","prediction":"A soft electrical contact should improve after repeated humidity cycles anneal its particle junctions.","test":"Map junctions and resistance.","contrary":"Improvement requires irreversible chemical bonding.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0690","prediction":"A soft electrical contact should improve after repeated humidity cycles anneal its particle junctions.","feasible_test":"Map junctions and resistance.","contrary_outcome":"Improvement requires irreversible chemical bonding.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0691","id":"S5-0691","volume":"900v5","title":"A dielectric film should reveal a hidden shear band through localized second-harmonic electrical response.","prediction":"A dielectric film should reveal a hidden shear band through localized second-harmonic electrical response.","test":"Map strain and nonlinear current.","contrary":"Response follows thickness variation alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0691","prediction":"A dielectric film should reveal a hidden shear band through localized second-harmonic electrical response.","feasible_test":"Map strain and nonlinear current.","contrary_outcome":"Response follows thickness variation alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0692","id":"S5-0692","volume":"900v5","title":"A liquid-metal channel should prevent runaway necking when pressure recruits metal from side pockets.","prediction":"A liquid-metal channel should prevent runaway necking when pressure recruits metal from side pockets.","test":"Measure flow and resistance.","contrary":"Side pockets provide no stability gain.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0692","prediction":"A liquid-metal channel should prevent runaway necking when pressure recruits metal from side pockets.","feasible_test":"Measure flow and resistance.","contrary_outcome":"Side pockets provide no stability gain.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0693","id":"S5-0693","volume":"900v5","title":"A porous redox sensor should distinguish analyte pulses by how far their reaction front penetrates before reversal.","prediction":"A porous redox sensor should distinguish analyte pulses by how far their reaction front penetrates before reversal.","test":"Map front and output.","contrary":"Penetration depends only on total dose.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0693","prediction":"A porous redox sensor should distinguish analyte pulses by how far their reaction front penetrates before reversal.","feasible_test":"Map front and output.","contrary_outcome":"Penetration depends only on total dose.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0694","id":"S5-0694","volume":"900v5","title":"A charged gel should attract neutral particles through a mechanically generated solvent flow after unloading.","prediction":"A charged gel should attract neutral particles through a mechanically generated solvent flow after unloading.","test":"Track fluid and particles.","contrary":"Attraction requires particle charge.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0694","prediction":"A charged gel should attract neutral particles through a mechanically generated solvent flow after unloading.","feasible_test":"Track fluid and particles.","contrary_outcome":"Attraction requires particle charge.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0695","id":"S5-0695","volume":"900v5","title":"A magnetic membrane should damp vibration more strongly after a field pulse redistributes particle contacts toward antinodes.","prediction":"A magnetic membrane should damp vibration more strongly after a field pulse redistributes particle contacts toward antinodes.","test":"Map contacts and modes.","contrary":"Damping follows magnetization alone.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0695","prediction":"A magnetic membrane should damp vibration more strongly after a field pulse redistributes particle contacts toward antinodes.","feasible_test":"Map contacts and modes.","contrary_outcome":"Damping follows magnetization alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0696","id":"S5-0696","volume":"900v5","title":"A soft capacitor should detect local fatigue through irreversible phase lag before mean capacitance changes.","prediction":"A soft capacitor should detect local fatigue through irreversible phase lag before mean capacitance changes.","test":"Measure fatigue and impedance.","contrary":"Phase changes begin only with mean shifts.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0696","prediction":"A soft capacitor should detect local fatigue through irreversible phase lag before mean capacitance changes.","feasible_test":"Measure fatigue and impedance.","contrary_outcome":"Phase changes begin only with mean shifts.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0697","id":"S5-0697","volume":"900v5","title":"An ionic bridge should preserve directional transport after a pressure pulse by retaining an asymmetric binding profile.","prediction":"An ionic bridge should preserve directional transport after a pressure pulse by retaining an asymmetric binding profile.","test":"Map binding and flux.","contrary":"Transport becomes reciprocal immediately.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0697","prediction":"An ionic bridge should preserve directional transport after a pressure pulse by retaining an asymmetric binding profile.","feasible_test":"Map binding and flux.","contrary_outcome":"Transport becomes reciprocal immediately.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0698","id":"S5-0698","volume":"900v5","title":"A conductive coating should self-isolate a damaged region when crack opening pulls particles into a peripheral bypass.","prediction":"A conductive coating should self-isolate a damaged region when crack opening pulls particles into a peripheral bypass.","test":"Image particles and current paths.","contrary":"Current fails without bypass formation.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0698","prediction":"A conductive coating should self-isolate a damaged region when crack opening pulls particles into a peripheral bypass.","feasible_test":"Image particles and current paths.","contrary_outcome":"Current fails without bypass formation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0699","id":"S5-0699","volume":"900v5","title":"A redox-active shell should release an attached particle when its oxidation front crosses the contact edge.","prediction":"A redox-active shell should release an attached particle when its oxidation front crosses the contact edge.","test":"Map front and detachment.","contrary":"Release follows total oxidation only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0699","prediction":"A redox-active shell should release an attached particle when its oxidation front crosses the contact edge.","feasible_test":"Map front and detachment.","contrary_outcome":"Release follows total oxidation only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0700","id":"S5-0700","volume":"900v5","title":"A porous electromechanical switch should suppress chatter by dissipating energy through delayed ion redistribution.","prediction":"A porous electromechanical switch should suppress chatter by dissipating energy through delayed ion redistribution.","test":"Measure ions and switching.","contrary":"Chatter suppression is unchanged in ion-immobile controls.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0700","prediction":"A porous electromechanical switch should suppress chatter by dissipating energy through delayed ion redistribution.","feasible_test":"Measure ions and switching.","contrary_outcome":"Chatter suppression is unchanged in ion-immobile controls.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0701","id":"S5-0701","volume":"900v5","title":"A fluidic network should reduce timing jitter when a compliant reservoir absorbs short pressure spikes.","prediction":"A fluidic network should reduce timing jitter when a compliant reservoir absorbs short pressure spikes.","test":"Measure pressure and event times.","contrary":"Jitter is reservoir-independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0701","prediction":"A fluidic network should reduce timing jitter when a compliant reservoir absorbs short pressure spikes.","feasible_test":"Measure pressure and event times.","contrary_outcome":"Jitter is reservoir-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0702","id":"S5-0702","volume":"900v5","title":"A capillary latch should distinguish one long pulse from two short pulses with equal total impulse.","prediction":"A capillary latch should distinguish one long pulse from two short pulses with equal total impulse.","test":"Apply calibrated histories.","contrary":"Final state depends only on impulse.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0702","prediction":"A capillary latch should distinguish one long pulse from two short pulses with equal total impulse.","feasible_test":"Apply calibrated histories.","contrary_outcome":"Final state depends only on impulse.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0703","id":"S5-0703","volume":"900v5","title":"A granular sensor should show a reproducible noise minimum after weak vibration anneals unstable contacts.","prediction":"A granular sensor should show a reproducible noise minimum after weak vibration anneals unstable contacts.","test":"Measure contacts and noise.","contrary":"Noise decreases only with bulk compaction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0703","prediction":"A granular sensor should show a reproducible noise minimum after weak vibration anneals unstable contacts.","feasible_test":"Measure contacts and noise.","contrary_outcome":"Noise decreases only with bulk compaction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0704","id":"S5-0704","volume":"900v5","title":"A soft resonator should exhibit critical slowing before a solvent-induced snap transition.","prediction":"A soft resonator should exhibit critical slowing before a solvent-induced snap transition.","test":"Measure relaxation and solvent uptake.","contrary":"Relaxation remains unchanged near snapping.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0704","prediction":"A soft resonator should exhibit critical slowing before a solvent-induced snap transition.","feasible_test":"Measure relaxation and solvent uptake.","contrary_outcome":"Relaxation remains unchanged near snapping.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0705","id":"S5-0705","volume":"900v5","title":"A droplet oscillator should retain phase through a short illumination gap when interfacial composition stores its state.","prediction":"A droplet oscillator should retain phase through a short illumination gap when interfacial composition stores its state.","test":"Measure composition and restart phase.","contrary":"Restart phase randomizes.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0705","prediction":"A droplet oscillator should retain phase through a short illumination gap when interfacial composition stores its state.","feasible_test":"Measure composition and restart phase.","contrary_outcome":"Restart phase randomizes.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0706","id":"S5-0706","volume":"900v5","title":"A porous membrane should show correlated pore closures before a macroscopic flow stall.","prediction":"A porous membrane should show correlated pore closures before a macroscopic flow stall.","test":"Image closures and flow.","contrary":"Correlation begins only after stall.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0706","prediction":"A porous membrane should show correlated pore closures before a macroscopic flow stall.","feasible_test":"Image closures and flow.","contrary_outcome":"Correlation begins only after stall.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0707","id":"S5-0707","volume":"900v5","title":"A mechanical network should improve weak-signal transmission when low noise releases pinned joints.","prediction":"A mechanical network should improve weak-signal transmission when low noise releases pinned joints.","test":"Measure transmission versus noise.","contrary":"Signal detection never exceeds the zero-noise baseline.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0707","prediction":"A mechanical network should improve weak-signal transmission when low noise releases pinned joints.","feasible_test":"Measure transmission versus noise.","contrary_outcome":"Signal detection never exceeds the zero-noise baseline.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0708","id":"S5-0708","volume":"900v5","title":"A molecular film should exhibit return-point memory only within a bounded range of reversible adsorption.","prediction":"A molecular film should exhibit return-point memory only within a bounded range of reversible adsorption.","test":"Measure nested exposures and structure.","contrary":"Memory persists outside the reversible range equally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0708","prediction":"A molecular film should exhibit return-point memory only within a bounded range of reversible adsorption.","feasible_test":"Measure nested exposures and structure.","contrary_outcome":"Memory persists outside the reversible range equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0709","id":"S5-0709","volume":"900v5","title":"A charged colloidal cluster should show a rotation burst before splitting because ions redistribute asymmetrically.","prediction":"A charged colloidal cluster should show a rotation burst before splitting because ions redistribute asymmetrically.","test":"Map ions and motion.","contrary":"Splitting occurs without a preceding burst.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0709","prediction":"A charged colloidal cluster should show a rotation burst before splitting because ions redistribute asymmetrically.","feasible_test":"Map ions and motion.","contrary_outcome":"Splitting occurs without a preceding burst.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0710","id":"S5-0710","volume":"900v5","title":"A liquid bridge should retain a loading-frequency memory in its interfacial domain size.","prediction":"A liquid bridge should retain a loading-frequency memory in its interfacial domain size.","test":"Measure domains after equal-dose oscillation.","contrary":"Domains depend only on accumulated strain.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0710","prediction":"A liquid bridge should retain a loading-frequency memory in its interfacial domain size.","feasible_test":"Measure domains after equal-dose oscillation.","contrary_outcome":"Domains depend only on accumulated strain.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0711","id":"S5-0711","volume":"900v5","title":"A flexible cavity should display correlated resonance jumps as trapped gas migrates between chambers.","prediction":"A flexible cavity should display correlated resonance jumps as trapped gas migrates between chambers.","test":"Track gas and modes.","contrary":"Jumps occur independently of migration.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0711","prediction":"A flexible cavity should display correlated resonance jumps as trapped gas migrates between chambers.","feasible_test":"Track gas and modes.","contrary_outcome":"Jumps occur independently of migration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0712","id":"S5-0712","volume":"900v5","title":"A particle gel should age faster after subyield cycles that redistribute weak bonds without changing mean density.","prediction":"A particle gel should age faster after subyield cycles that redistribute weak bonds without changing mean density.","test":"Map bonds and relaxation.","contrary":"Aging is cycle-independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0712","prediction":"A particle gel should age faster after subyield cycles that redistribute weak bonds without changing mean density.","feasible_test":"Map bonds and relaxation.","contrary_outcome":"Aging is cycle-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0713","id":"S5-0713","volume":"900v5","title":"A membrane oscillator should reveal a chemical threshold through increased phase diffusion before oscillation loss.","prediction":"A membrane oscillator should reveal a chemical threshold through increased phase diffusion before oscillation loss.","test":"Measure chemistry and phase noise.","contrary":"Noise changes only after oscillations cease.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0713","prediction":"A membrane oscillator should reveal a chemical threshold through increased phase diffusion before oscillation loss.","feasible_test":"Measure chemistry and phase noise.","contrary_outcome":"Noise changes only after oscillations cease.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0714","id":"S5-0714","volume":"900v5","title":"A mechanical counter should reject closely spaced impulses because its internal liquid has not returned to the receiving chamber.","prediction":"A mechanical counter should reject closely spaced impulses because its internal liquid has not returned to the receiving chamber.","test":"Image liquid and counts.","contrary":"Counting is interval-independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0714","prediction":"A mechanical counter should reject closely spaced impulses because its internal liquid has not returned to the receiving chamber.","feasible_test":"Image liquid and counts.","contrary_outcome":"Counting is interval-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0715","id":"S5-0715","volume":"900v5","title":"A coalescing emulsion should exhibit a waiting-time memory inherited from prior interfacial compression.","prediction":"A coalescing emulsion should exhibit a waiting-time memory inherited from prior interfacial compression.","test":"Measure compression histories and mergers.","contrary":"Waiting times are history-independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0715","prediction":"A coalescing emulsion should exhibit a waiting-time memory inherited from prior interfacial compression.","feasible_test":"Measure compression histories and mergers.","contrary_outcome":"Waiting times are history-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0716","id":"S5-0716","volume":"900v5","title":"A granular chain should localize fluctuation energy near a contact defect after uniform weak shaking.","prediction":"A granular chain should localize fluctuation energy near a contact defect after uniform weak shaking.","test":"Map contacts and motion.","contrary":"Energy stays uniform.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0716","prediction":"A granular chain should localize fluctuation energy near a contact defect after uniform weak shaking.","feasible_test":"Map contacts and motion.","contrary_outcome":"Energy stays uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0717","id":"S5-0717","volume":"900v5","title":"A soft valve should switch more reliably after a preparatory pulse resets its meniscus position.","prediction":"A soft valve should switch more reliably after a preparatory pulse resets its meniscus position.","test":"Measure position and switching distribution.","contrary":"Variability remains unchanged after reset.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0717","prediction":"A soft valve should switch more reliably after a preparatory pulse resets its meniscus position.","feasible_test":"Measure position and switching distribution.","contrary_outcome":"Variability remains unchanged after reset.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0718","id":"S5-0718","volume":"900v5","title":"A confined condensate should show intermittent shape jumps when adsorbed molecules exchange in clusters.","prediction":"A confined condensate should show intermittent shape jumps when adsorbed molecules exchange in clusters.","test":"Measure exchange and shape.","contrary":"Jumps lack clustered-exchange timing.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0718","prediction":"A confined condensate should show intermittent shape jumps when adsorbed molecules exchange in clusters.","feasible_test":"Measure exchange and shape.","contrary_outcome":"Jumps lack clustered-exchange timing.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0719","id":"S5-0719","volume":"900v5","title":"A porous thermal oscillator should retain frequency after partial damage when remaining channels redistribute its phase-change inventory.","prediction":"A porous thermal oscillator should retain frequency after partial damage when remaining channels redistribute its phase-change inventory.","test":"Map inventory and oscillation.","contrary":"Frequency shifts in proportion to damage.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0719","prediction":"A porous thermal oscillator should retain frequency after partial damage when remaining channels redistribute its phase-change inventory.","feasible_test":"Map inventory and oscillation.","contrary_outcome":"Frequency shifts in proportion to damage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0720","id":"S5-0720","volume":"900v5","title":"A passive mechanical classifier should separate continuous from impulsive loading through two coupled relaxation modes.","prediction":"A passive mechanical classifier should separate continuous from impulsive loading through two coupled relaxation modes.","test":"Apply blinded equal-energy histories.","contrary":"Final readout cannot distinguish histories.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0720","prediction":"A passive mechanical classifier should separate continuous from impulsive loading through two coupled relaxation modes.","feasible_test":"Apply blinded equal-energy histories.","contrary_outcome":"Final readout cannot distinguish histories.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0721","id":"S5-0721","volume":"900v5","title":"A suspended mineral grain should move toward a gas-liquid boundary when adsorption changes its buoyant density locally.","prediction":"A suspended mineral grain should move toward a gas-liquid boundary when adsorption changes its buoyant density locally.","test":"Measure adsorption, density and trajectory.","contrary":"Motion follows bulk fluid velocity alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0721","prediction":"A suspended mineral grain should move toward a gas-liquid boundary when adsorption changes its buoyant density locally.","feasible_test":"Measure adsorption, density and trajectory.","contrary_outcome":"Motion follows bulk fluid velocity alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0722","id":"S5-0722","volume":"900v5","title":"A clay-rich coating should protect a salt crystal during fog exposure by diverting water into lateral sheets.","prediction":"A clay-rich coating should protect a salt crystal during fog exposure by diverting water into lateral sheets.","test":"Image water and dissolution.","contrary":"Protection follows impermeable coverage only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0722","prediction":"A clay-rich coating should protect a salt crystal during fog exposure by diverting water into lateral sheets.","feasible_test":"Image water and dissolution.","contrary_outcome":"Protection follows impermeable coverage only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0723","id":"S5-0723","volume":"900v5","title":"A porous carbonate should form a stable internal reaction cavity when dissolution and precipitation fronts separate.","prediction":"A porous carbonate should form a stable internal reaction cavity when dissolution and precipitation fronts separate.","test":"Map phases and connectivity.","contrary":"Cavity growth requires preexisting voids.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0723","prediction":"A porous carbonate should form a stable internal reaction cavity when dissolution and precipitation fronts separate.","feasible_test":"Map phases and connectivity.","contrary_outcome":"Cavity growth requires preexisting voids.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0724","id":"S5-0724","volume":"900v5","title":"A mineralized gel should retain an off-axis growth direction after the external gradient rotates because old pores guide new reagent flux.","prediction":"A mineralized gel should retain an off-axis growth direction after the external gradient rotates because old pores guide new reagent flux.","test":"Track pores and growth.","contrary":"Growth follows the new gradient immediately.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0724","prediction":"A mineralized gel should retain an off-axis growth direction after the external gradient rotates because old pores guide new reagent flux.","feasible_test":"Track pores and growth.","contrary_outcome":"Growth follows the new gradient immediately.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0725","id":"S5-0725","volume":"900v5","title":"A sediment surface should develop an electrically detectable precursor to gas venting when thin water films stretch around bubbles.","prediction":"A sediment surface should develop an electrically detectable precursor to gas venting when thin water films stretch around bubbles.","test":"Measure conductivity and gas geometry.","contrary":"Signals occur only after venting.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0725","prediction":"A sediment surface should develop an electrically detectable precursor to gas venting when thin water films stretch around bubbles.","feasible_test":"Measure conductivity and gas geometry.","contrary_outcome":"Signals occur only after venting.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0726","id":"S5-0726","volume":"900v5","title":"A mineral membrane should transport neutral molecules selectively when adsorbed ions alter pore-wall solvent structure.","prediction":"A mineral membrane should transport neutral molecules selectively when adsorbed ions alter pore-wall solvent structure.","test":"Measure ions and neutral flux.","contrary":"Selectivity follows molecule size alone.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0726","prediction":"A mineral membrane should transport neutral molecules selectively when adsorbed ions alter pore-wall solvent structure.","feasible_test":"Measure ions and neutral flux.","contrary_outcome":"Selectivity follows molecule size alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0727","id":"S5-0727","volume":"900v5","title":"A salt crust should peel from its support during humidification if capillary pressure reverses before crystal dissolution.","prediction":"A salt crust should peel from its support during humidification if capillary pressure reverses before crystal dissolution.","test":"Measure pressure, mass and peeling.","contrary":"Peeling begins only after substantial dissolution.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0727","prediction":"A salt crust should peel from its support during humidification if capillary pressure reverses before crystal dissolution.","feasible_test":"Measure pressure, mass and peeling.","contrary_outcome":"Peeling begins only after substantial dissolution.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0728","id":"S5-0728","volume":"900v5","title":"A porous particle should retain a redox gradient after external equilibration because reaction products seal its fastest pathways.","prediction":"A porous particle should retain a redox gradient after external equilibration because reaction products seal its fastest pathways.","test":"Map redox and pores.","contrary":"Gradients vanish at the free-diffusion rate.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0728","prediction":"A porous particle should retain a redox gradient after external equilibration because reaction products seal its fastest pathways.","feasible_test":"Map redox and pores.","contrary_outcome":"Gradients vanish at the free-diffusion rate.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0729","id":"S5-0729","volume":"900v5","title":"A clay aggregate should fragment along an internal swelling front rather than its weakest dry interface.","prediction":"A clay aggregate should fragment along an internal swelling front rather than its weakest dry interface.","test":"Map front and fracture.","contrary":"Dry weakness predicts all fracture paths.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0729","prediction":"A clay aggregate should fragment along an internal swelling front rather than its weakest dry interface.","feasible_test":"Map front and fracture.","contrary_outcome":"Dry weakness predicts all fracture paths.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0730","id":"S5-0730","volume":"900v5","title":"A mineral fiber should show asymmetric dissolution under pure bending because tensile and compressive surfaces have different chemical potentials.","prediction":"A mineral fiber should show asymmetric dissolution under pure bending because tensile and compressive surfaces have different chemical potentials.","test":"Measure stress and local loss.","contrary":"Loss is stress-independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0730","prediction":"A mineral fiber should show asymmetric dissolution under pure bending because tensile and compressive surfaces have different chemical potentials.","feasible_test":"Measure stress and local loss.","contrary_outcome":"Loss is stress-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0731","id":"S5-0731","volume":"900v5","title":"A sediment cap should trap bubbles in an ordered lateral pattern through elastic interaction between growing domes.","prediction":"A sediment cap should trap bubbles in an ordered lateral pattern through elastic interaction between growing domes.","test":"Map domes and pressure.","contrary":"Spacing matches independent random nucleation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0731","prediction":"A sediment cap should trap bubbles in an ordered lateral pattern through elastic interaction between growing domes.","feasible_test":"Map domes and pressure.","contrary_outcome":"Spacing matches independent random nucleation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0732","id":"S5-0732","volume":"900v5","title":"A salt hydrate should exhibit a delayed conductivity pulse during phase conversion when water is released into connected boundaries.","prediction":"A salt hydrate should exhibit a delayed conductivity pulse during phase conversion when water is released into connected boundaries.","test":"Measure phase, water and current.","contrary":"Conductivity follows temperature alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0732","prediction":"A salt hydrate should exhibit a delayed conductivity pulse during phase conversion when water is released into connected boundaries.","feasible_test":"Measure phase, water and current.","contrary_outcome":"Conductivity follows temperature alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0733","id":"S5-0733","volume":"900v5","title":"A porous rock should retain a stable gas conduit after rewetting when mineral roughness pins an annular liquid film.","prediction":"A porous rock should retain a stable gas conduit after rewetting when mineral roughness pins an annular liquid film.","test":"Image gas and film.","contrary":"Rewetting closes every gas pathway.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0733","prediction":"A porous rock should retain a stable gas conduit after rewetting when mineral roughness pins an annular liquid film.","feasible_test":"Image gas and film.","contrary_outcome":"Rewetting closes every gas pathway.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0734","id":"S5-0734","volume":"900v5","title":"A mineral-organic interface should become more adhesive after a short drying pulse concentrates bridging ions.","prediction":"A mineral-organic interface should become more adhesive after a short drying pulse concentrates bridging ions.","test":"Map ions and pull-off force.","contrary":"Adhesion follows water fraction only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0734","prediction":"A mineral-organic interface should become more adhesive after a short drying pulse concentrates bridging ions.","feasible_test":"Map ions and pull-off force.","contrary_outcome":"Adhesion follows water fraction only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0735","id":"S5-0735","volume":"900v5","title":"A silica particle bed should transmit a chemical pulse faster along previously strained paths because bonds remain more accessible.","prediction":"A silica particle bed should transmit a chemical pulse faster along previously strained paths because bonds remain more accessible.","test":"Measure strain history and surface exchange.","contrary":"Transport is history-independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0735","prediction":"A silica particle bed should transmit a chemical pulse faster along previously strained paths because bonds remain more accessible.","feasible_test":"Measure strain history and surface exchange.","contrary_outcome":"Transport is history-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0736","id":"S5-0736","volume":"900v5","title":"A carbonate shell should buckle during internal dissolution before its average thickness changes appreciably.","prediction":"A carbonate shell should buckle during internal dissolution before its average thickness changes appreciably.","test":"Map local thickness and shape.","contrary":"Buckling requires large average thinning.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0736","prediction":"A carbonate shell should buckle during internal dissolution before its average thickness changes appreciably.","feasible_test":"Map local thickness and shape.","contrary_outcome":"Buckling requires large average thinning.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0737","id":"S5-0737","volume":"900v5","title":"A sediment pore should trap an organic droplet through a mechanically formed collar of mobile fines.","prediction":"A sediment pore should trap an organic droplet through a mechanically formed collar of mobile fines.","test":"Image fines and droplet escape.","contrary":"Trapping follows static pore geometry alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0737","prediction":"A sediment pore should trap an organic droplet through a mechanically formed collar of mobile fines.","feasible_test":"Image fines and droplet escape.","contrary_outcome":"Trapping follows static pore geometry alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0738","id":"S5-0738","volume":"900v5","title":"A mineral coating should resist abrasion after partial dissolution rounds only its most exposed asperities.","prediction":"A mineral coating should resist abrasion after partial dissolution rounds only its most exposed asperities.","test":"Measure asperities and wear.","contrary":"Dissolution always increases wear.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0738","prediction":"A mineral coating should resist abrasion after partial dissolution rounds only its most exposed asperities.","feasible_test":"Measure asperities and wear.","contrary_outcome":"Dissolution always increases wear.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0739","id":"S5-0739","volume":"900v5","title":"A clay film should form stable vapor channels along boundaries between differently oriented domains.","prediction":"A clay film should form stable vapor channels along boundaries between differently oriented domains.","test":"Map orientation and gas flux.","contrary":"Channels ignore domain boundaries.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0739","prediction":"A clay film should form stable vapor channels along boundaries between differently oriented domains.","feasible_test":"Map orientation and gas flux.","contrary_outcome":"Channels ignore domain boundaries.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0740","id":"S5-0740","volume":"900v5","title":"A salt crystal should nucleate a neighboring crystal through a pressure pulse generated by its own growth against confinement.","prediction":"A salt crystal should nucleate a neighboring crystal through a pressure pulse generated by its own growth against confinement.","test":"Measure pressure and nucleation.","contrary":"Nucleation lacks pressure-pulse timing.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0740","prediction":"A salt crystal should nucleate a neighboring crystal through a pressure pulse generated by its own growth against confinement.","feasible_test":"Measure pressure and nucleation.","contrary_outcome":"Nucleation lacks pressure-pulse timing.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0741","id":"S5-0741","volume":"900v5","title":"A mineral gel should reduce contaminant mobility after cooling because bound-water rearrangement exposes additional adsorption sites.","prediction":"A mineral gel should reduce contaminant mobility after cooling because bound-water rearrangement exposes additional adsorption sites.","test":"Measure water state and adsorption.","contrary":"Mobility follows viscosity alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0741","prediction":"A mineral gel should reduce contaminant mobility after cooling because bound-water rearrangement exposes additional adsorption sites.","feasible_test":"Measure water state and adsorption.","contrary_outcome":"Mobility follows viscosity alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0742","id":"S5-0742","volume":"900v5","title":"A porous sediment should retain a hydraulic echo after a pressure pulse reflects from a trapped gas layer.","prediction":"A porous sediment should retain a hydraulic echo after a pressure pulse reflects from a trapped gas layer.","test":"Measure pressure at multiple locations.","contrary":"Response matches diffusion without a reflected component.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0742","prediction":"A porous sediment should retain a hydraulic echo after a pressure pulse reflects from a trapped gas layer.","feasible_test":"Measure pressure at multiple locations.","contrary_outcome":"Response matches diffusion without a reflected component.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0743","id":"S5-0743","volume":"900v5","title":"A reactive grain packing should remain mechanically stable after partial dissolution because grains rotate into new load-bearing contacts.","prediction":"A reactive grain packing should remain mechanically stable after partial dissolution because grains rotate into new load-bearing contacts.","test":"Map rotations and forces.","contrary":"Stability is unchanged when rotations are prevented equally.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0743","prediction":"A reactive grain packing should remain mechanically stable after partial dissolution because grains rotate into new load-bearing contacts.","feasible_test":"Map rotations and forces.","contrary_outcome":"Stability is unchanged when rotations are prevented equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0744","id":"S5-0744","volume":"900v5","title":"A mineral crust should become selectively permeable to vapor when thermal contraction closes liquid-carrying cracks.","prediction":"A mineral crust should become selectively permeable to vapor when thermal contraction closes liquid-carrying cracks.","test":"Measure cracks and both fluxes.","contrary":"Vapor and liquid flux decline proportionally.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0744","prediction":"A mineral crust should become selectively permeable to vapor when thermal contraction closes liquid-carrying cracks.","feasible_test":"Measure cracks and both fluxes.","contrary_outcome":"Vapor and liquid flux decline proportionally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0745","id":"S5-0745","volume":"900v5","title":"A clay-coated surface should delay freezing at its edges by drawing water into nanoconfined galleries.","prediction":"A clay-coated surface should delay freezing at its edges by drawing water into nanoconfined galleries.","test":"Map gallery water and ice onset.","contrary":"Delay disappears after temperature correction alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0745","prediction":"A clay-coated surface should delay freezing at its edges by drawing water into nanoconfined galleries.","feasible_test":"Map gallery water and ice onset.","contrary_outcome":"Delay disappears after temperature correction alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0746","id":"S5-0746","volume":"900v5","title":"A salt-bearing porous film should produce an optical warning before damage as internal crystals displace its scatterers.","prediction":"A salt-bearing porous film should produce an optical warning before damage as internal crystals displace its scatterers.","test":"Map crystals and scattering.","contrary":"Optical change begins only after visible cracking.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0746","prediction":"A salt-bearing porous film should produce an optical warning before damage as internal crystals displace its scatterers.","feasible_test":"Map crystals and scattering.","contrary_outcome":"Optical change begins only after visible cracking.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0747","id":"S5-0747","volume":"900v5","title":"A sediment layer should develop a transient low-friction plane when gas expansion lifts fines from grain contacts.","prediction":"A sediment layer should develop a transient low-friction plane when gas expansion lifts fines from grain contacts.","test":"Measure gas and shear strength.","contrary":"Weakening requires full fluidization.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0747","prediction":"A sediment layer should develop a transient low-friction plane when gas expansion lifts fines from grain contacts.","feasible_test":"Measure gas and shear strength.","contrary_outcome":"Weakening requires full fluidization.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0748","id":"S5-0748","volume":"900v5","title":"A mineral foam should buffer pressure fluctuations by reversible dissolution of its thinnest walls.","prediction":"A mineral foam should buffer pressure fluctuations by reversible dissolution of its thinnest walls.","test":"Measure wall mass and pressure.","contrary":"Buffering persists in chemically inert controls equally.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0748","prediction":"A mineral foam should buffer pressure fluctuations by reversible dissolution of its thinnest walls.","feasible_test":"Measure wall mass and pressure.","contrary_outcome":"Buffering persists in chemically inert controls equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0749","id":"S5-0749","volume":"900v5","title":"A carbonate particle should retain a rotation history as asymmetric adsorbate coverage created during flow.","prediction":"A carbonate particle should retain a rotation history as asymmetric adsorbate coverage created during flow.","test":"Map coverage after reversed rotations.","contrary":"Coverage depends only on final orientation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0749","prediction":"A carbonate particle should retain a rotation history as asymmetric adsorbate coverage created during flow.","feasible_test":"Map coverage after reversed rotations.","contrary_outcome":"Coverage depends only on final orientation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0750","id":"S5-0750","volume":"900v5","title":"A porous mineral membrane should reject a colloid pulse more strongly after a clean-water pause restores swollen pore edges.","prediction":"A porous mineral membrane should reject a colloid pulse more strongly after a clean-water pause restores swollen pore edges.","test":"Measure edges and breakthrough.","contrary":"Pause has no effect after concentration matching.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0750","prediction":"A porous mineral membrane should reject a colloid pulse more strongly after a clean-water pause restores swollen pore edges.","feasible_test":"Measure edges and breakthrough.","contrary_outcome":"Pause has no effect after concentration matching.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0751","id":"S5-0751","volume":"900v5","title":"A cell-free lipid network should route a pressure signal around a blocked junction through changes in membrane tension.","prediction":"A cell-free lipid network should route a pressure signal around a blocked junction through changes in membrane tension.","test":"Measure junction tensions and flow.","contrary":"Signal routing follows fixed hydraulic resistance only.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0751","prediction":"A cell-free lipid network should route a pressure signal around a blocked junction through changes in membrane tension.","feasible_test":"Measure junction tensions and flow.","contrary_outcome":"Signal routing follows fixed hydraulic resistance only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0752","id":"S5-0752","volume":"900v5","title":"A reconstituted filament should pause polymerization after its end contacts a soft wall because stored compression masks growth sites.","prediction":"A reconstituted filament should pause polymerization after its end contacts a soft wall because stored compression masks growth sites.","test":"Measure end structure and growth.","contrary":"Growth is unchanged at matched monomer concentration.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0752","prediction":"A reconstituted filament should pause polymerization after its end contacts a soft wall because stored compression masks growth sites.","feasible_test":"Measure end structure and growth.","contrary_outcome":"Growth is unchanged at matched monomer concentration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0753","id":"S5-0753","volume":"900v5","title":"A protein condensate should produce a solvent-rich shell during compression because its scaffold migrates inward.","prediction":"A protein condensate should produce a solvent-rich shell during compression because its scaffold migrates inward.","test":"Map scaffold and solvent.","contrary":"Compression remains compositionally uniform.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0753","prediction":"A protein condensate should produce a solvent-rich shell during compression because its scaffold migrates inward.","feasible_test":"Map scaffold and solvent.","contrary_outcome":"Compression remains compositionally uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0754","id":"S5-0754","volume":"900v5","title":"A synthetic vesicle should maintain unequal daughter sizes after budding if its internal gel resists neck equilibration.","prediction":"A synthetic vesicle should maintain unequal daughter sizes after budding if its internal gel resists neck equilibration.","test":"Measure gel and bud volumes.","contrary":"Daughter volumes equilibrate before separation.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0754","prediction":"A synthetic vesicle should maintain unequal daughter sizes after budding if its internal gel resists neck equilibration.","feasible_test":"Measure gel and bud volumes.","contrary_outcome":"Daughter volumes equilibrate before separation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0755","id":"S5-0755","volume":"900v5","title":"A molecular motor should reverse cargo rotation when its flexible anchor crosses a geometric singularity.","prediction":"A molecular motor should reverse cargo rotation when its flexible anchor crosses a geometric singularity.","test":"Measure anchor conformation and cargo torque.","contrary":"Torque sign remains unchanged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0755","prediction":"A molecular motor should reverse cargo rotation when its flexible anchor crosses a geometric singularity.","feasible_test":"Measure anchor conformation and cargo torque.","contrary_outcome":"Torque sign remains unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0756","id":"S5-0756","volume":"900v5","title":"A DNA hydrogel should admit a protein pulse preferentially along temporarily stretched strands.","prediction":"A DNA hydrogel should admit a protein pulse preferentially along temporarily stretched strands.","test":"Measure local strain and entry.","contrary":"Entry follows static pore size only.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0756","prediction":"A DNA hydrogel should admit a protein pulse preferentially along temporarily stretched strands.","feasible_test":"Measure local strain and entry.","contrary_outcome":"Entry follows static pore size only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0757","id":"S5-0757","volume":"900v5","title":"A membrane scaffold should suppress fusion by carrying tension around the contact region.","prediction":"A membrane scaffold should suppress fusion by carrying tension around the contact region.","test":"Map scaffold forces and fusion.","contrary":"Suppression persists without a connected scaffold equally.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0757","prediction":"A membrane scaffold should suppress fusion by carrying tension around the contact region.","feasible_test":"Map scaffold forces and fusion.","contrary_outcome":"Suppression persists without a connected scaffold equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0758","id":"S5-0758","volume":"900v5","title":"A peptide sheet should retain a fold after partial dissolution removes its highest-strain molecules.","prediction":"A peptide sheet should retain a fold after partial dissolution removes its highest-strain molecules.","test":"Measure loss and fold curvature.","contrary":"Fold recovers despite selective loss.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0758","prediction":"A peptide sheet should retain a fold after partial dissolution removes its highest-strain molecules.","feasible_test":"Measure loss and fold curvature.","contrary_outcome":"Fold recovers despite selective loss.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0759","id":"S5-0759","volume":"900v5","title":"A coacervate should concentrate an enzyme at its moving interface when substrate binding changes the enzyme's partition preference.","prediction":"A coacervate should concentrate an enzyme at its moving interface when substrate binding changes the enzyme's partition preference.","test":"Map occupancy and enzyme position.","contrary":"Enzyme distribution remains substrate-independent.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0759","prediction":"A coacervate should concentrate an enzyme at its moving interface when substrate binding changes the enzyme's partition preference.","feasible_test":"Map occupancy and enzyme position.","contrary_outcome":"Enzyme distribution remains substrate-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0760","id":"S5-0760","volume":"900v5","title":"A cell-free reaction should display two-step recovery after inhibition because free and scaffold-bound catalysts reactivate separately.","prediction":"A cell-free reaction should display two-step recovery after inhibition because free and scaffold-bound catalysts reactivate separately.","test":"Measure both catalyst pools and output.","contrary":"Recovery is single-stage despite distinct pools.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0760","prediction":"A cell-free reaction should display two-step recovery after inhibition because free and scaffold-bound catalysts reactivate separately.","feasible_test":"Measure both catalyst pools and output.","contrary_outcome":"Recovery is single-stage despite distinct pools.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0761","id":"S5-0761","volume":"900v5","title":"A lipid tube should conduct a mechanical pulse faster after osmotic swelling aligns its internal polymer bundles.","prediction":"A lipid tube should conduct a mechanical pulse faster after osmotic swelling aligns its internal polymer bundles.","test":"Measure alignment and propagation.","contrary":"Speed follows tube radius alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0761","prediction":"A lipid tube should conduct a mechanical pulse faster after osmotic swelling aligns its internal polymer bundles.","feasible_test":"Measure alignment and propagation.","contrary_outcome":"Speed follows tube radius alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0762","id":"S5-0762","volume":"900v5","title":"A protein cage should protect an enclosed reaction against a short pH pulse by delaying proton transport at its charged seams.","prediction":"A protein cage should protect an enclosed reaction against a short pH pulse by delaying proton transport at its charged seams.","test":"Measure internal pH and activity.","contrary":"Protection follows bulk buffering alone.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0762","prediction":"A protein cage should protect an enclosed reaction against a short pH pulse by delaying proton transport at its charged seams.","feasible_test":"Measure internal pH and activity.","contrary_outcome":"Protection follows bulk buffering alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0763","id":"S5-0763","volume":"900v5","title":"A synthetic membrane should retain a local leak after strain recovery when a protein cluster pins its pore rim.","prediction":"A synthetic membrane should retain a local leak after strain recovery when a protein cluster pins its pore rim.","test":"Map cluster and leakage.","contrary":"Leak closes despite retained cluster.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0763","prediction":"A synthetic membrane should retain a local leak after strain recovery when a protein cluster pins its pore rim.","feasible_test":"Map cluster and leakage.","contrary_outcome":"Leak closes despite retained cluster.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0764","id":"S5-0764","volume":"900v5","title":"A DNA ribbon should nucleate a new branch at a mechanical twist defect.","prediction":"A DNA ribbon should nucleate a new branch at a mechanical twist defect.","test":"Map twist and assembly sites.","contrary":"Branching is defect-independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0764","prediction":"A DNA ribbon should nucleate a new branch at a mechanical twist defect.","feasible_test":"Map twist and assembly sites.","contrary_outcome":"Branching is defect-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0765","id":"S5-0765","volume":"900v5","title":"A condensate-coated fiber should transport cargo by a moving wetting ridge even when the fiber itself remains still.","prediction":"A condensate-coated fiber should transport cargo by a moving wetting ridge even when the fiber itself remains still.","test":"Track ridge and cargo.","contrary":"Cargo follows bulk liquid flow only.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0765","prediction":"A condensate-coated fiber should transport cargo by a moving wetting ridge even when the fiber itself remains still.","feasible_test":"Track ridge and cargo.","contrary_outcome":"Cargo follows bulk liquid flow only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0766","id":"S5-0766","volume":"900v5","title":"A cell-free enzyme film should resist drying damage when neighboring condensates supply water preferentially to its active sites.","prediction":"A cell-free enzyme film should resist drying damage when neighboring condensates supply water preferentially to its active sites.","test":"Map water and activity.","contrary":"Protection follows total water alone.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0766","prediction":"A cell-free enzyme film should resist drying damage when neighboring condensates supply water preferentially to its active sites.","feasible_test":"Map water and activity.","contrary_outcome":"Protection follows total water alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0767","id":"S5-0767","volume":"900v5","title":"A membrane protein should diffuse directionally after a tension pulse because its deformation field relaxes asymmetrically.","prediction":"A membrane protein should diffuse directionally after a tension pulse because its deformation field relaxes asymmetrically.","test":"Measure local strain and trajectories.","contrary":"Motion remains unbiased after flow correction.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0767","prediction":"A membrane protein should diffuse directionally after a tension pulse because its deformation field relaxes asymmetrically.","feasible_test":"Measure local strain and trajectories.","contrary_outcome":"Motion remains unbiased after flow correction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0768","id":"S5-0768","volume":"900v5","title":"A reconstituted bundle should stiffen transiently after severing releases a compressive preload.","prediction":"A reconstituted bundle should stiffen transiently after severing releases a compressive preload.","test":"Measure force and bending rigidity.","contrary":"Severing only softens the bundle.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0768","prediction":"A reconstituted bundle should stiffen transiently after severing releases a compressive preload.","feasible_test":"Measure force and bending rigidity.","contrary_outcome":"Severing only softens the bundle.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0769","id":"S5-0769","volume":"900v5","title":"A synthetic vesicle should exchange lipids more rapidly through a contact patch after local cooling creates excess membrane area.","prediction":"A synthetic vesicle should exchange lipids more rapidly through a contact patch after local cooling creates excess membrane area.","test":"Map area and lipid transfer.","contrary":"Transfer follows temperature-dependent diffusion alone.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0769","prediction":"A synthetic vesicle should exchange lipids more rapidly through a contact patch after local cooling creates excess membrane area.","feasible_test":"Map area and lipid transfer.","contrary_outcome":"Transfer follows temperature-dependent diffusion alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0770","id":"S5-0770","volume":"900v5","title":"A molecular assembly should trap a guest during a closing wave even when equilibrium affinity is weak.","prediction":"A molecular assembly should trap a guest during a closing wave even when equilibrium affinity is weak.","test":"Measure closure speed and retention.","contrary":"Retention follows equilibrium partitioning only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0770","prediction":"A molecular assembly should trap a guest during a closing wave even when equilibrium affinity is weak.","feasible_test":"Measure closure speed and retention.","contrary_outcome":"Retention follows equilibrium partitioning only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0771","id":"S5-0771","volume":"900v5","title":"A protein gel should show a spatially advancing recovery front after an osmotic shock because collapsed regions reopen cooperatively.","prediction":"A protein gel should show a spatially advancing recovery front after an osmotic shock because collapsed regions reopen cooperatively.","test":"Map structure and modulus.","contrary":"Recovery is spatially uniform.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0771","prediction":"A protein gel should show a spatially advancing recovery front after an osmotic shock because collapsed regions reopen cooperatively.","feasible_test":"Map structure and modulus.","contrary_outcome":"Recovery is spatially uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0772","id":"S5-0772","volume":"900v5","title":"A cell-free oscillator should transmit its phase through a mechanically pulsating membrane without exchanging its active chemical species.","prediction":"A cell-free oscillator should transmit its phase through a mechanically pulsating membrane without exchanging its active chemical species.","test":"Measure permeability and phase coupling.","contrary":"Coupling disappears when chemical exchange is eliminated.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0772","prediction":"A cell-free oscillator should transmit its phase through a mechanically pulsating membrane without exchanging its active chemical species.","feasible_test":"Measure permeability and phase coupling.","contrary_outcome":"Coupling disappears when chemical exchange is eliminated.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0773","id":"S5-0773","volume":"900v5","title":"A lipid monolayer should preserve an adsorption event as a topological domain loop.","prediction":"A lipid monolayer should preserve an adsorption event as a topological domain loop.","test":"Image domains after washout.","contrary":"Loops vanish with adsorbate removal.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0773","prediction":"A lipid monolayer should preserve an adsorption event as a topological domain loop.","feasible_test":"Image domains after washout.","contrary_outcome":"Loops vanish with adsorbate removal.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0774","id":"S5-0774","volume":"900v5","title":"A DNA cage should release different cargo sizes in a temporal sequence as a traveling bond-exchange front opens its faces.","prediction":"A DNA cage should release different cargo sizes in a temporal sequence as a traveling bond-exchange front opens its faces.","test":"Image fronts and escape.","contrary":"Release order follows diffusivity alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0774","prediction":"A DNA cage should release different cargo sizes in a temporal sequence as a traveling bond-exchange front opens its faces.","feasible_test":"Image fronts and escape.","contrary_outcome":"Release order follows diffusivity alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0775","id":"S5-0775","volume":"900v5","title":"A coacervate shell should rupture at the contact point with an inert particle because wetting drains its scaffold locally.","prediction":"A coacervate shell should rupture at the contact point with an inert particle because wetting drains its scaffold locally.","test":"Map scaffold and rupture.","contrary":"Rupture sites are particle-independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0775","prediction":"A coacervate shell should rupture at the contact point with an inert particle because wetting drains its scaffold locally.","feasible_test":"Map scaffold and rupture.","contrary_outcome":"Rupture sites are particle-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0776","id":"S5-0776","volume":"900v5","title":"A filament network should stabilize a membrane pore by transferring rim tension into distant crosslinks.","prediction":"A filament network should stabilize a membrane pore by transferring rim tension into distant crosslinks.","test":"Measure network force and pore lifetime.","contrary":"Lifetime is unchanged after network severing.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0776","prediction":"A filament network should stabilize a membrane pore by transferring rim tension into distant crosslinks.","feasible_test":"Measure network force and pore lifetime.","contrary_outcome":"Lifetime is unchanged after network severing.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0777","id":"S5-0777","volume":"900v5","title":"A synthetic droplet should retain an internal reaction gradient during stirring if a gel boundary pins its catalyst.","prediction":"A synthetic droplet should retain an internal reaction gradient during stirring if a gel boundary pins its catalyst.","test":"Measure catalyst and conversion.","contrary":"Stirring homogenizes the reaction immediately.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0777","prediction":"A synthetic droplet should retain an internal reaction gradient during stirring if a gel boundary pins its catalyst.","feasible_test":"Measure catalyst and conversion.","contrary_outcome":"Stirring homogenizes the reaction immediately.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0778","id":"S5-0778","volume":"900v5","title":"A protein film should become anisotropically permeable after an acoustic pulse rotates its internal fibrils.","prediction":"A protein film should become anisotropically permeable after an acoustic pulse rotates its internal fibrils.","test":"Map orientation and tracer flux.","contrary":"Permeability stays isotropic.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0778","prediction":"A protein film should become anisotropically permeable after an acoustic pulse rotates its internal fibrils.","feasible_test":"Map orientation and tracer flux.","contrary_outcome":"Permeability stays isotropic.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0779","id":"S5-0779","volume":"900v5","title":"A molecular spring should show an optical signal before mechanical rupture because its chromophores unstack at lower force.","prediction":"A molecular spring should show an optical signal before mechanical rupture because its chromophores unstack at lower force.","test":"Measure force and spectrum.","contrary":"Signal begins only after rupture.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0779","prediction":"A molecular spring should show an optical signal before mechanical rupture because its chromophores unstack at lower force.","feasible_test":"Measure force and spectrum.","contrary_outcome":"Signal begins only after rupture.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0780","id":"S5-0780","volume":"900v5","title":"A membrane-coated catalyst should self-throttle when product accumulation raises membrane tension and reduces pore opening.","prediction":"A membrane-coated catalyst should self-throttle when product accumulation raises membrane tension and reduces pore opening.","test":"Measure product, tension and flux.","contrary":"Turnover is tension-independent.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0780","prediction":"A membrane-coated catalyst should self-throttle when product accumulation raises membrane tension and reduces pore opening.","feasible_test":"Measure product, tension and flux.","contrary_outcome":"Turnover is tension-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0781","id":"S5-0781","volume":"900v5","title":"A flexible separator should distinguish particles by rebound time after a brief elastic collision.","prediction":"A flexible separator should distinguish particles by rebound time after a brief elastic collision.","test":"Measure trajectories and independent mechanical response.","contrary":"Sorting follows density alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0781","prediction":"A flexible separator should distinguish particles by rebound time after a brief elastic collision.","feasible_test":"Measure trajectories and independent mechanical response.","contrary_outcome":"Sorting follows density alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0782","id":"S5-0782","volume":"900v5","title":"A capillary network should compensate a damaged branch by opening a normally pinned bypass.","prediction":"A capillary network should compensate a damaged branch by opening a normally pinned bypass.","test":"Measure pressure and menisci.","contrary":"Bypass remains closed after damage.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0782","prediction":"A capillary network should compensate a damaged branch by opening a normally pinned bypass.","feasible_test":"Measure pressure and menisci.","contrary_outcome":"Bypass remains closed after damage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0783","id":"S5-0783","volume":"900v5","title":"A passive valve should reject short pressure spikes when a trapped liquid must drain before its hinge can move.","prediction":"A passive valve should reject short pressure spikes when a trapped liquid must drain before its hinge can move.","test":"Measure drainage and opening.","contrary":"Opening depends only on peak pressure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0783","prediction":"A passive valve should reject short pressure spikes when a trapped liquid must drain before its hinge can move.","feasible_test":"Measure drainage and opening.","contrary_outcome":"Opening depends only on peak pressure.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0784","id":"S5-0784","volume":"900v5","title":"A porous actuator should recover direction after twisting because stored liquid preferentially refills its original channels.","prediction":"A porous actuator should recover direction after twisting because stored liquid preferentially refills its original channels.","test":"Map liquid and shape.","contrary":"Recovery is channel-history independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0784","prediction":"A porous actuator should recover direction after twisting because stored liquid preferentially refills its original channels.","feasible_test":"Map liquid and shape.","contrary_outcome":"Recovery is channel-history independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0785","id":"S5-0785","volume":"900v5","title":"A soft optical shutter should close in response to cumulative vibration through migration of a liquid plug.","prediction":"A soft optical shutter should close in response to cumulative vibration through migration of a liquid plug.","test":"Measure plug and vibration dose.","contrary":"State depends only on maximum acceleration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0785","prediction":"A soft optical shutter should close in response to cumulative vibration through migration of a liquid plug.","feasible_test":"Measure plug and vibration dose.","contrary_outcome":"State depends only on maximum acceleration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0786","id":"S5-0786","volume":"900v5","title":"A granular heat exchanger should self-clear blockage when thermal expansion breaks weak particle arches.","prediction":"A granular heat exchanger should self-clear blockage when thermal expansion breaks weak particle arches.","test":"Image arches and flow.","contrary":"Clearing occurs without arch failure.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0786","prediction":"A granular heat exchanger should self-clear blockage when thermal expansion breaks weak particle arches.","feasible_test":"Image arches and flow.","contrary_outcome":"Clearing occurs without arch failure.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0787","id":"S5-0787","volume":"900v5","title":"A microfluidic dispenser should maintain dose after orientation changes by switching which capillary reservoir feeds its outlet.","prediction":"A microfluidic dispenser should maintain dose after orientation changes by switching which capillary reservoir feeds its outlet.","test":"Image supply paths and dose.","contrary":"Dose follows hydrostatic head.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0787","prediction":"A microfluidic dispenser should maintain dose after orientation changes by switching which capillary reservoir feeds its outlet.","feasible_test":"Image supply paths and dose.","contrary_outcome":"Dose follows hydrostatic head.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0788","id":"S5-0788","volume":"900v5","title":"A compliant gas filter should protect itself from liquid flooding by buckling to reduce exposed pore area.","prediction":"A compliant gas filter should protect itself from liquid flooding by buckling to reduce exposed pore area.","test":"Measure shape and liquid entry.","contrary":"Flooding threshold is unchanged when buckling is prevented.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0788","prediction":"A compliant gas filter should protect itself from liquid flooding by buckling to reduce exposed pore area.","feasible_test":"Measure shape and liquid entry.","contrary_outcome":"Flooding threshold is unchanged when buckling is prevented.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0789","id":"S5-0789","volume":"900v5","title":"A porous gripper should increase holding force after a brief pressure release resets its wetting perimeter.","prediction":"A porous gripper should increase holding force after a brief pressure release resets its wetting perimeter.","test":"Measure perimeter and force.","contrary":"Release only weakens grip.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0789","prediction":"A porous gripper should increase holding force after a brief pressure release resets its wetting perimeter.","feasible_test":"Measure perimeter and force.","contrary_outcome":"Release only weakens grip.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0790","id":"S5-0790","volume":"900v5","title":"A fluidic switch should encode input order through two menisci whose pinning operations do not commute.","prediction":"A fluidic switch should encode input order through two menisci whose pinning operations do not commute.","test":"Apply reversed pulse sequences.","contrary":"Final state is order-independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0790","prediction":"A fluidic switch should encode input order through two menisci whose pinning operations do not commute.","feasible_test":"Apply reversed pulse sequences.","contrary_outcome":"Final state is order-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0791","id":"S5-0791","volume":"900v5","title":"A flexible solar absorber should retain efficiency after puncture because capillary flow reroutes around its dry region.","prediction":"A flexible solar absorber should retain efficiency after puncture because capillary flow reroutes around its dry region.","test":"Map water and temperature.","contrary":"Puncture causes global dryout.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0791","prediction":"A flexible solar absorber should retain efficiency after puncture because capillary flow reroutes around its dry region.","feasible_test":"Map water and temperature.","contrary_outcome":"Puncture causes global dryout.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0792","id":"S5-0792","volume":"900v5","title":"A capillary conveyor should transport objects without sliding contact by alternating liquid-bridge attachment points.","prediction":"A capillary conveyor should transport objects without sliding contact by alternating liquid-bridge attachment points.","test":"Track bridges and objects.","contrary":"Objects require solid sliding to move.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0792","prediction":"A capillary conveyor should transport objects without sliding contact by alternating liquid-bridge attachment points.","feasible_test":"Track bridges and objects.","contrary_outcome":"Objects require solid sliding to move.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0793","id":"S5-0793","volume":"900v5","title":"A thermal seal should reopen after overheating when a reversible hydrate supplies vapor to its hinge.","prediction":"A thermal seal should reopen after overheating when a reversible hydrate supplies vapor to its hinge.","test":"Measure phase, pressure and opening.","contrary":"Opening persists without hydrate conversion equally.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0793","prediction":"A thermal seal should reopen after overheating when a reversible hydrate supplies vapor to its hinge.","feasible_test":"Measure phase, pressure and opening.","contrary_outcome":"Opening persists without hydrate conversion equally.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0794","id":"S5-0794","volume":"900v5","title":"A soft particle trap should sort cargo by the number of contacts needed to trigger its buckling gate.","prediction":"A soft particle trap should sort cargo by the number of contacts needed to trigger its buckling gate.","test":"Measure forces and passage.","contrary":"Sorting follows size alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0794","prediction":"A soft particle trap should sort cargo by the number of contacts needed to trigger its buckling gate.","feasible_test":"Measure forces and passage.","contrary_outcome":"Sorting follows size alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0795","id":"S5-0795","volume":"900v5","title":"A passive sampler should retain separate records of peak concentration and exposure duration in two coupled binding domains.","prediction":"A passive sampler should retain separate records of peak concentration and exposure duration in two coupled binding domains.","test":"Apply calibrated histories.","contrary":"Readouts remain degenerate.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0795","prediction":"A passive sampler should retain separate records of peak concentration and exposure duration in two coupled binding domains.","feasible_test":"Apply calibrated histories.","contrary_outcome":"Readouts remain degenerate.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0796","id":"S5-0796","volume":"900v5","title":"A porous battery analogue should prevent local dryout through swelling-driven redistribution of electrolyte.","prediction":"A porous battery analogue should prevent local dryout through swelling-driven redistribution of electrolyte.","test":"Map swelling and liquid.","contrary":"Dryout protection follows total electrolyte volume only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0796","prediction":"A porous battery analogue should prevent local dryout through swelling-driven redistribution of electrolyte.","feasible_test":"Map swelling and liquid.","contrary_outcome":"Dryout protection follows total electrolyte volume only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0797","id":"S5-0797","volume":"900v5","title":"A compliant air vent should reject water while admitting gas after pressure rotates its reentrant pore edges.","prediction":"A compliant air vent should reject water while admitting gas after pressure rotates its reentrant pore edges.","test":"Measure edge motion and phase flux.","contrary":"Selectivity is unchanged with edges fixed.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0797","prediction":"A compliant air vent should reject water while admitting gas after pressure rotates its reentrant pore edges.","feasible_test":"Measure edge motion and phase flux.","contrary_outcome":"Selectivity is unchanged with edges fixed.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0798","id":"S5-0798","volume":"900v5","title":"A fluidic timer should reset faster when unloading opens a separate return pathway.","prediction":"A fluidic timer should reset faster when unloading opens a separate return pathway.","test":"Image pathway and timing.","contrary":"Reset time equals forward timing despite pathway opening.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0798","prediction":"A fluidic timer should reset faster when unloading opens a separate return pathway.","feasible_test":"Image pathway and timing.","contrary_outcome":"Reset time equals forward timing despite pathway opening.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0799","id":"S5-0799","volume":"900v5","title":"A flexible screen should remove deposited crystals by reversing its curvature while leaving captured noncrystalline particles attached.","prediction":"A flexible screen should remove deposited crystals by reversing its curvature while leaving captured noncrystalline particles attached.","test":"Measure deposit type and release.","contrary":"Release follows adhesion strength without crystal specificity.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0799","prediction":"A flexible screen should remove deposited crystals by reversing its curvature while leaving captured noncrystalline particles attached.","feasible_test":"Measure deposit type and release.","contrary_outcome":"Release follows adhesion strength without crystal specificity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0800","id":"S5-0800","volume":"900v5","title":"A capillary bearing should stabilize rotation through a liquid rim that recenters under lateral load.","prediction":"A capillary bearing should stabilize rotation through a liquid rim that recenters under lateral load.","test":"Measure rim and rotor displacement.","contrary":"Centering is rim-motion independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0800","prediction":"A capillary bearing should stabilize rotation through a liquid rim that recenters under lateral load.","feasible_test":"Measure rim and rotor displacement.","contrary_outcome":"Centering is rim-motion independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0801","id":"S5-0801","volume":"900v5","title":"A soft thermal latch should distinguish slow overheating from a short hot pulse through solvent redistribution between chambers.","prediction":"A soft thermal latch should distinguish slow overheating from a short hot pulse through solvent redistribution between chambers.","test":"Measure liquid and final state.","contrary":"State depends only on peak temperature.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0801","prediction":"A soft thermal latch should distinguish slow overheating from a short hot pulse through solvent redistribution between chambers.","feasible_test":"Measure liquid and final state.","contrary_outcome":"State depends only on peak temperature.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0802","id":"S5-0802","volume":"900v5","title":"A mechanical pressure logger should preserve waveform asymmetry in the ratio of two metastable buckle populations.","prediction":"A mechanical pressure logger should preserve waveform asymmetry in the ratio of two metastable buckle populations.","test":"Apply known waveforms.","contrary":"Population ratios depend only on energy.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0802","prediction":"A mechanical pressure logger should preserve waveform asymmetry in the ratio of two metastable buckle populations.","feasible_test":"Apply known waveforms.","contrary_outcome":"Population ratios depend only on energy.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0803","id":"S5-0803","volume":"900v5","title":"A porous mixing element should improve homogenization when periodic swelling reverses its internal flow topology.","prediction":"A porous mixing element should improve homogenization when periodic swelling reverses its internal flow topology.","test":"Measure flow maps and concentration.","contrary":"Mixing follows added diffusion time only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0803","prediction":"A porous mixing element should improve homogenization when periodic swelling reverses its internal flow topology.","feasible_test":"Measure flow maps and concentration.","contrary_outcome":"Mixing follows added diffusion time only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0804","id":"S5-0804","volume":"900v5","title":"A droplet sorter should identify internal gelation through altered collision rebound while preserving the droplet boundary.","prediction":"A droplet sorter should identify internal gelation through altered collision rebound while preserving the droplet boundary.","test":"Measure gel state and rebound.","contrary":"Classification fails size-matched blinded tests.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0804","prediction":"A droplet sorter should identify internal gelation through altered collision rebound while preserving the droplet boundary.","feasible_test":"Measure gel state and rebound.","contrary_outcome":"Classification fails size-matched blinded tests.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0805","id":"S5-0805","volume":"900v5","title":"A flexible acoustic alarm should activate when a creeping joint reaches a geometrical threshold that opens a whistle channel.","prediction":"A flexible acoustic alarm should activate when a creeping joint reaches a geometrical threshold that opens a whistle channel.","test":"Measure creep and sound.","contrary":"Sound is unrelated to joint displacement.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0805","prediction":"A flexible acoustic alarm should activate when a creeping joint reaches a geometrical threshold that opens a whistle channel.","feasible_test":"Measure creep and sound.","contrary_outcome":"Sound is unrelated to joint displacement.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0806","id":"S5-0806","volume":"900v5","title":"A capillary energy store should release a controlled impulse when a small trigger connects two liquid reservoirs.","prediction":"A capillary energy store should release a controlled impulse when a small trigger connects two liquid reservoirs.","test":"Measure connection and work output.","contrary":"Output varies unpredictably across matched reservoirs.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0806","prediction":"A capillary energy store should release a controlled impulse when a small trigger connects two liquid reservoirs.","feasible_test":"Measure connection and work output.","contrary_outcome":"Output varies unpredictably across matched reservoirs.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0807","id":"S5-0807","volume":"900v5","title":"A porous vapor valve should shut when its internal condensation front reaches a mechanically sensitive hinge.","prediction":"A porous vapor valve should shut when its internal condensation front reaches a mechanically sensitive hinge.","test":"Map front and leakage.","contrary":"Closure follows bulk humidity without front-position dependence.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0807","prediction":"A porous vapor valve should shut when its internal condensation front reaches a mechanically sensitive hinge.","feasible_test":"Map front and leakage.","contrary_outcome":"Closure follows bulk humidity without front-position dependence.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0808","id":"S5-0808","volume":"900v5","title":"A self-folding collector should concentrate floating particles at its center through sequential inward wetting.","prediction":"A self-folding collector should concentrate floating particles at its center through sequential inward wetting.","test":"Track wetting and particles.","contrary":"Collection follows random drift only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0808","prediction":"A self-folding collector should concentrate floating particles at its center through sequential inward wetting.","feasible_test":"Track wetting and particles.","contrary_outcome":"Collection follows random drift only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0809","id":"S5-0809","volume":"900v5","title":"A soft conductor should preserve a damage record after repair through a changed impedance phase even when resistance recovers.","prediction":"A soft conductor should preserve a damage record after repair through a changed impedance phase even when resistance recovers.","test":"Measure repaired topology and spectra.","contrary":"All electrical signatures return to baseline.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0809","prediction":"A soft conductor should preserve a damage record after repair through a changed impedance phase even when resistance recovers.","feasible_test":"Measure repaired topology and spectra.","contrary_outcome":"All electrical signatures return to baseline.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0810","id":"S5-0810","volume":"900v5","title":"A capillary mechanical logic element should distinguish simultaneous from sequential pressure inputs through a shared deformable meniscus.","prediction":"A capillary mechanical logic element should distinguish simultaneous from sequential pressure inputs through a shared deformable meniscus.","test":"Apply timed inputs and read state.","contrary":"Output depends only on total pressure dose.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0810","prediction":"A capillary mechanical logic element should distinguish simultaneous from sequential pressure inputs through a shared deformable meniscus.","feasible_test":"Apply timed inputs and read state.","contrary_outcome":"Output depends only on total pressure dose.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0811","id":"S5-0811","volume":"900v5","title":"A liquid-filled pore should emit an acoustic doublet when freezing first seals and then pressurizes its entrance.","prediction":"A liquid-filled pore should emit an acoustic doublet when freezing first seals and then pressurizes its entrance.","test":"Measure ice position and sound.","contrary":"Events lack the predicted two-stage sequence.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0811","prediction":"A liquid-filled pore should emit an acoustic doublet when freezing first seals and then pressurizes its entrance.","feasible_test":"Measure ice position and sound.","contrary_outcome":"Events lack the predicted two-stage sequence.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0812","id":"S5-0812","volume":"900v5","title":"A soft mineral membrane should transmit a solute pulse more sharply after a reversible wrinkle reduces stagnant volume.","prediction":"A soft mineral membrane should transmit a solute pulse more sharply after a reversible wrinkle reduces stagnant volume.","test":"Map wrinkles and residence times.","contrary":"Sharpening follows average flow rate alone.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0812","prediction":"A soft mineral membrane should transmit a solute pulse more sharply after a reversible wrinkle reduces stagnant volume.","feasible_test":"Map wrinkles and residence times.","contrary_outcome":"Sharpening follows average flow rate alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0813","id":"S5-0813","volume":"900v5","title":"A porous particle should retain a shell-core temperature difference longer when a liquid layer disconnects its solid contacts.","prediction":"A porous particle should retain a shell-core temperature difference longer when a liquid layer disconnects its solid contacts.","test":"Measure internal temperature and topology.","contrary":"Thermal relaxation follows total liquid fraction only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0813","prediction":"A porous particle should retain a shell-core temperature difference longer when a liquid layer disconnects its solid contacts.","feasible_test":"Measure internal temperature and topology.","contrary_outcome":"Thermal relaxation follows total liquid fraction only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0814","id":"S5-0814","volume":"900v5","title":"A colloidal chain should migrate along a liquid interface through a traveling bend generated by unequal adsorption delays.","prediction":"A colloidal chain should migrate along a liquid interface through a traveling bend generated by unequal adsorption delays.","test":"Measure adsorption and shape.","contrary":"Translation vanishes despite traveling bends.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0814","prediction":"A colloidal chain should migrate along a liquid interface through a traveling bend generated by unequal adsorption delays.","feasible_test":"Measure adsorption and shape.","contrary_outcome":"Translation vanishes despite traveling bends.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0815","id":"S5-0815","volume":"900v5","title":"A gas pocket should leave a persistent electric trace after its passage rearranges charged pore-wall polymers.","prediction":"A gas pocket should leave a persistent electric trace after its passage rearranges charged pore-wall polymers.","test":"Map polymers and potential.","contrary":"Potential resets immediately.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0815","prediction":"A gas pocket should leave a persistent electric trace after its passage rearranges charged pore-wall polymers.","feasible_test":"Map polymers and potential.","contrary_outcome":"Potential resets immediately.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0816","id":"S5-0816","volume":"900v5","title":"A confined reaction should produce a mechanical recoil when a precipitate bridge dissolves under stored load.","prediction":"A confined reaction should produce a mechanical recoil when a precipitate bridge dissolves under stored load.","test":"Measure bridge mass and recoil.","contrary":"Recoil requires external impulse.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0816","prediction":"A confined reaction should produce a mechanical recoil when a precipitate bridge dissolves under stored load.","feasible_test":"Measure bridge mass and recoil.","contrary_outcome":"Recoil requires external impulse.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0817","id":"S5-0817","volume":"900v5","title":"A porous film should sustain a localized cold spot after a water pulse because its smallest pores remain hydraulically connected.","prediction":"A porous film should sustain a localized cold spot after a water pulse because its smallest pores remain hydraulically connected.","test":"Map pore water and temperature.","contrary":"Cooling follows total retained water only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0817","prediction":"A porous film should sustain a localized cold spot after a water pulse because its smallest pores remain hydraulically connected.","feasible_test":"Map pore water and temperature.","contrary_outcome":"Cooling follows total retained water only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0818","id":"S5-0818","volume":"900v5","title":"A charged particle raft should separate into domains during drying because ion release changes edge attraction first.","prediction":"A charged particle raft should separate into domains during drying because ion release changes edge attraction first.","test":"Map ions and domains.","contrary":"Domain formation is edge-independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0818","prediction":"A charged particle raft should separate into domains during drying because ion release changes edge attraction first.","feasible_test":"Map ions and domains.","contrary_outcome":"Domain formation is edge-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0819","id":"S5-0819","volume":"900v5","title":"A flexible cavity should amplify a small gas-generation event into a readable snap without sustained pressure buildup.","prediction":"A flexible cavity should amplify a small gas-generation event into a readable snap without sustained pressure buildup.","test":"Measure gas and displacement.","contrary":"Snap requires a large static pressure increase.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0819","prediction":"A flexible cavity should amplify a small gas-generation event into a readable snap without sustained pressure buildup.","feasible_test":"Measure gas and displacement.","contrary_outcome":"Snap requires a large static pressure increase.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0820","id":"S5-0820","volume":"900v5","title":"A liquid-coated porous fiber should retain a contaminant gradient after flushing because coating thickness varies with curvature.","prediction":"A liquid-coated porous fiber should retain a contaminant gradient after flushing because coating thickness varies with curvature.","test":"Map coating and contaminant.","contrary":"Retention follows surface chemistry alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0820","prediction":"A liquid-coated porous fiber should retain a contaminant gradient after flushing because coating thickness varies with curvature.","feasible_test":"Map coating and contaminant.","contrary_outcome":"Retention follows surface chemistry alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0821","id":"S5-0821","volume":"900v5","title":"A mineral surface should develop a moving adhesion minimum when an ion-exchange front displaces bridging ions.","prediction":"A mineral surface should develop a moving adhesion minimum when an ion-exchange front displaces bridging ions.","test":"Measure ion state and force.","contrary":"Adhesion follows average concentration only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0821","prediction":"A mineral surface should develop a moving adhesion minimum when an ion-exchange front displaces bridging ions.","feasible_test":"Measure ion state and force.","contrary_outcome":"Adhesion follows average concentration only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0822","id":"S5-0822","volume":"900v5","title":"A synthetic membrane should suppress a pressure spike by opening transient molecular-scale free-volume paths.","prediction":"A synthetic membrane should suppress a pressure spike by opening transient molecular-scale free-volume paths.","test":"Measure permeability and pressure.","contrary":"Suppression requires macroscopic pores.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0822","prediction":"A synthetic membrane should suppress a pressure spike by opening transient molecular-scale free-volume paths.","feasible_test":"Measure permeability and pressure.","contrary_outcome":"Suppression requires macroscopic pores.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0823","id":"S5-0823","volume":"900v5","title":"A granular optical layer should retain a vibration-frequency signature through different contact rearrangement length scales.","prediction":"A granular optical layer should retain a vibration-frequency signature through different contact rearrangement length scales.","test":"Measure contacts and scattering.","contrary":"Final state depends only on input energy.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0823","prediction":"A granular optical layer should retain a vibration-frequency signature through different contact rearrangement length scales.","feasible_test":"Measure contacts and scattering.","contrary_outcome":"Final state depends only on input energy.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0824","id":"S5-0824","volume":"900v5","title":"A thermal pulse should move an internal gel boundary through pressure generated by differential solvent expansion.","prediction":"A thermal pulse should move an internal gel boundary through pressure generated by differential solvent expansion.","test":"Measure pressure and interface.","contrary":"Motion follows diffusion alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0824","prediction":"A thermal pulse should move an internal gel boundary through pressure generated by differential solvent expansion.","feasible_test":"Measure pressure and interface.","contrary_outcome":"Motion follows diffusion alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0825","id":"S5-0825","volume":"900v5","title":"A porous shell should become more resistant to gas leakage after slight compression reconnects liquid seals.","prediction":"A porous shell should become more resistant to gas leakage after slight compression reconnects liquid seals.","test":"Image seals and gas flux.","contrary":"Compression increases leakage monotonically.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0825","prediction":"A porous shell should become more resistant to gas leakage after slight compression reconnects liquid seals.","feasible_test":"Image seals and gas flux.","contrary_outcome":"Compression increases leakage monotonically.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0826","id":"S5-0826","volume":"900v5","title":"A coacervate droplet should sort rigid and flexible molecules of equal hydrodynamic size through deformation-dependent binding.","prediction":"A coacervate droplet should sort rigid and flexible molecules of equal hydrodynamic size through deformation-dependent binding.","test":"Measure binding and partitioning.","contrary":"Partitioning follows size and charge alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0826","prediction":"A coacervate droplet should sort rigid and flexible molecules of equal hydrodynamic size through deformation-dependent binding.","feasible_test":"Measure binding and partitioning.","contrary_outcome":"Partitioning follows size and charge alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0827","id":"S5-0827","volume":"900v5","title":"A liquid bridge should retain a twist after torque removal when its interfacial molecules form an elastic network.","prediction":"A liquid bridge should retain a twist after torque removal when its interfacial molecules form an elastic network.","test":"Measure molecular order and shape.","contrary":"Twist relaxes at the solvent-viscous rate.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0827","prediction":"A liquid bridge should retain a twist after torque removal when its interfacial molecules form an elastic network.","feasible_test":"Measure molecular order and shape.","contrary_outcome":"Twist relaxes at the solvent-viscous rate.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0828","id":"S5-0828","volume":"900v5","title":"A mineral coating should regain strength after a humid rest through precipitation at stressed crack contacts.","prediction":"A mineral coating should regain strength after a humid rest through precipitation at stressed crack contacts.","test":"Measure new solid and fracture load.","contrary":"Strength recovery occurs without precipitation.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0828","prediction":"A mineral coating should regain strength after a humid rest through precipitation at stressed crack contacts.","feasible_test":"Measure new solid and fracture load.","contrary_outcome":"Strength recovery occurs without precipitation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0829","id":"S5-0829","volume":"900v5","title":"A cell-free reaction should generate a transient permeability gradient that steers its own substrate supply.","prediction":"A cell-free reaction should generate a transient permeability gradient that steers its own substrate supply.","test":"Map reaction, pores and flux.","contrary":"Substrate flow remains externally determined.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0829","prediction":"A cell-free reaction should generate a transient permeability gradient that steers its own substrate supply.","feasible_test":"Map reaction, pores and flux.","contrary_outcome":"Substrate flow remains externally determined.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0830","id":"S5-0830","volume":"900v5","title":"A compliant membrane should reject deformable particles selectively when its pore-closing time is shorter than their relaxation time.","prediction":"A compliant membrane should reject deformable particles selectively when its pore-closing time is shorter than their relaxation time.","test":"Measure both times and passage.","contrary":"Rejection follows size alone.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0830","prediction":"A compliant membrane should reject deformable particles selectively when its pore-closing time is shorter than their relaxation time.","feasible_test":"Measure both times and passage.","contrary_outcome":"Rejection follows size alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0831","id":"S5-0831","volume":"900v5","title":"A fungal wall analogue should survive rapid inflation by opening reversible nanoscale folds.","prediction":"A fungal wall analogue should survive rapid inflation by opening reversible nanoscale folds.","test":"Measure folds and rupture.","contrary":"Survival is unchanged when folds are immobilized.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0831","prediction":"A fungal wall analogue should survive rapid inflation by opening reversible nanoscale folds.","feasible_test":"Measure folds and rupture.","contrary_outcome":"Survival is unchanged when folds are immobilized.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0832","id":"S5-0832","volume":"900v5","title":"A leaf-vein analogue should transport gas around a liquid blockage through a deformable lateral bypass.","prediction":"A leaf-vein analogue should transport gas around a liquid blockage through a deformable lateral bypass.","test":"Map phases and wall motion.","contrary":"Gas remains blocked despite bypass deformation.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0832","prediction":"A leaf-vein analogue should transport gas around a liquid blockage through a deformable lateral bypass.","feasible_test":"Map phases and wall motion.","contrary_outcome":"Gas remains blocked despite bypass deformation.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0833","id":"S5-0833","volume":"900v5","title":"A cellulose gel should record shear direction in a persistent asymmetry of water diffusion.","prediction":"A cellulose gel should record shear direction in a persistent asymmetry of water diffusion.","test":"Measure orientation and diffusion tensor.","contrary":"Diffusion becomes isotropic after unloading.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0833","prediction":"A cellulose gel should record shear direction in a persistent asymmetry of water diffusion.","feasible_test":"Measure orientation and diffusion tensor.","contrary_outcome":"Diffusion becomes isotropic after unloading.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0834","id":"S5-0834","volume":"900v5","title":"A root-inspired probe should advance through grains with less force when its tip alternates swelling and axial extension out of phase.","prediction":"A root-inspired probe should advance through grains with less force when its tip alternates swelling and axial extension out of phase.","test":"Measure force and motion.","contrary":"Phase timing has no effect.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0834","prediction":"A root-inspired probe should advance through grains with less force when its tip alternates swelling and axial extension out of phase.","feasible_test":"Measure force and motion.","contrary_outcome":"Phase timing has no effect.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0835","id":"S5-0835","volume":"900v5","title":"A seed-inspired capsule should release cargo after repeated brief wettings through progressive seam fatigue.","prediction":"A seed-inspired capsule should release cargo after repeated brief wettings through progressive seam fatigue.","test":"Measure seam damage and release.","contrary":"Release depends only on cumulative water exposure without fatigue.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0835","prediction":"A seed-inspired capsule should release cargo after repeated brief wettings through progressive seam fatigue.","feasible_test":"Measure seam damage and release.","contrary_outcome":"Release depends only on cumulative water exposure without fatigue.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0836","id":"S5-0836","volume":"900v5","title":"A moss-inspired surface should retain evaporative cooling under wind by folding its wet elements into sheltered pockets.","prediction":"A moss-inspired surface should retain evaporative cooling under wind by folding its wet elements into sheltered pockets.","test":"Measure geometry and cooling.","contrary":"Folding only reduces cooling.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0836","prediction":"A moss-inspired surface should retain evaporative cooling under wind by folding its wet elements into sheltered pockets.","feasible_test":"Measure geometry and cooling.","contrary_outcome":"Folding only reduces cooling.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0837","id":"S5-0837","volume":"900v5","title":"A wood-inspired laminate should maintain gas permeability during bending through rotation of transverse connectors.","prediction":"A wood-inspired laminate should maintain gas permeability during bending through rotation of transverse connectors.","test":"Image connectors and flow.","contrary":"Permeability follows crack opening alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0837","prediction":"A wood-inspired laminate should maintain gas permeability during bending through rotation of transverse connectors.","feasible_test":"Image connectors and flow.","contrary_outcome":"Permeability follows crack opening alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0838","id":"S5-0838","volume":"900v5","title":"A fungal-cord-inspired cable should reroute liquid after damage through pressure-triggered opening of dormant channels.","prediction":"A fungal-cord-inspired cable should reroute liquid after damage through pressure-triggered opening of dormant channels.","test":"Map pathways and pressure.","contrary":"Flow loss is proportional to severed area.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0838","prediction":"A fungal-cord-inspired cable should reroute liquid after damage through pressure-triggered opening of dormant channels.","feasible_test":"Map pathways and pressure.","contrary_outcome":"Flow loss is proportional to severed area.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0839","id":"S5-0839","volume":"900v5","title":"A leaf-inspired optical film should reveal local dehydration through a reversible change in internal air connectivity.","prediction":"A leaf-inspired optical film should reveal local dehydration through a reversible change in internal air connectivity.","test":"Map gas and spectra.","contrary":"Optical response follows water mass alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0839","prediction":"A leaf-inspired optical film should reveal local dehydration through a reversible change in internal air connectivity.","feasible_test":"Map gas and spectra.","contrary_outcome":"Optical response follows water mass alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0840","id":"S5-0840","volume":"900v5","title":"A pollen-inspired shell should reopen after compression in a sequence determined by aperture hydration.","prediction":"A pollen-inspired shell should reopen after compression in a sequence determined by aperture hydration.","test":"Measure aperture water and shape.","contrary":"Reopening order is hydration-independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0840","prediction":"A pollen-inspired shell should reopen after compression in a sequence determined by aperture hydration.","feasible_test":"Measure aperture water and shape.","contrary_outcome":"Reopening order is hydration-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0841","id":"S5-0841","volume":"900v5","title":"A transparent adhesive should identify prior overload through an irreversible shift in the angular distribution of scattered light.","prediction":"A transparent adhesive should identify prior overload through an irreversible shift in the angular distribution of scattered light.","test":"Apply known loads and measure interfaces.","contrary":"Shift vanishes after shape recovery.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0841","prediction":"A transparent adhesive should identify prior overload through an irreversible shift in the angular distribution of scattered light.","feasible_test":"Apply known loads and measure interfaces.","contrary_outcome":"Shift vanishes after shape recovery.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0842","id":"S5-0842","volume":"900v5","title":"A resonant microfluidic device should detect a single gas leak through correlated frequency drift across separated cavities.","prediction":"A resonant microfluidic device should detect a single gas leak through correlated frequency drift across separated cavities.","test":"Measure known leaks and modes.","contrary":"Correlation lacks leak specificity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0842","prediction":"A resonant microfluidic device should detect a single gas leak through correlated frequency drift across separated cavities.","feasible_test":"Measure known leaks and modes.","contrary_outcome":"Correlation lacks leak specificity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0843","id":"S5-0843","volume":"900v5","title":"A porous thermal probe should distinguish crack opening from water loss through opposite signs of early and late cooling changes.","prediction":"A porous thermal probe should distinguish crack opening from water loss through opposite signs of early and late cooling changes.","test":"Test independently varied states.","contrary":"Cooling signatures remain degenerate.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0843","prediction":"A porous thermal probe should distinguish crack opening from water loss through opposite signs of early and late cooling changes.","feasible_test":"Test independently varied states.","contrary_outcome":"Cooling signatures remain degenerate.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0844","id":"S5-0844","volume":"900v5","title":"A fluorescent membrane should report enzyme adsorption through rotational slowing before fluorescence intensity changes.","prediction":"A fluorescent membrane should report enzyme adsorption through rotational slowing before fluorescence intensity changes.","test":"Measure surface occupancy and anisotropy.","contrary":"Slowing follows solvent viscosity alone.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0844","prediction":"A fluorescent membrane should report enzyme adsorption through rotational slowing before fluorescence intensity changes.","feasible_test":"Measure surface occupancy and anisotropy.","contrary_outcome":"Slowing follows solvent viscosity alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0845","id":"S5-0845","volume":"900v5","title":"A soft acoustic gauge should detect pore-wall fatigue through increasing amplitude dependence of resonance.","prediction":"A soft acoustic gauge should detect pore-wall fatigue through increasing amplitude dependence of resonance.","test":"Compare fatigue and microscopy.","contrary":"Nonlinearity appears only after gross failure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0845","prediction":"A soft acoustic gauge should detect pore-wall fatigue through increasing amplitude dependence of resonance.","feasible_test":"Compare fatigue and microscopy.","contrary_outcome":"Nonlinearity appears only after gross failure.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0846","id":"S5-0846","volume":"900v5","title":"A waveguide coating should retain a contamination pulse as a spatial spectral notch that moves during recovery.","prediction":"A waveguide coating should retain a contamination pulse as a spatial spectral notch that moves during recovery.","test":"Map analyte and spectrum.","contrary":"Notch does not track analyte redistribution.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0846","prediction":"A waveguide coating should retain a contamination pulse as a spatial spectral notch that moves during recovery.","feasible_test":"Map analyte and spectrum.","contrary_outcome":"Notch does not track analyte redistribution.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0847","id":"S5-0847","volume":"900v5","title":"A dielectric sensor should distinguish a frozen water pocket from a gas-filled void through nonlinear relaxation.","prediction":"A dielectric sensor should distinguish a frozen water pocket from a gas-filled void through nonlinear relaxation.","test":"Test known phases at matched geometry.","contrary":"Responses remain indistinguishable.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0847","prediction":"A dielectric sensor should distinguish a frozen water pocket from a gas-filled void through nonlinear relaxation.","feasible_test":"Test known phases at matched geometry.","contrary_outcome":"Responses remain indistinguishable.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0848","id":"S5-0848","volume":"900v5","title":"A polarization tag should measure residual torsion after global shape recovery through retained molecular orientation.","prediction":"A polarization tag should measure residual torsion after global shape recovery through retained molecular orientation.","test":"Compare torque and orientation.","contrary":"Orientation resets completely.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0848","prediction":"A polarization tag should measure residual torsion after global shape recovery through retained molecular orientation.","feasible_test":"Compare torque and orientation.","contrary_outcome":"Orientation resets completely.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0849","id":"S5-0849","volume":"900v5","title":"A thermal film should detect local loss of adhesion through a rotating cooling ellipse.","prediction":"A thermal film should detect local loss of adhesion through a rotating cooling ellipse.","test":"Compare interfacial maps.","contrary":"Ellipse orientation follows external convection only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0849","prediction":"A thermal film should detect local loss of adhesion through a rotating cooling ellipse.","feasible_test":"Compare interfacial maps.","contrary_outcome":"Ellipse orientation follows external convection only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0850","id":"S5-0850","volume":"900v5","title":"A porous optical sensor should detect ion exchange before swelling by a change in near-field coupling.","prediction":"A porous optical sensor should detect ion exchange before swelling by a change in near-field coupling.","test":"Measure ions, volume and spectra.","contrary":"Optical onset follows swelling.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0850","prediction":"A porous optical sensor should detect ion exchange before swelling by a change in near-field coupling.","feasible_test":"Measure ions, volume and spectra.","contrary_outcome":"Optical onset follows swelling.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0851","id":"S5-0851","volume":"900v5","title":"A capillary sensor should estimate the duration of a pressure hold from the recovery speed of its pinned interface.","prediction":"A capillary sensor should estimate the duration of a pressure hold from the recovery speed of its pinned interface.","test":"Apply equal-peak holds.","contrary":"Recovery depends only on peak pressure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0851","prediction":"A capillary sensor should estimate the duration of a pressure hold from the recovery speed of its pinned interface.","feasible_test":"Apply equal-peak holds.","contrary_outcome":"Recovery depends only on peak pressure.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0852","id":"S5-0852","volume":"900v5","title":"A fluorescent gel should distinguish tensile damage from chemical degradation through different spatial lifetime correlations.","prediction":"A fluorescent gel should distinguish tensile damage from chemical degradation through different spatial lifetime correlations.","test":"Apply blinded insults.","contrary":"Correlation patterns overlap.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0852","prediction":"A fluorescent gel should distinguish tensile damage from chemical degradation through different spatial lifetime correlations.","feasible_test":"Apply blinded insults.","contrary_outcome":"Correlation patterns overlap.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0853","id":"S5-0853","volume":"900v5","title":"A resonant fiber should identify where liquid enters its lumen from the order of modal phase changes.","prediction":"A resonant fiber should identify where liquid enters its lumen from the order of modal phase changes.","test":"Image known entry sites.","contrary":"Phase order cannot locate entry.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0853","prediction":"A resonant fiber should identify where liquid enters its lumen from the order of modal phase changes.","feasible_test":"Image known entry sites.","contrary_outcome":"Phase order cannot locate entry.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0854","id":"S5-0854","volume":"900v5","title":"A thermal sensor should detect a buried reaction front through a sign reversal in adjacent temperature derivatives.","prediction":"A thermal sensor should detect a buried reaction front through a sign reversal in adjacent temperature derivatives.","test":"Map front and temperatures.","contrary":"Sign pattern lacks front specificity.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0854","prediction":"A thermal sensor should detect a buried reaction front through a sign reversal in adjacent temperature derivatives.","feasible_test":"Map front and temperatures.","contrary_outcome":"Sign pattern lacks front specificity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0855","id":"S5-0855","volume":"900v5","title":"A flexible scattering layer should retain an acoustic-event amplitude through the fraction of permanently rotated grains.","prediction":"A flexible scattering layer should retain an acoustic-event amplitude through the fraction of permanently rotated grains.","test":"Measure rotations and calibrated sound.","contrary":"Rotation fraction follows duration alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0855","prediction":"A flexible scattering layer should retain an acoustic-event amplitude through the fraction of permanently rotated grains.","feasible_test":"Measure rotations and calibrated sound.","contrary_outcome":"Rotation fraction follows duration alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0856","id":"S5-0856","volume":"900v5","title":"A soft capacitor should separate external pressure from internal gas generation through opposing transient phase sequences.","prediction":"A soft capacitor should separate external pressure from internal gas generation through opposing transient phase sequences.","test":"Apply independent inputs.","contrary":"Sequences remain degenerate.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0856","prediction":"A soft capacitor should separate external pressure from internal gas generation through opposing transient phase sequences.","feasible_test":"Apply independent inputs.","contrary_outcome":"Sequences remain degenerate.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0857","id":"S5-0857","volume":"900v5","title":"A microbalance should detect layer delamination through increased rotational inertia without net mass change.","prediction":"A microbalance should detect layer delamination through increased rotational inertia without net mass change.","test":"Measure modes and interface.","contrary":"Signals cannot distinguish delamination from rigid tilt.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0857","prediction":"A microbalance should detect layer delamination through increased rotational inertia without net mass change.","feasible_test":"Measure modes and interface.","contrary_outcome":"Signals cannot distinguish delamination from rigid tilt.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0858","id":"S5-0858","volume":"900v5","title":"A photonic film should detect mechanical aging through a changed recovery path after a small humidity pulse.","prediction":"A photonic film should detect mechanical aging through a changed recovery path after a small humidity pulse.","test":"Measure modulus and optical recovery.","contrary":"Path depends only on present humidity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0858","prediction":"A photonic film should detect mechanical aging through a changed recovery path after a small humidity pulse.","feasible_test":"Measure modulus and optical recovery.","contrary_outcome":"Path depends only on present humidity.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0859","id":"S5-0859","volume":"900v5","title":"A capillary assay should distinguish pore narrowing from increased viscosity by comparing advancing and receding front transients.","prediction":"A capillary assay should distinguish pore narrowing from increased viscosity by comparing advancing and receding front transients.","test":"Calibrate both causes.","contrary":"Transients remain degenerate.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0859","prediction":"A capillary assay should distinguish pore narrowing from increased viscosity by comparing advancing and receding front transients.","feasible_test":"Calibrate both causes.","contrary_outcome":"Transients remain degenerate.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0860","id":"S5-0860","volume":"900v5","title":"A thin acoustic cavity should reveal a hidden liquid film through a separate slow relaxation mode.","prediction":"A thin acoustic cavity should reveal a hidden liquid film through a separate slow relaxation mode.","test":"Compare imaged films.","contrary":"Mode changes follow added mass alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0860","prediction":"A thin acoustic cavity should reveal a hidden liquid film through a separate slow relaxation mode.","feasible_test":"Compare imaged films.","contrary_outcome":"Mode changes follow added mass alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0861","id":"S5-0861","volume":"900v5","title":"A passive cooling panel should preserve output after local fouling by mechanically rerouting water beneath the deposit.","prediction":"A passive cooling panel should preserve output after local fouling by mechanically rerouting water beneath the deposit.","test":"Map water and temperature.","contrary":"Fouling causes proportional performance loss.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0861","prediction":"A passive cooling panel should preserve output after local fouling by mechanically rerouting water beneath the deposit.","feasible_test":"Map water and temperature.","contrary_outcome":"Fouling causes proportional performance loss.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0862","id":"S5-0862","volume":"900v5","title":"A porous chemical reactor should prevent channel blockage by flexing its precipitate-coated walls during pressure release.","prediction":"A porous chemical reactor should prevent channel blockage by flexing its precipitate-coated walls during pressure release.","test":"Image wall and crystals.","contrary":"Blockage is unchanged when flexing occurs.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0862","prediction":"A porous chemical reactor should prevent channel blockage by flexing its precipitate-coated walls during pressure release.","feasible_test":"Image wall and crystals.","contrary_outcome":"Blockage is unchanged when flexing occurs.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0863","id":"S5-0863","volume":"900v5","title":"A soft fluidic counter should store impulse number through stepwise liquid transfer into a graduated reservoir.","prediction":"A soft fluidic counter should store impulse number through stepwise liquid transfer into a graduated reservoir.","test":"Measure count and liquid.","contrary":"Stored volume reflects total impulse only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0863","prediction":"A soft fluidic counter should store impulse number through stepwise liquid transfer into a graduated reservoir.","feasible_test":"Measure count and liquid.","contrary_outcome":"Stored volume reflects total impulse only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0864","id":"S5-0864","volume":"900v5","title":"A capillary check valve should reduce reverse leakage after a short forward pulse realigns its flexible pore lips.","prediction":"A capillary check valve should reduce reverse leakage after a short forward pulse realigns its flexible pore lips.","test":"Measure lips and leakage.","contrary":"Conditioning provides no reduction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0864","prediction":"A capillary check valve should reduce reverse leakage after a short forward pulse realigns its flexible pore lips.","feasible_test":"Measure lips and leakage.","contrary_outcome":"Conditioning provides no reduction.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0865","id":"S5-0865","volume":"900v5","title":"A liquid-metal interconnect should detect fatigue by producing a reversible warning resistance before its neck ruptures.","prediction":"A liquid-metal interconnect should detect fatigue by producing a reversible warning resistance before its neck ruptures.","test":"Measure neck and resistance.","contrary":"Warning starts only with irreversible damage.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0865","prediction":"A liquid-metal interconnect should detect fatigue by producing a reversible warning resistance before its neck ruptures.","feasible_test":"Measure neck and resistance.","contrary_outcome":"Warning starts only with irreversible damage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0866","id":"S5-0866","volume":"900v5","title":"A porous solar evaporator should resist salt buildup when its bending periodically reconnects brine to a return channel.","prediction":"A porous solar evaporator should resist salt buildup when its bending periodically reconnects brine to a return channel.","test":"Map brine and crystals.","contrary":"Bending does not change buildup at equal flux.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0866","prediction":"A porous solar evaporator should resist salt buildup when its bending periodically reconnects brine to a return channel.","feasible_test":"Map brine and crystals.","contrary_outcome":"Bending does not change buildup at equal flux.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0867","id":"S5-0867","volume":"900v5","title":"A flexible dust collector should release particles into a chosen direction by propagating a peeling wave.","prediction":"A flexible dust collector should release particles into a chosen direction by propagating a peeling wave.","test":"Measure wave and trajectories.","contrary":"Particles leave isotropically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0867","prediction":"A flexible dust collector should release particles into a chosen direction by propagating a peeling wave.","feasible_test":"Measure wave and trajectories.","contrary_outcome":"Particles leave isotropically.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0868","id":"S5-0868","volume":"900v5","title":"A hydrogel regulator should buffer concentration pulses by swelling into a bypass only when local binding sites saturate.","prediction":"A hydrogel regulator should buffer concentration pulses by swelling into a bypass only when local binding sites saturate.","test":"Measure occupancy and flow.","contrary":"Buffering is occupancy-independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0868","prediction":"A hydrogel regulator should buffer concentration pulses by swelling into a bypass only when local binding sites saturate.","feasible_test":"Measure occupancy and flow.","contrary_outcome":"Buffering is occupancy-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0869","id":"S5-0869","volume":"900v5","title":"A passive gas sampler should retain pulse order through sequentially wetted adsorption zones.","prediction":"A passive gas sampler should retain pulse order through sequentially wetted adsorption zones.","test":"Apply reversed gas histories.","contrary":"Final profiles are order-independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0869","prediction":"A passive gas sampler should retain pulse order through sequentially wetted adsorption zones.","feasible_test":"Apply reversed gas histories.","contrary_outcome":"Final profiles are order-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0870","id":"S5-0870","volume":"900v5","title":"A capillary latch should reset through vapor transfer without moving its trapped liquid directly.","prediction":"A capillary latch should reset through vapor transfer without moving its trapped liquid directly.","test":"Measure vapor and meniscus.","contrary":"Reset requires bulk liquid displacement.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0870","prediction":"A capillary latch should reset through vapor transfer without moving its trapped liquid directly.","feasible_test":"Measure vapor and meniscus.","contrary_outcome":"Reset requires bulk liquid displacement.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0871","id":"S5-0871","volume":"900v5","title":"A soft optical diaphragm should reject brief pressure spikes while responding to sustained pressure through slow internal drainage.","prediction":"A soft optical diaphragm should reject brief pressure spikes while responding to sustained pressure through slow internal drainage.","test":"Measure drainage and transmission.","contrary":"Response depends only on pressure amplitude.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0871","prediction":"A soft optical diaphragm should reject brief pressure spikes while responding to sustained pressure through slow internal drainage.","feasible_test":"Measure drainage and transmission.","contrary_outcome":"Response depends only on pressure amplitude.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0872","id":"S5-0872","volume":"900v5","title":"A porous separator should shed an oil fouling layer when water condensation opens a lubricating interfacial film.","prediction":"A porous separator should shed an oil fouling layer when water condensation opens a lubricating interfacial film.","test":"Image film and release.","contrary":"Detachment occurs without interfacial water.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0872","prediction":"A porous separator should shed an oil fouling layer when water condensation opens a lubricating interfacial film.","feasible_test":"Image film and release.","contrary_outcome":"Detachment occurs without interfacial water.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0873","id":"S5-0873","volume":"900v5","title":"A compliant filter should sort particles by the energy of their elastic rebound rather than size.","prediction":"A compliant filter should sort particles by the energy of their elastic rebound rather than size.","test":"Measure rebound and passage.","contrary":"Sorting follows diameter alone.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0873","prediction":"A compliant filter should sort particles by the energy of their elastic rebound rather than size.","feasible_test":"Measure rebound and passage.","contrary_outcome":"Sorting follows diameter alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0874","id":"S5-0874","volume":"900v5","title":"A thermal memory should preserve both event direction and duration in separate capillary positions.","prediction":"A thermal memory should preserve both event direction and duration in separate capillary positions.","test":"Apply known heating/cooling histories.","contrary":"Readouts cannot independently decode both.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0874","prediction":"A thermal memory should preserve both event direction and duration in separate capillary positions.","feasible_test":"Apply known heating/cooling histories.","contrary_outcome":"Readouts cannot independently decode both.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0875","id":"S5-0875","volume":"900v5","title":"A flexible acoustic reflector should self-protect from excessive sound by opening pressure-relief slits.","prediction":"A flexible acoustic reflector should self-protect from excessive sound by opening pressure-relief slits.","test":"Measure slit and transmitted pressure.","contrary":"Protection follows material heating only.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0875","prediction":"A flexible acoustic reflector should self-protect from excessive sound by opening pressure-relief slits.","feasible_test":"Measure slit and transmitted pressure.","contrary_outcome":"Protection follows material heating only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0876","id":"S5-0876","volume":"900v5","title":"A liquid-filled mechanical switch should synchronize distant contacts through a pressure pulse rather than a rigid linkage.","prediction":"A liquid-filled mechanical switch should synchronize distant contacts through a pressure pulse rather than a rigid linkage.","test":"Measure timing with linkage absent.","contrary":"Contacts remain uncoordinated.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0876","prediction":"A liquid-filled mechanical switch should synchronize distant contacts through a pressure pulse rather than a rigid linkage.","feasible_test":"Measure timing with linkage absent.","contrary_outcome":"Contacts remain uncoordinated.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0877","id":"S5-0877","volume":"900v5","title":"A porous adhesive should hold under slow load but release under rapid load because trapped liquid cannot redistribute.","prediction":"A porous adhesive should hold under slow load but release under rapid load because trapped liquid cannot redistribute.","test":"Measure liquid and failure.","contrary":"Release threshold is rate-independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0877","prediction":"A porous adhesive should hold under slow load but release under rapid load because trapped liquid cannot redistribute.","feasible_test":"Measure liquid and failure.","contrary_outcome":"Release threshold is rate-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0878","id":"S5-0878","volume":"900v5","title":"A capillary dispenser should meter smaller doses after overpressure by temporarily storing excess liquid in an elastic side pocket.","prediction":"A capillary dispenser should meter smaller doses after overpressure by temporarily storing excess liquid in an elastic side pocket.","test":"Measure pocket and dose.","contrary":"Dose follows input pressure directly.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0878","prediction":"A capillary dispenser should meter smaller doses after overpressure by temporarily storing excess liquid in an elastic side pocket.","feasible_test":"Measure pocket and dose.","contrary_outcome":"Dose follows input pressure directly.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0879","id":"S5-0879","volume":"900v5","title":"A soft cleaning membrane should remove crystals preferentially by exploiting their fracture during curvature reversal.","prediction":"A soft cleaning membrane should remove crystals preferentially by exploiting their fracture during curvature reversal.","test":"Measure crystal fracture and release.","contrary":"Removal follows adhesion alone.","layers":[1],"categories":["biology","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0879","prediction":"A soft cleaning membrane should remove crystals preferentially by exploiting their fracture during curvature reversal.","feasible_test":"Measure crystal fracture and release.","contrary_outcome":"Removal follows adhesion alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0880","id":"S5-0880","volume":"900v5","title":"A passive microfluidic alarm should whistle when a blocked channel diverts gas into a resonant bypass.","prediction":"A passive microfluidic alarm should whistle when a blocked channel diverts gas into a resonant bypass.","test":"Measure blockage and sound.","contrary":"Sound occurs equally without blockage.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0880","prediction":"A passive microfluidic alarm should whistle when a blocked channel diverts gas into a resonant bypass.","feasible_test":"Measure blockage and sound.","contrary_outcome":"Sound occurs equally without blockage.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0881","id":"S5-0881","volume":"900v5","title":"A particle gel should recover from shear with a reproducible orientation bias inherited from surviving strong bonds.","prediction":"A particle gel should recover from shear with a reproducible orientation bias inherited from surviving strong bonds.","test":"Map bond survival and structure.","contrary":"Recovery is isotropic.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0881","prediction":"A particle gel should recover from shear with a reproducible orientation bias inherited from surviving strong bonds.","feasible_test":"Map bond survival and structure.","contrary_outcome":"Recovery is isotropic.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0882","id":"S5-0882","volume":"900v5","title":"A confined liquid should retain pressure noise correlations after mean flow stops because its walls relax cooperatively.","prediction":"A confined liquid should retain pressure noise correlations after mean flow stops because its walls relax cooperatively.","test":"Measure pressure and wall motion.","contrary":"Noise returns immediately to independent baseline.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0882","prediction":"A confined liquid should retain pressure noise correlations after mean flow stops because its walls relax cooperatively.","feasible_test":"Measure pressure and wall motion.","contrary_outcome":"Noise returns immediately to independent baseline.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0883","id":"S5-0883","volume":"900v5","title":"A molecular network should display an aging-rate maximum at intermediate bond exchange because fast exchange erases stored stress.","prediction":"A molecular network should display an aging-rate maximum at intermediate bond exchange because fast exchange erases stored stress.","test":"Measure exchange and relaxation.","contrary":"Aging changes monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0883","prediction":"A molecular network should display an aging-rate maximum at intermediate bond exchange because fast exchange erases stored stress.","feasible_test":"Measure exchange and relaxation.","contrary_outcome":"Aging changes monotonically.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0884","id":"S5-0884","volume":"900v5","title":"A droplet oscillator should show phase slips before complete loss of chemical coupling.","prediction":"A droplet oscillator should show phase slips before complete loss of chemical coupling.","test":"Measure chemical exchange and phases.","contrary":"Coordination vanishes without preceding slips.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0884","prediction":"A droplet oscillator should show phase slips before complete loss of chemical coupling.","feasible_test":"Measure chemical exchange and phases.","contrary_outcome":"Coordination vanishes without preceding slips.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0885","id":"S5-0885","volume":"900v5","title":"A porous mechanical network should localize weak forcing near a newly opened liquid pathway.","prediction":"A porous mechanical network should localize weak forcing near a newly opened liquid pathway.","test":"Map pathway and motion.","contrary":"Response remains uniformly distributed.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0885","prediction":"A porous mechanical network should localize weak forcing near a newly opened liquid pathway.","feasible_test":"Map pathway and motion.","contrary_outcome":"Response remains uniformly distributed.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0886","id":"S5-0886","volume":"900v5","title":"A membrane should retain loading-sequence information only when domain-boundary motion is slower than mechanical recovery.","prediction":"A membrane should retain loading-sequence information only when domain-boundary motion is slower than mechanical recovery.","test":"Measure both times and final domains.","contrary":"Memory is timescale-independent.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0886","prediction":"A membrane should retain loading-sequence information only when domain-boundary motion is slower than mechanical recovery.","feasible_test":"Measure both times and final domains.","contrary_outcome":"Memory is timescale-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0887","id":"S5-0887","volume":"900v5","title":"A granular interface should exhibit a burst of rearrangements when capillary bridges reconnect after rest.","prediction":"A granular interface should exhibit a burst of rearrangements when capillary bridges reconnect after rest.","test":"Image bridges and contacts.","contrary":"Rearrangements occur without bridge reconnection.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0887","prediction":"A granular interface should exhibit a burst of rearrangements when capillary bridges reconnect after rest.","feasible_test":"Image bridges and contacts.","contrary_outcome":"Rearrangements occur without bridge reconnection.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0888","id":"S5-0888","volume":"900v5","title":"A soft resonator should detect an approaching topological transition through a change in mode-correlation sign.","prediction":"A soft resonator should detect an approaching topological transition through a change in mode-correlation sign.","test":"Measure topology and mode fluctuations.","contrary":"Sign changes occur only after transition.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0888","prediction":"A soft resonator should detect an approaching topological transition through a change in mode-correlation sign.","feasible_test":"Measure topology and mode fluctuations.","contrary_outcome":"Sign changes occur only after transition.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0889","id":"S5-0889","volume":"900v5","title":"A molecular film should improve signal discrimination after repeated low-amplitude stimulation anneals unstable domains.","prediction":"A molecular film should improve signal discrimination after repeated low-amplitude stimulation anneals unstable domains.","test":"Measure domains and response distributions.","contrary":"Discrimination remains unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0889","prediction":"A molecular film should improve signal discrimination after repeated low-amplitude stimulation anneals unstable domains.","feasible_test":"Measure domains and response distributions.","contrary_outcome":"Discrimination remains unchanged.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0890","id":"S5-0890","volume":"900v5","title":"A capillary network should display a recoverable refractory period after a large pulse drains its shared reservoir.","prediction":"A capillary network should display a recoverable refractory period after a large pulse drains its shared reservoir.","test":"Measure reservoir and pulse response.","contrary":"Recovery is independent of reservoir refill.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0890","prediction":"A capillary network should display a recoverable refractory period after a large pulse drains its shared reservoir.","feasible_test":"Measure reservoir and pulse response.","contrary_outcome":"Recovery is independent of reservoir refill.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0891","id":"S5-0891","volume":"900v5","title":"A reconstituted filament web should retain a force-event location in its delayed relaxation map after shape recovery.","prediction":"A reconstituted filament web should retain a force-event location in its delayed relaxation map after shape recovery.","test":"Measure local relaxation.","contrary":"Map becomes spatially uniform.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0891","prediction":"A reconstituted filament web should retain a force-event location in its delayed relaxation map after shape recovery.","feasible_test":"Measure local relaxation.","contrary_outcome":"Map becomes spatially uniform.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0892","id":"S5-0892","volume":"900v5","title":"A liquid-coated granular chain should transmit a weak pulse more reliably after a preparatory pulse regularizes bridge volumes.","prediction":"A liquid-coated granular chain should transmit a weak pulse more reliably after a preparatory pulse regularizes bridge volumes.","test":"Measure bridges and transmission.","contrary":"Regularization adds no reliability.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0892","prediction":"A liquid-coated granular chain should transmit a weak pulse more reliably after a preparatory pulse regularizes bridge volumes.","feasible_test":"Measure bridges and transmission.","contrary_outcome":"Regularization adds no reliability.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0893","id":"S5-0893","volume":"900v5","title":"A reactive interface should exhibit a pause-dependent restart direction because adsorbed intermediates redistribute during the pause.","prediction":"A reactive interface should exhibit a pause-dependent restart direction because adsorbed intermediates redistribute during the pause.","test":"Map intermediates and front motion.","contrary":"Restart follows the original direction regardless of pause.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0893","prediction":"A reactive interface should exhibit a pause-dependent restart direction because adsorbed intermediates redistribute during the pause.","feasible_test":"Map intermediates and front motion.","contrary_outcome":"Restart follows the original direction regardless of pause.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0894","id":"S5-0894","volume":"900v5","title":"A porous thermal oscillator should show a secondary rhythm when gas dissolution introduces a slower recovery process.","prediction":"A porous thermal oscillator should show a secondary rhythm when gas dissolution introduces a slower recovery process.","test":"Measure gas and temperature spectra.","contrary":"Only one timescale remains after calibration.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0894","prediction":"A porous thermal oscillator should show a secondary rhythm when gas dissolution introduces a slower recovery process.","feasible_test":"Measure gas and temperature spectra.","contrary_outcome":"Only one timescale remains after calibration.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0895","id":"S5-0895","volume":"900v5","title":"A soft particle assembly should store a mechanical pulse's sign in asymmetric contact-age distributions.","prediction":"A soft particle assembly should store a mechanical pulse's sign in asymmetric contact-age distributions.","test":"Measure contacts after reversed pulses.","contrary":"Distributions are sign-independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0895","prediction":"A soft particle assembly should store a mechanical pulse's sign in asymmetric contact-age distributions.","feasible_test":"Measure contacts after reversed pulses.","contrary_outcome":"Distributions are sign-independent.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0896","id":"S5-0896","volume":"900v5","title":"A cell-free droplet pair should retain synchronized motion briefly after chemical coupling ends because membrane tension relaxes slowly.","prediction":"A cell-free droplet pair should retain synchronized motion briefly after chemical coupling ends because membrane tension relaxes slowly.","test":"Measure exchange and motion.","contrary":"Synchronization ends immediately.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0896","prediction":"A cell-free droplet pair should retain synchronized motion briefly after chemical coupling ends because membrane tension relaxes slowly.","feasible_test":"Measure exchange and motion.","contrary_outcome":"Synchronization ends immediately.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0897","id":"S5-0897","volume":"900v5","title":"A capillary lattice should release stored fluid in avalanches whose initiation sites follow residual elastic stress.","prediction":"A capillary lattice should release stored fluid in avalanches whose initiation sites follow residual elastic stress.","test":"Map stress and release.","contrary":"Initiation follows pore size only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0897","prediction":"A capillary lattice should release stored fluid in avalanches whose initiation sites follow residual elastic stress.","feasible_test":"Map stress and release.","contrary_outcome":"Initiation follows pore size only.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0898","id":"S5-0898","volume":"900v5","title":"A protein network should show a temporary reduction in mechanical noise after crosslinks rebind cooperatively.","prediction":"A protein network should show a temporary reduction in mechanical noise after crosslinks rebind cooperatively.","test":"Measure binding and fluctuations.","contrary":"Noise follows temperature and modulus alone.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0898","prediction":"A protein network should show a temporary reduction in mechanical noise after crosslinks rebind cooperatively.","feasible_test":"Measure binding and fluctuations.","contrary_outcome":"Noise follows temperature and modulus alone.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0899","id":"S5-0899","volume":"900v5","title":"A passive mechanical decoder should distinguish pulse spacing from pulse strength using two independently calibrated relaxation reservoirs.","prediction":"A passive mechanical decoder should distinguish pulse spacing from pulse strength using two independently calibrated relaxation reservoirs.","test":"Apply blinded pulse trains.","contrary":"Readouts remain underdetermined.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0899","prediction":"A passive mechanical decoder should distinguish pulse spacing from pulse strength using two independently calibrated relaxation reservoirs.","feasible_test":"Apply blinded pulse trains.","contrary_outcome":"Readouts remain underdetermined.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v5--S5-0900","id":"S5-0900","volume":"900v5","title":"A deformable porous material should recover permeability in discrete steps after unloading because contact clusters unjam cooperatively.","prediction":"A deformable porous material should recover permeability in discrete steps after unloading because contact clusters unjam cooperatively.","test":"Image clusters and flow.","contrary":"Recovery remains smooth without cluster events.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v5/hypotheses.json","original":{"id":"S5-0900","prediction":"A deformable porous material should recover permeability in discrete steps after unloading because contact clusters unjam cooperatively.","feasible_test":"Image clusters and flow.","contrary_outcome":"Recovery remains smooth without cluster events.","status":"untested hypothesis; not proved","novelty":"exact novelty unresolved; no worldwide originality claim"},"lead":null,"dossier":null,"selection_source":"sources/90v5/selected90.json","dossier_source":"sources/9v5/selected9.json"},{"uid":"900v6--S6-0001","id":"S6-0001","volume":"900v6","title":"Thermal moat recovery","prediction":"The center cools faster despite slower lateral equilibration.","test":"Compare safe low-temperature patterned plates with measured vertical and lateral heat fluxes.","contrary":"Cooldown follows lateral equilibration without the predicted separation.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0001","title":"Thermal moat recovery","question":"Can a narrow evacuated moat delay lateral heat spreading while accelerating vertical cooldown?","prediction":"The center cools faster despite slower lateral equilibration.","test":"Compare safe low-temperature patterned plates with measured vertical and lateral heat fluxes.","contrary_outcome":"Cooldown follows lateral equilibration without the predicted separation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0001","title":"Thermal moat recovery","question":"Can a narrow evacuated moat delay lateral heat spreading while accelerating vertical cooldown?","prediction":"The center cools faster despite slower lateral equilibration.","test":"Compare safe low-temperature patterned plates with measured vertical and lateral heat fluxes.","contrary_outcome":"Cooldown follows lateral equilibration without the predicted separation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0002","id":"S6-0002","volume":"900v6","title":"Wick vapor detour","prediction":"The branch vents vapor and suppresses main-path flow interruptions.","test":"Image safe water wicks with open, sealed and liquid-filled side branches.","contrary":"Stability depends only on added liquid inventory.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0002","title":"Wick vapor detour","question":"Can an intentionally dry lateral wick branch improve the main branch's evaporation stability?","prediction":"The branch vents vapor and suppresses main-path flow interruptions.","test":"Image safe water wicks with open, sealed and liquid-filled side branches.","contrary_outcome":"Stability depends only on added liquid inventory.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0003","id":"S6-0003","volume":"900v6","title":"Shadow-edge frost conveyor","prediction":"Frost centroid moves against shadow motion in a sealed water inventory.","test":"Track safe cold-cell frost mass and vapor fields during reversed shadow sweeps.","contrary":"Mass follows the shadow or only external vapor supply.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0003","title":"Shadow-edge frost conveyor","question":"Can a translating shadow transport frost opposite its direction through sequential sublimation and deposition?","prediction":"Frost centroid moves against shadow motion in a sealed water inventory.","test":"Track safe cold-cell frost mass and vapor fields during reversed shadow sweeps.","contrary_outcome":"Mass follows the shadow or only external vapor supply.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0004","id":"S6-0004","volume":"900v6","title":"Crystal corner nutrient return","prediction":"Face advance coincides with local solute transfer from the retreating corner.","test":"Image benign salt crystals with local concentration mapping and sealed mass balance.","contrary":"All faces retreat or growth requires incoming bulk solute.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0004","title":"Crystal corner nutrient return","question":"Can a dissolving crystal corner feed growth on an adjacent face while net crystal mass decreases?","prediction":"Face advance coincides with local solute transfer from the retreating corner.","test":"Image benign salt crystals with local concentration mapping and sealed mass balance.","contrary_outcome":"All faces retreat or growth requires incoming bulk solute.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0005","id":"S6-0005","volume":"900v6","title":"Thermal absorber breathing","prediction":"Wrinkles expose radiative area during cooldown without increasing illuminated projected area.","test":"Measure safe flexible absorbers with fixed absorbed energy and calibrated emissivity.","contrary":"Cooling gain is explained by lower initial stored heat.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0005","title":"Thermal absorber breathing","question":"Can periodic reversible wrinkling improve an absorber's cooling after illumination stops?","prediction":"Wrinkles expose radiative area during cooldown without increasing illuminated projected area.","test":"Measure safe flexible absorbers with fixed absorbed energy and calibrated emissivity.","contrary_outcome":"Cooling gain is explained by lower initial stored heat.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0006","id":"S6-0006","volume":"900v6","title":"Capillary resistor healing","prediction":"Thermal reconnection precedes mechanical reconnection as the bridge grows.","test":"Use safe transparent gaps with independent calorimetry and force sensing.","contrary":"Both responses appear at the same resolved bridge size.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0006","title":"Capillary resistor healing","question":"Can a water bridge restore heat flow across a separated solid contact before it transmits measurable force?","prediction":"Thermal reconnection precedes mechanical reconnection as the bridge grows.","test":"Use safe transparent gaps with independent calorimetry and force sensing.","contrary_outcome":"Both responses appear at the same resolved bridge size.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0007","id":"S6-0007","volume":"900v6","title":"Granular thermal diode reset","prediction":"The asymmetry resets with contact-fabric reorientation.","test":"Measure safe inert packs before and after density-matched reorientation.","contrary":"Heat asymmetry remains fixed to composition or vessel geometry.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0007","title":"Granular thermal diode reset","question":"Can rotating a granular bed erase directional heat-transfer asymmetry while retaining the same grains and packing density?","prediction":"The asymmetry resets with contact-fabric reorientation.","test":"Measure safe inert packs before and after density-matched reorientation.","contrary_outcome":"Heat asymmetry remains fixed to composition or vessel geometry.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0008","id":"S6-0008","volume":"900v6","title":"Cold-bubble nucleation shield","prediction":"Nucleation shifts away from the pocket despite unchanged bulk cooling.","test":"Freeze safe small water cells with independently mapped wall temperatures.","contrary":"Nucleation follows gas chemistry or defect placement alone.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0008","title":"Cold-bubble nucleation shield","question":"Can a pre-existing air pocket suppress nearby ice nucleation by thermally isolating a wall defect?","prediction":"Nucleation shifts away from the pocket despite unchanged bulk cooling.","test":"Freeze safe small water cells with independently mapped wall temperatures.","contrary_outcome":"Nucleation follows gas chemistry or defect placement alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0009","id":"S6-0009","volume":"900v6","title":"Thin-film heat inventory","prediction":"Post-sealing temperature rebound identifies hidden subsurface enthalpy.","test":"Measure safe water films with depth-resolved thermometry and full heat balance.","contrary":"Rebound depends only on mean film temperature.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0009","title":"Thin-film heat inventory","question":"Can two wet films with equal surface temperature release different heat after sealing because their depth profiles differ?","prediction":"Post-sealing temperature rebound identifies hidden subsurface enthalpy.","test":"Measure safe water films with depth-resolved thermometry and full heat balance.","contrary_outcome":"Rebound depends only on mean film temperature.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0010","id":"S6-0010","volume":"900v6","title":"Thermal capillary pendulum","prediction":"Evaporation and refill produce temperature cycles with nearly stationary bridge geometry.","test":"Use safe low-temperature water bridges with pressure, temperature and shape tracking.","contrary":"Cycles require external power fluctuations or visible shape oscillations.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0010","title":"Thermal capillary pendulum","question":"Can a bridge suspended between two reservoirs oscillate thermally without sustained mechanical motion?","prediction":"Evaporation and refill produce temperature cycles with nearly stationary bridge geometry.","test":"Use safe low-temperature water bridges with pressure, temperature and shape tracking.","contrary_outcome":"Cycles require external power fluctuations or visible shape oscillations.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0011","id":"S6-0011","volume":"900v6","title":"Radiative contact census","prediction":"Conductance remains apparently continuous until radiative exchange is independently removed.","test":"Measure safe contact assemblies with controlled emissivity and guarded heat balance.","contrary":"Every contact loss produces the same resolved conductance step.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0011","title":"Radiative contact census","question":"Can two disconnected surfaces exchange enough radiation to mask the thermal signature of losing one solid contact?","prediction":"Conductance remains apparently continuous until radiative exchange is independently removed.","test":"Measure safe contact assemblies with controlled emissivity and guarded heat balance.","contrary_outcome":"Every contact loss produces the same resolved conductance step.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0012","id":"S6-0012","volume":"900v6","title":"Crystal heat-release steering","prediction":"Neighbor growth direction changes with the source grain's growth bursts.","test":"Use benign salt crystals with local concentration and temperature imaging.","contrary":"Direction changes follow solute depletion alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0012","title":"Crystal heat-release steering","question":"Can latent heat from one growing grain redirect a neighboring grain's fastest face?","prediction":"Neighbor growth direction changes with the source grain's growth bursts.","test":"Use benign salt crystals with local concentration and temperature imaging.","contrary_outcome":"Direction changes follow solute depletion alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0013","id":"S6-0013","volume":"900v6","title":"Freeze-thaw pore valve","prediction":"An insulating gas gap forms behind the plug and delays interior freezing.","test":"Image safe transparent water pores with complete temperature maps.","contrary":"Interior freezing follows total frozen mass alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0013","title":"Freeze-thaw pore valve","question":"Can freezing only a pore's entrance preserve liquid inside longer than uniformly freezing the same water volume?","prediction":"An insulating gas gap forms behind the plug and delays interior freezing.","test":"Image safe transparent water pores with complete temperature maps.","contrary_outcome":"Interior freezing follows total frozen mass alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0014","id":"S6-0014","volume":"900v6","title":"Thermal basin spillover","prediction":"A delayed spatial heat pulse follows independently measured contact closure.","test":"Use safe low-power plate assemblies with controllable contacts.","contrary":"Heat release remains smooth after instrument-response correction.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0014","title":"Thermal basin spillover","question":"Can heat stored in a high-capacity island spread abruptly when a neighboring contact closes?","prediction":"A delayed spatial heat pulse follows independently measured contact closure.","test":"Use safe low-power plate assemblies with controllable contacts.","contrary_outcome":"Heat release remains smooth after instrument-response correction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0014","title":"Thermal basin spillover","question":"Can heat stored in a high-capacity island spread abruptly when a neighboring contact closes?","prediction":"A delayed spatial heat pulse follows independently measured contact closure.","test":"Use safe low-power plate assemblies with controllable contacts.","contrary_outcome":"Heat release remains smooth after instrument-response correction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0015","id":"S6-0015","volume":"900v6","title":"Evaporative chimney inversion","prediction":"Flow direction reverses at a measured humidity boundary.","test":"Measure safe water-fed chimneys with temperature, humidity and velocity profiles.","contrary":"Warm-wall buoyancy fixes the flow direction throughout the range.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0015","title":"Evaporative chimney inversion","question":"Can humid air descend through a warm porous chimney when evaporative cooling outweighs buoyancy from its wall?","prediction":"Flow direction reverses at a measured humidity boundary.","test":"Measure safe water-fed chimneys with temperature, humidity and velocity profiles.","contrary_outcome":"Warm-wall buoyancy fixes the flow direction throughout the range.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0016","id":"S6-0016","volume":"900v6","title":"Thermal disk ringdown discrimination","prediction":"Position-dependent decay separates independently calibrated perturbations.","test":"Use safe graded reference disks with interchangeable edge conditions.","contrary":"Both causes remain nonidentifiable across positions.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0016","title":"Thermal disk ringdown discrimination","question":"Can two heating positions distinguish radial conductivity grading from edge heat loss?","prediction":"Position-dependent decay separates independently calibrated perturbations.","test":"Use safe graded reference disks with interchangeable edge conditions.","contrary_outcome":"Both causes remain nonidentifiable across positions.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0017","id":"S6-0017","volume":"900v6","title":"Melt pocket capillary recoil","prediction":"Capillary-pressure release produces an early upward pulse.","test":"Image safe low-temperature wax-like phase-change models with pressure and velocity sensing.","contrary":"Motion begins only with buoyant circulation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0017","title":"Melt pocket capillary recoil","question":"Can a melting pocket expel liquid opposite gravity before buoyant flow develops?","prediction":"Capillary-pressure release produces an early upward pulse.","test":"Image safe low-temperature wax-like phase-change models with pressure and velocity sensing.","contrary_outcome":"Motion begins only with buoyant circulation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0018","id":"S6-0018","volume":"900v6","title":"Thermal vent enthalpy trap","prediction":"Vent-driven circulation transfers wall heat back into the interior before net exhaust dominates.","test":"Measure safe heated boxes with full wall and airflow calorimetry.","contrary":"Venting always increases instantaneous cooling under matched initial fields.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0018","title":"Thermal vent enthalpy trap","question":"Can a vented enclosure retain more heat than a sealed enclosure during one cooling interval?","prediction":"Vent-driven circulation transfers wall heat back into the interior before net exhaust dominates.","test":"Measure safe heated boxes with full wall and airflow calorimetry.","contrary_outcome":"Venting always increases instantaneous cooling under matched initial fields.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0019","id":"S6-0019","volume":"900v6","title":"Dew bridge contact ordering","prediction":"Early bridges cool their neighborhoods and bias later bridging locations.","test":"Image safe condensation arrays with branch heat-flux measurement.","contrary":"Final distribution depends only on total condensate mass.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0019","title":"Dew bridge contact ordering","question":"Can the order in which dew bridges form determine the final heat-flow distribution?","prediction":"Early bridges cool their neighborhoods and bias later bridging locations.","test":"Image safe condensation arrays with branch heat-flux measurement.","contrary_outcome":"Final distribution depends only on total condensate mass.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0020","id":"S6-0020","volume":"900v6","title":"Heat-storage strain gate","prediction":"Mechanical work shifts transient front motion while calorimetric equilibrium remains unchanged.","test":"Compare safe confined and freely expanding phase-change cells.","contrary":"Any delay is explained by heat-transfer resistance alone.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0020","title":"Heat-storage strain gate","question":"Can elastic confinement delay melting without changing the material's equilibrium transition temperature measurably?","prediction":"Mechanical work shifts transient front motion while calorimetric equilibrium remains unchanged.","test":"Compare safe confined and freely expanding phase-change cells.","contrary_outcome":"Any delay is explained by heat-transfer resistance alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0021","id":"S6-0021","volume":"900v6","title":"Thermal pulse residual geometry","prediction":"Residual structure follows branch connectivity despite matched total cooldown.","test":"Probe safe calibrated conductive networks from two source locations.","contrary":"Residuals depend only on source calibration error.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0021","title":"Thermal pulse residual geometry","question":"Can the spatial residual after subtracting two equal-energy heat pulses reveal a hidden conductive branch?","prediction":"Residual structure follows branch connectivity despite matched total cooldown.","test":"Probe safe calibrated conductive networks from two source locations.","contrary_outcome":"Residuals depend only on source calibration error.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0022","id":"S6-0022","volume":"900v6","title":"Frost lens radiative feedback","prediction":"Neighbor heating precedes growth avoidance and reverses with illumination angle.","test":"Use safe cold optical cells with calibrated low-power illumination.","contrary":"Growth follows only conductive cooling and vapor depletion.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0022","title":"Frost lens radiative feedback","question":"Can a thin frost patch focus incoming radiation into an unfrosted neighbor and redirect subsequent growth?","prediction":"Neighbor heating precedes growth avoidance and reverses with illumination angle.","test":"Use safe cold optical cells with calibrated low-power illumination.","contrary_outcome":"Growth follows only conductive cooling and vapor depletion.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0023","id":"S6-0023","volume":"900v6","title":"Wick thermal shock immunity","prediction":"The ring interrupts the propagation of a vapor blockage.","test":"Use safe transparent water wicks with equal-mass redistributed wetting patterns.","contrary":"Dryout depends only on total water inventory.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0023","title":"Wick thermal shock immunity","question":"Can prewetting a narrow ring prevent a hot dry patch from spreading without increasing total water mass?","prediction":"The ring interrupts the propagation of a vapor blockage.","test":"Use safe transparent water wicks with equal-mass redistributed wetting patterns.","contrary_outcome":"Dryout depends only on total water inventory.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0024","id":"S6-0024","volume":"900v6","title":"Thermal core-shell reversal","prediction":"Temperature-dependent internal gradients yield the asymmetric transient ranking.","test":"Measure safe reference objects with matched boundaries and embedded thermometry.","contrary":"One effective diffusivity predicts both transients.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0024","title":"Thermal core-shell reversal","question":"Can a core-shell object heat faster but cool slower than a homogeneous object of equal mass and average conductivity?","prediction":"Temperature-dependent internal gradients yield the asymmetric transient ranking.","test":"Measure safe reference objects with matched boundaries and embedded thermometry.","contrary_outcome":"One effective diffusivity predicts both transients.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0025","id":"S6-0025","volume":"900v6","title":"Condensation pore backflow","prediction":"Pressure redistribution produces remote liquid displacement ahead of the thermal front.","test":"Use safe water-vapor networks with pressure and temperature arrays.","contrary":"Liquid motion starts only after local cooling.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0025","title":"Condensation pore backflow","question":"Can condensing vapor drive liquid out of a side pore before that pore itself cools?","prediction":"Pressure redistribution produces remote liquid displacement ahead of the thermal front.","test":"Use safe water-vapor networks with pressure and temperature arrays.","contrary_outcome":"Liquid motion starts only after local cooling.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0026","id":"S6-0026","volume":"900v6","title":"Thermal seal acoustic witness","prediction":"A contact-mode change precedes a measurable conductance change.","test":"Use safe low-temperature seals with simultaneous acoustic and calorimetric measurements.","contrary":"Acoustic changes have no reproducible lead after bandwidth matching.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0026","title":"Thermal seal acoustic witness","question":"Can weak acoustic transmission identify a thermal-seal opening before steady heat leakage resolves?","prediction":"A contact-mode change precedes a measurable conductance change.","test":"Use safe low-temperature seals with simultaneous acoustic and calorimetric measurements.","contrary_outcome":"Acoustic changes have no reproducible lead after bandwidth matching.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0027","id":"S6-0027","volume":"900v6","title":"Ice-interface gas sorting","prediction":"Boundary wetting provides a preferred escape route.","test":"Freeze safe transparent water cells with controlled wall gradients and bubble tracking.","contrary":"Gas accumulates solely at the terminal freezing location.","layers":[1,2],"categories":["biology","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0027","title":"Ice-interface gas sorting","question":"Can a freezing front concentrate trapped gas at a deliberately warmer boundary instead of the last-freezing bulk region?","prediction":"Boundary wetting provides a preferred escape route.","test":"Freeze safe transparent water cells with controlled wall gradients and bubble tracking.","contrary_outcome":"Gas accumulates solely at the terminal freezing location.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0027","title":"Ice-interface gas sorting","question":"Can a freezing front concentrate trapped gas at a deliberately warmer boundary instead of the last-freezing bulk region?","prediction":"Boundary wetting provides a preferred escape route.","test":"Freeze safe transparent water cells with controlled wall gradients and bubble tracking.","contrary_outcome":"Gas accumulates solely at the terminal freezing location.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0028","id":"S6-0028","volume":"900v6","title":"Thermal fold view coupling","prediction":"Net cooling peaks at an interior angle after true area is fixed.","test":"Measure safe radiative panels with calibrated mutual view factors.","contrary":"Cooling changes monotonically with opening angle.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0028","title":"Thermal fold view coupling","question":"Can a folded radiator's neighboring panels heat each other enough to create an optimal opening angle?","prediction":"Net cooling peaks at an interior angle after true area is fixed.","test":"Measure safe radiative panels with calibrated mutual view factors.","contrary_outcome":"Cooling changes monotonically with opening angle.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0029","id":"S6-0029","volume":"900v6","title":"Evaporative porous cap","prediction":"Mass loss rises without cap wetting or increased liquid temperature.","test":"Use safe water wells with airflow and humidity mapping.","contrary":"Any increase requires cap wetting or airflow changes.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0029","title":"Evaporative porous cap","question":"Can a dry porous cap increase evaporation from a recessed liquid by breaking a stagnant vapor layer?","prediction":"Mass loss rises without cap wetting or increased liquid temperature.","test":"Use safe water wells with airflow and humidity mapping.","contrary_outcome":"Any increase requires cap wetting or airflow changes.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0030","id":"S6-0030","volume":"900v6","title":"Crystal annealing heat map","prediction":"Local heat aligns with disappearing strain features.","test":"Use safe low-temperature-compatible crystals with calorimetry and optical strain mapping.","contrary":"Heat is fully explained by temperature equilibration or phase change.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0030","title":"Crystal annealing heat map","question":"Can stress relaxation in a benign crystal produce a heat pattern without measurable grain growth?","prediction":"Local heat aligns with disappearing strain features.","test":"Use safe low-temperature-compatible crystals with calorimetry and optical strain mapping.","contrary_outcome":"Heat is fully explained by temperature equilibration or phase change.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0031","id":"S6-0031","volume":"900v6","title":"Thermal buffer motion","prediction":"Motion redistributes stored heat before it returns to the source.","test":"Measure safe low-power assemblies with complete actuator-work accounting.","contrary":"Benefit disappears after motion energy and boundary losses are included.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0031","title":"Thermal buffer motion","question":"Can translating a heat-capacity block reduce peak temperature more than the same block fixed at the source?","prediction":"Motion redistributes stored heat before it returns to the source.","test":"Measure safe low-power assemblies with complete actuator-work accounting.","contrary_outcome":"Benefit disappears after motion energy and boundary losses are included.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0032","id":"S6-0032","volume":"900v6","title":"Dew-front electrical isolation","prediction":"Disconnected pure-water bridges transfer heat before ionic percolation.","test":"Measure safe clean-water contacts with current-limited sensing and calorimetry.","contrary":"Thermal and electrical transitions coincide after sensitivity matching.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0032","title":"Dew-front electrical isolation","question":"Can condensation increase thermal conductance while leaving low-voltage electrical resistance high?","prediction":"Disconnected pure-water bridges transfer heat before ionic percolation.","test":"Measure safe clean-water contacts with current-limited sensing and calorimetry.","contrary_outcome":"Thermal and electrical transitions coincide after sensitivity matching.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0033","id":"S6-0033","volume":"900v6","title":"Thermal grain orientation memory","prediction":"Orientation accumulates under cycles and reverses with the gradient.","test":"Track safe grain packs with vibration-isolated uniform-temperature controls.","contrary":"Reorientation requires convection, vibration or bulk settling.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0033","title":"Thermal grain orientation memory","question":"Can a thermal gradient orient elongated inert grains through differential expansion at contacts?","prediction":"Orientation accumulates under cycles and reverses with the gradient.","test":"Track safe grain packs with vibration-isolated uniform-temperature controls.","contrary_outcome":"Reorientation requires convection, vibration or bulk settling.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0034","id":"S6-0034","volume":"900v6","title":"Melt-front acoustic back-action","prediction":"Front motion changes with probe duty cycle at constant temperature.","test":"Use safe phase-change cells with independent optical front tracking.","contrary":"Front speed is probe-power independent within uncertainty.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0034","title":"Melt-front acoustic back-action","question":"Can a weak probe's acoustic radiation pressure alter the melt-front speed being measured?","prediction":"Front motion changes with probe duty cycle at constant temperature.","test":"Use safe phase-change cells with independent optical front tracking.","contrary_outcome":"Front speed is probe-power independent within uncertainty.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0035","id":"S6-0035","volume":"900v6","title":"Radiative absorber saturation","prediction":"Temperature plateaus as geometric view to a cold sink increases.","test":"Use safe low-power composites with measured shape, emissivity and absorbed power.","contrary":"The plateau requires changed absorption or controller action.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0035","title":"Radiative absorber saturation","question":"Can a passive absorber limit its own temperature through a reversible shape change without changing spectral properties?","prediction":"Temperature plateaus as geometric view to a cold sink increases.","test":"Use safe low-power composites with measured shape, emissivity and absorbed power.","contrary_outcome":"The plateau requires changed absorption or controller action.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0036","id":"S6-0036","volume":"900v6","title":"Thermal liquid-bridge partition","prediction":"Geometry separates thermal and hydraulic resistance rankings.","test":"Measure safe water bridges with independent branch flow and calorimetry.","contrary":"Heat and liquid transport rank branches identically.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0036","title":"Thermal liquid-bridge partition","question":"Can one bridge carry most heat while another carries most liquid between the same reservoirs?","prediction":"Geometry separates thermal and hydraulic resistance rankings.","test":"Measure safe water bridges with independent branch flow and calorimetry.","contrary_outcome":"Heat and liquid transport rank branches identically.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0037","id":"S6-0037","volume":"900v6","title":"Freeze-front capillary suction","prediction":"A measured pressure gradient pulls liquid toward the front through the warm path.","test":"Use safe transparent water networks with local pressure and front imaging.","contrary":"Supply follows only the coldest connected channel.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0037","title":"Freeze-front capillary suction","question":"Can freezing draw water through a bypass that remains warmer than the freezing pore?","prediction":"A measured pressure gradient pulls liquid toward the front through the warm path.","test":"Use safe transparent water networks with local pressure and front imaging.","contrary_outcome":"Supply follows only the coldest connected channel.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0038","id":"S6-0038","volume":"900v6","title":"Thermal-contact cooling instability","prediction":"Differential contraction opens the contact and creates a delayed temperature shoulder.","test":"Measure safe dissimilar supports with gap and heat-flow sensing.","contrary":"The shoulder is explained by heat capacity alone.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0038","title":"Thermal-contact cooling instability","question":"Can cooling a preloaded contact reduce conductance enough to slow its own cooling?","prediction":"Differential contraction opens the contact and creates a delayed temperature shoulder.","test":"Measure safe dissimilar supports with gap and heat-flow sensing.","contrary_outcome":"The shoulder is explained by heat capacity alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0038","title":"Thermal-contact cooling instability","question":"Can cooling a preloaded contact reduce conductance enough to slow its own cooling?","prediction":"Differential contraction opens the contact and creates a delayed temperature shoulder.","test":"Measure safe dissimilar supports with gap and heat-flow sensing.","contrary_outcome":"The shoulder is explained by heat capacity alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0039","id":"S6-0039","volume":"900v6","title":"Evaporative crystal thermal lag","prediction":"A heat-release tail scales with independently measured residual solution conversion.","test":"Use benign brine films with mass, phase and calorimetric balance.","contrary":"The tail matches sensible heat relaxation without crystallization.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0039","title":"Evaporative crystal thermal lag","question":"Can a growing salt crust cool more slowly after evaporation stops because trapped solution continues crystallizing?","prediction":"A heat-release tail scales with independently measured residual solution conversion.","test":"Use benign brine films with mass, phase and calorimetric balance.","contrary_outcome":"The tail matches sensible heat relaxation without crystallization.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0040","id":"S6-0040","volume":"900v6","title":"Thermal source relocation memory","prediction":"The old position cools below its unheated baseline after relocation.","test":"Use safe water-fed surfaces with measured vapor flux and temperature.","contrary":"The wake remains warmer or follows changed airflow.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0040","title":"Thermal source relocation memory","question":"Can moving a heater leave a cold wake rather than a warm wake through delayed evaporation?","prediction":"The old position cools below its unheated baseline after relocation.","test":"Use safe water-fed surfaces with measured vapor flux and temperature.","contrary_outcome":"The wake remains warmer or follows changed airflow.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0041","id":"S6-0041","volume":"900v6","title":"Acoustic seam phase census","prediction":"Segment-specific sensitivities identify independently imaged closure patterns.","test":"Use safe low-power cavity seams with controlled contact segments.","contrary":"Modes respond only to total open length.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0041","title":"Acoustic seam phase census","question":"Can the phase of two acoustic modes count closed seam segments better than total resonance frequency?","prediction":"Segment-specific sensitivities identify independently imaged closure patterns.","test":"Use safe low-power cavity seams with controlled contact segments.","contrary_outcome":"Modes respond only to total open length.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0042","id":"S6-0042","volume":"900v6","title":"Optical capillary vortex marker","prediction":"Dynamic surface curvature carries a handed phase pattern.","test":"Compare low-power optical fields with independent velocimetry in safe water.","contrary":"The pattern tracks illumination asymmetry rather than circulation.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0042","title":"Optical capillary vortex marker","question":"Can a weak optical caustic reveal circulation sign in a clear liquid without tracer particles?","prediction":"Dynamic surface curvature carries a handed phase pattern.","test":"Compare low-power optical fields with independent velocimetry in safe water.","contrary_outcome":"The pattern tracks illumination asymmetry rather than circulation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0043","id":"S6-0043","volume":"900v6","title":"Elastic wave reservoir release","prediction":"Delayed energy exits when a reversible coupling contact opens.","test":"Measure safe beam networks with full vibration-energy maps.","contrary":"Energy release timing is independent of contact state.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0043","title":"Elastic wave reservoir release","question":"Can a side resonator release a stored pulse preferentially after the main pulse has passed?","prediction":"Delayed energy exits when a reversible coupling contact opens.","test":"Measure safe beam networks with full vibration-energy maps.","contrary_outcome":"Energy release timing is independent of contact state.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0044","id":"S6-0044","volume":"900v6","title":"Sound-shadow thermal splitting","prediction":"Diffraction and refraction compete over a calibrated band.","test":"Measure safe warm-air ducts with microphone arrays and temperature maps.","contrary":"Shadow location is frequency-independent after source directivity correction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0044","title":"Sound-shadow thermal splitting","question":"Can a temperature gradient split an acoustic shadow boundary into frequency-dependent edges?","prediction":"Diffraction and refraction compete over a calibrated band.","test":"Measure safe warm-air ducts with microphone arrays and temperature maps.","contrary_outcome":"Shadow location is frequency-independent after source directivity correction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0045","id":"S6-0045","volume":"900v6","title":"Optical layered-flow sign","prediction":"Dispersion separates oppositely directed refractive contributions.","test":"Use safe water mixtures with independently imposed gradients.","contrary":"Both colors remain proportional and cannot separate the signs.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0045","title":"Optical layered-flow sign","question":"Can two-color beam deflection determine the sign of counterflowing concentration and temperature gradients?","prediction":"Dispersion separates oppositely directed refractive contributions.","test":"Use safe water mixtures with independently imposed gradients.","contrary_outcome":"Both colors remain proportional and cannot separate the signs.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0046","id":"S6-0046","volume":"900v6","title":"Acoustic pore-wall breathing","prediction":"Wall motion stores and dissipates energy locally.","test":"Measure safe sealed elastic pore arrays with low-power sound and wall vibrometry.","contrary":"Absorption requires interconnected pore flow.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0046","title":"Acoustic pore-wall breathing","question":"Can compliant pore walls create a low-frequency absorption band without fluid exchange between pores?","prediction":"Wall motion stores and dissipates energy locally.","test":"Measure safe sealed elastic pore arrays with low-power sound and wall vibrometry.","contrary_outcome":"Absorption requires interconnected pore flow.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0047","id":"S6-0047","volume":"900v6","title":"Surface-wave defect clock","prediction":"Leakage alters the packet's long tail before level drift resolves.","test":"Use safe shallow-water basins with calibrated tiny drains.","contrary":"Tail changes are explained only by mean depth.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0047","title":"Surface-wave defect clock","question":"Can the decay of a localized wave pocket identify a hidden bottom leak despite unchanged mean depth?","prediction":"Leakage alters the packet's long tail before level drift resolves.","test":"Use safe shallow-water basins with calibrated tiny drains.","contrary_outcome":"Tail changes are explained only by mean depth.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0048","id":"S6-0048","volume":"900v6","title":"Optical phase object ordering","prediction":"Propagation between the objects makes the operators noncommuting.","test":"Use low-power light and calibrated benign phase masks.","contrary":"Order reversal leaves all measured textures unchanged.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0048","title":"Optical phase object ordering","question":"Can two transparent phase objects produce different intensity textures when their order is reversed?","prediction":"Propagation between the objects makes the operators noncommuting.","test":"Use low-power light and calibrated benign phase masks.","contrary_outcome":"Order reversal leaves all measured textures unchanged.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0049","id":"S6-0049","volume":"900v6","title":"Acoustic pressure-gradient map","prediction":"Angular response predicts independently measured particle velocity.","test":"Use safe low-power sound fields with traceable probe directivity.","contrary":"Gradient recovery fails after probe-loading correction.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0049","title":"Acoustic pressure-gradient map","question":"Can a small rotating dipole probe recover local pressure gradients missed by scalar pressure measurements?","prediction":"Angular response predicts independently measured particle velocity.","test":"Use safe low-power sound fields with traceable probe directivity.","contrary_outcome":"Gradient recovery fails after probe-loading correction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0049","title":"Acoustic pressure-gradient map","question":"Can a small rotating dipole probe recover local pressure gradients missed by scalar pressure measurements?","prediction":"Angular response predicts independently measured particle velocity.","test":"Use safe low-power sound fields with traceable probe directivity.","contrary_outcome":"Gradient recovery fails after probe-loading correction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0050","id":"S6-0050","volume":"900v6","title":"Elastic notch thermal reset","prediction":"Harmonic response resets while visible notch geometry returns unchanged.","test":"Use safe cracked-polymer analogues under mild controlled heating.","contrary":"Memory follows geometry or bulk modulus alone.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0050","title":"Elastic notch thermal reset","question":"Can a temperature pulse erase a defect's acoustic memory by releasing contact friction at its faces?","prediction":"Harmonic response resets while visible notch geometry returns unchanged.","test":"Use safe cracked-polymer analogues under mild controlled heating.","contrary_outcome":"Memory follows geometry or bulk modulus alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0051","id":"S6-0051","volume":"900v6","title":"Optical interface multiplicity","prediction":"Distinct path delays reveal separately calibrated interfaces.","test":"Use low-power optics on safe layered liquid cells.","contrary":"Only total optical thickness is identifiable.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0051","title":"Optical interface multiplicity","question":"Can a reflection phase scan count hidden liquid interfaces that share one projected outline?","prediction":"Distinct path delays reveal separately calibrated interfaces.","test":"Use low-power optics on safe layered liquid cells.","contrary_outcome":"Only total optical thickness is identifiable.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0052","id":"S6-0052","volume":"900v6","title":"Acoustic labyrinth pulse parity","prediction":"Unequal source-mode content explains apparent waveform asymmetry.","test":"Measure safe ducts with matched reciprocal launch and detection modes.","contrary":"Asymmetry remains after complete mode matching.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0052","title":"Acoustic labyrinth pulse parity","question":"Can an asymmetric passive labyrinth produce opposite pulse shapes in opposite directions while preserving reciprocal mode transfer?","prediction":"Unequal source-mode content explains apparent waveform asymmetry.","test":"Measure safe ducts with matched reciprocal launch and detection modes.","contrary_outcome":"Asymmetry remains after complete mode matching.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0053","id":"S6-0053","volume":"900v6","title":"Water-wave floating-gap resonance","prediction":"A gap resonance shifts into the packet band.","test":"Use safe small rafts with full surface and raft-motion tracking.","contrary":"Trapping weakens monotonically with separation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0053","title":"Water-wave floating-gap resonance","question":"Can a narrow gap between floating rafts trap waves more strongly after a slight raft separation increase?","prediction":"A gap resonance shifts into the packet band.","test":"Use safe small rafts with full surface and raft-motion tracking.","contrary_outcome":"Trapping weakens monotonically with separation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0054","id":"S6-0054","volume":"900v6","title":"Optical thermal-expansion discrimination","prediction":"The two channels have different calibrated path sensitivities.","test":"Measure safe mild heating with independent displacement sensing.","contrary":"Both perturbations remain indistinguishable.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0054","title":"Optical thermal-expansion discrimination","question":"Can reflected and transmitted phase distinguish specimen expansion from surrounding-air lensing?","prediction":"The two channels have different calibrated path sensitivities.","test":"Measure safe mild heating with independent displacement sensing.","contrary_outcome":"Both perturbations remain indistinguishable.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0055","id":"S6-0055","volume":"900v6","title":"Acoustic bubble-front localization","prediction":"Multiple scattering detects the front at lower bubble coverage.","test":"Use safe dilute air-water clouds with imaging and low-power pulses.","contrary":"First arrival is equally sensitive after uncertainty normalization.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0055","title":"Acoustic bubble-front localization","question":"Can a moving bubble layer be localized from coda changes before first-arrival changes resolve?","prediction":"Multiple scattering detects the front at lower bubble coverage.","test":"Use safe dilute air-water clouds with imaging and low-power pulses.","contrary_outcome":"First arrival is equally sensitive after uncertainty normalization.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0056","id":"S6-0056","volume":"900v6","title":"Elastic plate momentum exchange","prediction":"Measured edge rotation closes the wave angular-momentum balance.","test":"Use safe thin plates with vector vibrometry and calibrated supports.","contrary":"Rotation requires an unaccounted net force.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0056","title":"Elastic plate momentum exchange","question":"Can a bending wave transfer angular momentum to a free edge without net transverse force?","prediction":"Measured edge rotation closes the wave angular-momentum balance.","test":"Use safe thin plates with vector vibrometry and calibrated supports.","contrary_outcome":"Rotation requires an unaccounted net force.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0057","id":"S6-0057","volume":"900v6","title":"Optical droplet edge phase","prediction":"Edge-phase slope follows independently measured angle.","test":"Use low-power light on safe pinned water drops with side-view imaging.","contrary":"Phase depends only on radius and bulk index.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0057","title":"Optical droplet edge phase","question":"Can a droplet's contact-angle change be identified from diffraction phase while its radius stays fixed?","prediction":"Edge-phase slope follows independently measured angle.","test":"Use low-power light on safe pinned water drops with side-view imaging.","contrary_outcome":"Phase depends only on radius and bulk index.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0057","title":"Optical droplet edge phase","question":"Can a droplet's contact-angle change be identified from diffraction phase while its radius stays fixed?","prediction":"Edge-phase slope follows independently measured angle.","test":"Use low-power light on safe pinned water drops with side-view imaging.","contrary_outcome":"Phase depends only on radius and bulk index.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0058","id":"S6-0058","volume":"900v6","title":"Acoustic porous-wall shortcut","prediction":"A fast weak path interferes with a slower strong path.","test":"Measure safe low-power duct transfer with separately blocked paths.","contrary":"Delay reduction disappears after path-energy accounting.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0058","title":"Acoustic porous-wall shortcut","question":"Can a thin permeable wall shorten acoustic delay while lowering transmitted energy?","prediction":"A fast weak path interferes with a slower strong path.","test":"Measure safe low-power duct transfer with separately blocked paths.","contrary_outcome":"Delay reduction disappears after path-energy accounting.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0059","id":"S6-0059","volume":"900v6","title":"Water-wave obstacle thermal coupling","prediction":"Short-wave scattering shifts while gravity-wave scattering remains fixed.","test":"Use safe shallow water with calibrated temperature and surface cleanliness.","contrary":"Scattering is explained entirely by depth or flow.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0059","title":"Water-wave obstacle thermal coupling","question":"Can a mild thermal gradient alter scattering by changing capillary forces without changing water depth?","prediction":"Short-wave scattering shifts while gravity-wave scattering remains fixed.","test":"Use safe shallow water with calibrated temperature and surface cleanliness.","contrary_outcome":"Scattering is explained entirely by depth or flow.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0060","id":"S6-0060","volume":"900v6","title":"Optical strain singularity migration","prediction":"The optical zero relocates through interference before local strain arrives.","test":"Use safe films with synchronized full-field strain and low-power polarization imaging.","contrary":"Singularity motion follows the material strain front.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0060","title":"Optical strain singularity migration","question":"Can a polarization singularity move faster than the mechanical strain front in a transparent film?","prediction":"The optical zero relocates through interference before local strain arrives.","test":"Use safe films with synchronized full-field strain and low-power polarization imaging.","contrary_outcome":"Singularity motion follows the material strain front.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0061","id":"S6-0061","volume":"900v6","title":"Acoustic membrane edge reservoir","prediction":"Mode redistribution concentrates energy away from the mass.","test":"Measure safe membranes with calibrated drive work and full-field motion.","contrary":"Central amplitude follows total mass monotonically.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0061","title":"Acoustic membrane edge reservoir","question":"Can added edge mass increase central vibration at fixed total injected energy?","prediction":"Mode redistribution concentrates energy away from the mass.","test":"Measure safe membranes with calibrated drive work and full-field motion.","contrary_outcome":"Central amplitude follows total mass monotonically.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0062","id":"S6-0062","volume":"900v6","title":"Elastic wave crack-angle ambiguity","prediction":"Joint conversion phases distinguish the mirrored defects.","test":"Use safe machined plate standards with blind orientation labels.","contrary":"The mirror ambiguity remains after calibration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0062","title":"Elastic wave crack-angle ambiguity","question":"Can two source polarizations resolve mirrored crack orientations that one source cannot?","prediction":"Joint conversion phases distinguish the mirrored defects.","test":"Use safe machined plate standards with blind orientation labels.","contrary_outcome":"The mirror ambiguity remains after calibration.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0063","id":"S6-0063","volume":"900v6","title":"Optical scattering flow arrest","prediction":"Small-scale motion collapses before bulk displacement stops.","test":"Use safe inert suspensions with independent velocimetry.","contrary":"Decorrelation tracks mean velocity alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0063","title":"Optical scattering flow arrest","question":"Can scattered-light decorrelation detect fluid arrest before mean velocity reaches zero?","prediction":"Small-scale motion collapses before bulk displacement stops.","test":"Use safe inert suspensions with independent velocimetry.","contrary_outcome":"Decorrelation tracks mean velocity alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0064","id":"S6-0064","volume":"900v6","title":"Acoustic phase-space hysteresis","prediction":"Hidden contact state changes damping and mode coupling.","test":"Use safe low-power contact resonators with state imaging.","contrary":"Frequency alone predicts the complete transient.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0064","title":"Acoustic phase-space hysteresis","question":"Can a passive resonator retain different transient waveforms at the same instantaneous resonance frequency?","prediction":"Hidden contact state changes damping and mode coupling.","test":"Use safe low-power contact resonators with state imaging.","contrary_outcome":"Frequency alone predicts the complete transient.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0065","id":"S6-0065","volume":"900v6","title":"Water-wave flexural crossover","prediction":"Coupled flexural modes redistribute spectral energy.","test":"Use safe floating sheets with full energy spectra and source calibration.","contrary":"Every band is suppressed by the same factor.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0065","title":"Water-wave flexural crossover","question":"Can a floating film suppress one wave band while enhancing another at fixed total forcing?","prediction":"Coupled flexural modes redistribute spectral energy.","test":"Use safe floating sheets with full energy spectra and source calibration.","contrary_outcome":"Every band is suppressed by the same factor.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0066","id":"S6-0066","volume":"900v6","title":"Optical cavity boundary motion","prediction":"Energy leaves the observed mode but remains optically stored.","test":"Use low-power safe cavities with multi-mode detection and displacement sensing.","contrary":"Lost signal matches true absorbed power.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0066","title":"Optical cavity boundary motion","question":"Can boundary motion imitate absorption in a cavity ringdown if the detector samples only one mode?","prediction":"Energy leaves the observed mode but remains optically stored.","test":"Use low-power safe cavities with multi-mode detection and displacement sensing.","contrary_outcome":"Lost signal matches true absorbed power.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0067","id":"S6-0067","volume":"900v6","title":"Acoustic surface-film integrity","prediction":"Interfacial elasticity adds a measurable dispersion term.","test":"Use benign films on safe liquids with independent surface rheology.","contrary":"Dispersion requires optically resolved film mass.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0067","title":"Acoustic surface-film integrity","question":"Can a weak surface film be detected acoustically before its thickness is optically resolved?","prediction":"Interfacial elasticity adds a measurable dispersion term.","test":"Use benign films on safe liquids with independent surface rheology.","contrary_outcome":"Dispersion requires optically resolved film mass.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0068","id":"S6-0068","volume":"900v6","title":"Elastic wave edge defect parity","prediction":"Edge defects affect the two parities differently.","test":"Use safe plate standards with calibrated edge notches and uniform softening controls.","contrary":"Both mechanisms share identical parity response.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0068","title":"Elastic wave edge defect parity","question":"Can symmetric and antisymmetric launches separate edge damage from bulk softening?","prediction":"Edge defects affect the two parities differently.","test":"Use safe plate standards with calibrated edge notches and uniform softening controls.","contrary_outcome":"Both mechanisms share identical parity response.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0068","title":"Elastic wave edge defect parity","question":"Can symmetric and antisymmetric launches separate edge damage from bulk softening?","prediction":"Edge defects affect the two parities differently.","test":"Use safe plate standards with calibrated edge notches and uniform softening controls.","contrary_outcome":"Both mechanisms share identical parity response.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0069","id":"S6-0069","volume":"900v6","title":"Optical liquid-sheet thickness sign","prediction":"Joint phase increments resolve the sign.","test":"Use safe water sheets with independent thickness interferometry.","contrary":"Sign remains ambiguous under calibrated angles.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0069","title":"Optical liquid-sheet thickness sign","question":"Can two reflection angles recover whether a film is thickening or thinning despite fringe-order ambiguity?","prediction":"Joint phase increments resolve the sign.","test":"Use safe water sheets with independent thickness interferometry.","contrary_outcome":"Sign remains ambiguous under calibrated angles.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0070","id":"S6-0070","volume":"900v6","title":"Acoustic granular drainage front","prediction":"Spatial damping changes while mean stiffness remains matched.","test":"Use safe wet inert packs with optical moisture maps.","contrary":"Only mean moisture predicts the response.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0070","title":"Acoustic granular drainage front","question":"Can a drying front's position be estimated from mode-shape asymmetry at constant average resonance?","prediction":"Spatial damping changes while mean stiffness remains matched.","test":"Use safe wet inert packs with optical moisture maps.","contrary_outcome":"Only mean moisture predicts the response.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0071","id":"S6-0071","volume":"900v6","title":"Water-wave cavity transfer delay","prediction":"Energy accumulates across repeated exchange before release.","test":"Use safe shallow-water cavities with full space-time energy maps.","contrary":"Delayed amplitude follows incoherent reflection addition.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0071","title":"Water-wave cavity transfer delay","question":"Can coupling two basins create a delayed packet larger than either basin's direct reflection?","prediction":"Energy accumulates across repeated exchange before release.","test":"Use safe shallow-water cavities with full space-time energy maps.","contrary_outcome":"Delayed amplitude follows incoherent reflection addition.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0072","id":"S6-0072","volume":"900v6","title":"Optical reference-plane invariance","prediction":"Known free-space phase removes the apparent advance.","test":"Measure low-power passive filters with traceable path lengths.","contrary":"Negative delay persists after complete reference correction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0072","title":"Optical reference-plane invariance","question":"Can a claimed negative optical delay vanish after matching physical reference planes?","prediction":"Known free-space phase removes the apparent advance.","test":"Measure low-power passive filters with traceable path lengths.","contrary_outcome":"Negative delay persists after complete reference correction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0073","id":"S6-0073","volume":"900v6","title":"Acoustic source-support coupling","prediction":"Support modes alter radiating surface phase.","test":"Use safe low-power speakers with housing and surface-motion metrology.","contrary":"Directivity follows housing orientation alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0073","title":"Acoustic source-support coupling","question":"Can a soft support rotate source directivity without rotating the source housing?","prediction":"Support modes alter radiating surface phase.","test":"Use safe low-power speakers with housing and surface-motion metrology.","contrary_outcome":"Directivity follows housing orientation alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0074","id":"S6-0074","volume":"900v6","title":"Elastic pulse contact sequence","prediction":"Branch delays change in the optically verified closure sequence.","test":"Use safe transparent elastic networks with calibrated loads.","contrary":"Arrival order depends only on branch length.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0074","title":"Elastic pulse contact sequence","question":"Can a pulse's arrival order through branches reveal which contact closes first under preload?","prediction":"Branch delays change in the optically verified closure sequence.","test":"Use safe transparent elastic networks with calibrated loads.","contrary_outcome":"Arrival order depends only on branch length.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0075","id":"S6-0075","volume":"900v6","title":"Optical roughness hydration clock","prediction":"Small asperities fill earlier than large topographic features.","test":"Use low-power angular scattering on safe calibrated rough surfaces.","contrary":"All angular bands change together.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0075","title":"Optical roughness hydration clock","question":"Can wetting erase high-angle scattering before low-angle scattering changes?","prediction":"Small asperities fill earlier than large topographic features.","test":"Use low-power angular scattering on safe calibrated rough surfaces.","contrary_outcome":"All angular bands change together.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0076","id":"S6-0076","volume":"900v6","title":"Acoustic cavity moving-node test","prediction":"Damping maps reveal their distinct spatial shapes.","test":"Use safe cavities with low-power probes and a calibrated movable absorber.","contrary":"Both mode components respond identically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0076","title":"Acoustic cavity moving-node test","question":"Can moving a weak absorber distinguish two overlapping modes with equal measured frequencies?","prediction":"Damping maps reveal their distinct spatial shapes.","test":"Use safe cavities with low-power probes and a calibrated movable absorber.","contrary_outcome":"Both mode components respond identically.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0077","id":"S6-0077","volume":"900v6","title":"Water-wave capillary boundary slip","prediction":"Reduced pinning loss outweighs added viscous area.","test":"Use safe water basins with independently measured contact-line mobility.","contrary":"Damping follows wetted perimeter alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0077","title":"Water-wave capillary boundary slip","question":"Can a mobile contact line lower wave damping despite greater wetted perimeter?","prediction":"Reduced pinning loss outweighs added viscous area.","test":"Use safe water basins with independently measured contact-line mobility.","contrary_outcome":"Damping follows wetted perimeter alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0078","id":"S6-0078","volume":"900v6","title":"Optical phase-gradient energy","prediction":"Opposite angular sectors cancel in the full field.","test":"Use low-power safe phase masks with angular power and force bounds.","contrary":"Local deflection predicts net momentum without cancellation.","layers":[1],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0078","title":"Optical phase-gradient energy","question":"Can a large local beam deflection coexist with negligible net lateral optical momentum transfer?","prediction":"Opposite angular sectors cancel in the full field.","test":"Use low-power safe phase masks with angular power and force bounds.","contrary_outcome":"Local deflection predicts net momentum without cancellation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0079","id":"S6-0079","volume":"900v6","title":"Acoustic vent phase reset","prediction":"Meniscus removal changes reactive loading ahead of wet-wall losses.","test":"Use safe water-wetted vents with imaging and complex transfer measurement.","contrary":"Phase and magnitude recover simultaneously.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0079","title":"Acoustic vent phase reset","question":"Can draining a vent restore phase response before restoring transmission magnitude?","prediction":"Meniscus removal changes reactive loading ahead of wet-wall losses.","test":"Use safe water-wetted vents with imaging and complex transfer measurement.","contrary_outcome":"Phase and magnitude recover simultaneously.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0079","title":"Acoustic vent phase reset","question":"Can draining a vent restore phase response before restoring transmission magnitude?","prediction":"Meniscus removal changes reactive loading ahead of wet-wall losses.","test":"Use safe water-wetted vents with imaging and complex transfer measurement.","contrary_outcome":"Phase and magnitude recover simultaneously.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0080","id":"S6-0080","volume":"900v6","title":"Elastic mode thermal localization","prediction":"Support preload changes despite uniform specimen temperature.","test":"Use safe beam arrays with force and full-field vibration sensing.","contrary":"Localization requires a temperature gradient inside the specimen.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0080","title":"Elastic mode thermal localization","question":"Can uniform heating localize a mode through unequal thermal expansion of supports?","prediction":"Support preload changes despite uniform specimen temperature.","test":"Use safe beam arrays with force and full-field vibration sensing.","contrary_outcome":"Localization requires a temperature gradient inside the specimen.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0081","id":"S6-0081","volume":"900v6","title":"Optical colloid near-wall clock","prediction":"Joint polarization channels recover independently tracked motion components.","test":"Use safe inert anisotropic tracers under low-power light.","contrary":"Both channels depend only on translational diffusion.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0081","title":"Optical colloid near-wall clock","question":"Can polarization decorrelation distinguish particle rotation from translation near a wall?","prediction":"Joint polarization channels recover independently tracked motion components.","test":"Use safe inert anisotropic tracers under low-power light.","contrary_outcome":"Both channels depend only on translational diffusion.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0082","id":"S6-0082","volume":"900v6","title":"Acoustic waveguide branch shadow","prediction":"Interference creates a defect-sensitivity null.","test":"Measure safe calibrated ducts with removable branches and known defects.","contrary":"Defect sensitivity changes monotonically with total attenuation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0082","title":"Acoustic waveguide branch shadow","question":"Can an unused side branch reduce sensitivity to a downstream defect at one frequency?","prediction":"Interference creates a defect-sensitivity null.","test":"Measure safe calibrated ducts with removable branches and known defects.","contrary_outcome":"Defect sensitivity changes monotonically with total attenuation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0083","id":"S6-0083","volume":"900v6","title":"Surface-wave pinned-rim memory","prediction":"Contact-line pinning history changes boundary dissipation.","test":"Use safe basins with controlled fill cycles and boundary imaging.","contrary":"Damping is uniquely determined by current depth.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0083","title":"Surface-wave pinned-rim memory","question":"Can a previous water level alter later wave damping at the same current level?","prediction":"Contact-line pinning history changes boundary dissipation.","test":"Use safe basins with controlled fill cycles and boundary imaging.","contrary_outcome":"Damping is uniquely determined by current depth.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0084","id":"S6-0084","volume":"900v6","title":"Optical strain-history phase","prediction":"Path-dependent orientation leaves a polarization holonomy.","test":"Use safe low-power polarized light through calibrated deforming guides.","contrary":"Recovered optical phase is path-independent after stress relaxation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0084","title":"Optical strain-history phase","question":"Can a transparent loop retain a geometric optical phase after mechanical strain returns to zero?","prediction":"Path-dependent orientation leaves a polarization holonomy.","test":"Use safe low-power polarized light through calibrated deforming guides.","contrary_outcome":"Recovered optical phase is path-independent after stress relaxation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0085","id":"S6-0085","volume":"900v6","title":"Acoustic pressure-velocity mismatch","prediction":"Velocity phase reverses the flux direction.","test":"Measure safe standing/traveling mixtures with calibrated pressure-velocity probes.","contrary":"Pressure alone uniquely determines flux direction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0085","title":"Acoustic pressure-velocity mismatch","question":"Can equal local pressure imply opposite local energy fluxes in a multipath field?","prediction":"Velocity phase reverses the flux direction.","test":"Measure safe standing/traveling mixtures with calibrated pressure-velocity probes.","contrary_outcome":"Pressure alone uniquely determines flux direction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0086","id":"S6-0086","volume":"900v6","title":"Elastic defect resonance splitting","prediction":"Local overlap controls perturbation sensitivity.","test":"Use safe mechanical lattices with full mode maps.","contrary":"Both modes shift equally after energy normalization.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0086","title":"Elastic defect resonance splitting","question":"Can a tiny reversible contact split a localized mode more than an extended mode of equal frequency?","prediction":"Local overlap controls perturbation sensitivity.","test":"Use safe mechanical lattices with full mode maps.","contrary_outcome":"Both modes shift equally after energy normalization.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0087","id":"S6-0087","volume":"900v6","title":"Optical evaporative flow boundary","prediction":"Continuous fluid composition creates a sharp integrated phase gradient.","test":"Use safe benign solution flows with independent concentration imaging.","contrary":"Phase discontinuities always coincide with physical interfaces.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0087","title":"Optical evaporative flow boundary","question":"Can an optical phase discontinuity mark a concentration boundary with no material interface?","prediction":"Continuous fluid composition creates a sharp integrated phase gradient.","test":"Use safe benign solution flows with independent concentration imaging.","contrary_outcome":"Phase discontinuities always coincide with physical interfaces.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0088","id":"S6-0088","volume":"900v6","title":"Acoustic water-film impedance loop","prediction":"Thickness and contact topology contribute different phases.","test":"Use safe films with gravimetry and low-power acoustic spectroscopy.","contrary":"Impedance follows a single-valued function of mass.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0088","title":"Acoustic water-film impedance loop","question":"Can a draining film trace a closed complex-impedance loop while its mass decreases monotonically?","prediction":"Thickness and contact topology contribute different phases.","test":"Use safe films with gravimetry and low-power acoustic spectroscopy.","contrary_outcome":"Impedance follows a single-valued function of mass.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0088","title":"Acoustic water-film impedance loop","question":"Can a draining film trace a closed complex-impedance loop while its mass decreases monotonically?","prediction":"Thickness and contact topology contribute different phases.","test":"Use safe films with gravimetry and low-power acoustic spectroscopy.","contrary_outcome":"Impedance follows a single-valued function of mass.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0089","id":"S6-0089","volume":"900v6","title":"Water-wave disorder transparency","prediction":"It shifts a destructive interference condition.","test":"Use safe low-amplitude waves with full complex-field mapping.","contrary":"Every added obstacle lowers transmission across the measured band.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0089","title":"Water-wave disorder transparency","question":"Can adding one obstacle increase transmission through a disordered shallow-water array?","prediction":"It shifts a destructive interference condition.","test":"Use safe low-amplitude waves with full complex-field mapping.","contrary_outcome":"Every added obstacle lowers transmission across the measured band.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0090","id":"S6-0090","volume":"900v6","title":"Optical soft-lens contact memory","prediction":"Residual deformation relaxes optically before outer shape metrology resolves it.","test":"Use safe soft lenses with low-power wavefront sensing.","contrary":"Focus returns immediately whenever force is zero.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0090","title":"Optical soft-lens contact memory","question":"Can lens contact history change focusing after the contact force returns to zero?","prediction":"Residual deformation relaxes optically before outer shape metrology resolves it.","test":"Use safe soft lenses with low-power wavefront sensing.","contrary_outcome":"Focus returns immediately whenever force is zero.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0091","id":"S6-0091","volume":"900v6","title":"Acoustic wake pressure lens","prediction":"Direction-dependent phase follows independently measured vorticity.","test":"Use safe low-speed air vortices with bidirectional sound and thermal mapping.","contrary":"Phase is explained by temperature alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0091","title":"Acoustic wake pressure lens","question":"Can weak mean circulation refract sound detectably without changing path-average temperature?","prediction":"Direction-dependent phase follows independently measured vorticity.","test":"Use safe low-speed air vortices with bidirectional sound and thermal mapping.","contrary_outcome":"Phase is explained by temperature alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0092","id":"S6-0092","volume":"900v6","title":"Elastic pulse geometric echo","prediction":"Curvature converts and recirculates polarization.","test":"Measure safe looped beams with vector vibrometry and straight controls.","contrary":"All delayed energy remains bending-polarized.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0092","title":"Elastic pulse geometric echo","question":"Can a beam loop produce a delayed torsional echo from a purely bending launch?","prediction":"Curvature converts and recirculates polarization.","test":"Measure safe looped beams with vector vibrometry and straight controls.","contrary_outcome":"All delayed energy remains bending-polarized.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0093","id":"S6-0093","volume":"900v6","title":"Optical crystal growth wavefront","prediction":"Wavefront anisotropy precedes directly imaged bunches.","test":"Use benign transparent crystals with low-power interferometry.","contrary":"Wavefront changes follow only bulk index drift.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0093","title":"Optical crystal growth wavefront","question":"Can a growth face's step bunching be inferred from optical wavefront curvature before steps resolve?","prediction":"Wavefront anisotropy precedes directly imaged bunches.","test":"Use benign transparent crystals with low-power interferometry.","contrary_outcome":"Wavefront changes follow only bulk index drift.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0094","id":"S6-0094","volume":"900v6","title":"Acoustic porous coating detachment","prediction":"Interfacial phase shifts precede amplitude loss.","test":"Use safe coated plates with independent gap imaging.","contrary":"Phase changes require resolved bulk transmission changes.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0094","title":"Acoustic porous coating detachment","question":"Can a coating detach acoustically before its bulk transmission changes?","prediction":"Interfacial phase shifts precede amplitude loss.","test":"Use safe coated plates with independent gap imaging.","contrary_outcome":"Phase changes require resolved bulk transmission changes.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0095","id":"S6-0095","volume":"900v6","title":"Water-wave movable shoreline","prediction":"Packet energy depends on the shoreline-motion phase.","test":"Use safe shallow-water basins with actuator-work accounting.","contrary":"Energy depends only on initial and final shoreline positions.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0095","title":"Water-wave movable shoreline","question":"Can slow shoreline motion exchange energy with a packet even when net shoreline displacement is zero?","prediction":"Packet energy depends on the shoreline-motion phase.","test":"Use safe shallow-water basins with actuator-work accounting.","contrary_outcome":"Energy depends only on initial and final shoreline positions.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0096","id":"S6-0096","volume":"900v6","title":"Optical surface-tension inference","prediction":"Their dispersion/attenuation pairs identify independently calibrated properties.","test":"Use benign safe interfaces with low-power optical wave tracking.","contrary":"Both parameters remain degenerate.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0096","title":"Optical surface-tension inference","question":"Can two capillary-wave wavelengths separate surface tension from surface elasticity?","prediction":"Their dispersion/attenuation pairs identify independently calibrated properties.","test":"Use benign safe interfaces with low-power optical wave tracking.","contrary_outcome":"Both parameters remain degenerate.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0096","title":"Optical surface-tension inference","question":"Can two capillary-wave wavelengths separate surface tension from surface elasticity?","prediction":"Their dispersion/attenuation pairs identify independently calibrated properties.","test":"Use benign safe interfaces with low-power optical wave tracking.","contrary_outcome":"Both parameters remain degenerate.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0097","id":"S6-0097","volume":"900v6","title":"Acoustic hidden-volume census","prediction":"A multi-time-scale tail resolves independently known volumes.","test":"Use safe low-pressure air networks with calibrated neck impedances.","contrary":"Only total volume can be recovered.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0097","title":"Acoustic hidden-volume census","question":"Can a pressure pulse count disconnected side volumes connected through different narrow necks?","prediction":"A multi-time-scale tail resolves independently known volumes.","test":"Use safe low-pressure air networks with calibrated neck impedances.","contrary_outcome":"Only total volume can be recovered.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0098","id":"S6-0098","volume":"900v6","title":"Elastic contact noise cooling","prediction":"Lower background motion allows larger isolated stick-slip events.","test":"Use safe low-load contacts with calibrated vibration and force imaging.","contrary":"Noise decreases monotonically with vibration level.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0098","title":"Elastic contact noise cooling","question":"Can reducing mean vibration increase intermittent contact noise near a closing threshold?","prediction":"Lower background motion allows larger isolated stick-slip events.","test":"Use safe low-load contacts with calibrated vibration and force imaging.","contrary_outcome":"Noise decreases monotonically with vibration level.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0099","id":"S6-0099","volume":"900v6","title":"Optical thermal fringe parity","prediction":"Gradient reversal changes one component while wedge phase remains fixed.","test":"Use safe transparent cells with low-power interferometry.","contrary":"Both perturbations transform identically.","layers":[1],"categories":["physical","energy","biology","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0099","title":"Optical thermal fringe parity","question":"Can fringe symmetry distinguish a lateral temperature gradient from a uniform window wedge?","prediction":"Gradient reversal changes one component while wedge phase remains fixed.","test":"Use safe transparent cells with low-power interferometry.","contrary_outcome":"Both perturbations transform identically.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0100","id":"S6-0100","volume":"900v6","title":"Acoustic granular surface wave","prediction":"Contact-scale dispersion creates a surface-localized band.","test":"Use safe inert packs with depth-resolved vibration sensing.","contrary":"Guidance requires a bulk-average velocity contrast.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0100","title":"Acoustic granular surface wave","question":"Can a shallow compliant grain layer guide sound above a stiffer substrate without a velocity contrast in the bulk average?","prediction":"Contact-scale dispersion creates a surface-localized band.","test":"Use safe inert packs with depth-resolved vibration sensing.","contrary_outcome":"Guidance requires a bulk-average velocity contrast.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0101","id":"S6-0101","volume":"900v6","title":"Seed meniscus orientation gate","prediction":"Face-speed ranking changes across a calibrated meniscus depth.","test":"Grow benign salt seeds with fixed orientation and local concentration imaging.","contrary":"Face ranking is independent of immersion after transport correction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0101","title":"Seed meniscus orientation gate","question":"Can a seed's immersion depth select which crystal face first escapes transport limitation?","prediction":"Face-speed ranking changes across a calibrated meniscus depth.","test":"Grow benign salt seeds with fixed orientation and local concentration imaging.","contrary_outcome":"Face ranking is independent of immersion after transport correction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0102","id":"S6-0102","volume":"900v6","title":"Crystal pore dissolution ratchet","prediction":"Asymmetric dissolution/regrowth shifts its center over cycles.","test":"Image benign salt plugs with full solid-mass balance.","contrary":"Motion requires net mass loss or fluid advection.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0102","title":"Crystal pore dissolution ratchet","question":"Can alternating clean and saturated solution move a crystal plug without net dissolution?","prediction":"Asymmetric dissolution/regrowth shifts its center over cycles.","test":"Image benign salt plugs with full solid-mass balance.","contrary_outcome":"Motion requires net mass loss or fluid advection.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0103","id":"S6-0103","volume":"900v6","title":"Drying crust sound barrier","prediction":"Acoustic impedance rises while measurable vapor flux persists.","test":"Use benign brine films with sound, mass and morphology measurements.","contrary":"Both transport barriers appear together.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0103","title":"Drying crust sound barrier","question":"Can a thin precipitate skin block sound before it seals vapor transport?","prediction":"Acoustic impedance rises while measurable vapor flux persists.","test":"Use benign brine films with sound, mass and morphology measurements.","contrary_outcome":"Both transport barriers appear together.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0103","title":"Drying crust sound barrier","question":"Can a thin precipitate skin block sound before it seals vapor transport?","prediction":"Acoustic impedance rises while measurable vapor flux persists.","test":"Use benign brine films with sound, mass and morphology measurements.","contrary_outcome":"Both transport barriers appear together.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0104","id":"S6-0104","volume":"900v6","title":"Crystal film stress rotation","prediction":"Grain impingement redirects load paths.","test":"Use benign crystalline films with diffraction and optical strain mapping.","contrary":"Stress axes remain locked to lattice orientation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0104","title":"Crystal film stress rotation","question":"Can a growing film rotate its principal stress axes while crystal orientation remains fixed?","prediction":"Grain impingement redirects load paths.","test":"Use benign crystalline films with diffraction and optical strain mapping.","contrary_outcome":"Stress axes remain locked to lattice orientation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0105","id":"S6-0105","volume":"900v6","title":"Hydrate front pressure release","prediction":"Gas displacement limits the unvented front.","test":"Use safe hydrate analogues in transparent channels with pressure sensing.","contrary":"Front speed is vent-independent after humidity matching.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0105","title":"Hydrate front pressure release","question":"Can hydration advance faster after a pressure vent opens far behind the front?","prediction":"Gas displacement limits the unvented front.","test":"Use safe hydrate analogues in transparent channels with pressure sensing.","contrary_outcome":"Front speed is vent-independent after humidity matching.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0106","id":"S6-0106","volume":"900v6","title":"Crystal terrace fluid capture","prediction":"Local growth persists from a measured trapped solute inventory.","test":"Image benign crystal terraces after controlled bulk saturation.","contrary":"Growth stops simultaneously across the face.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0106","title":"Crystal terrace fluid capture","question":"Can a deep terrace trap solution that keeps growing after the surrounding face stops?","prediction":"Local growth persists from a measured trapped solute inventory.","test":"Image benign crystal terraces after controlled bulk saturation.","contrary_outcome":"Growth stops simultaneously across the face.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0107","id":"S6-0107","volume":"900v6","title":"Nucleation heat competition","prediction":"Suppression persists when concentration is replenished but vanishes under strong thermal anchoring.","test":"Use benign crystallization microcells with independent heat/solute controls.","contrary":"Suppression follows concentration alone.","layers":[1],"categories":["energy","biology","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0107","title":"Nucleation heat competition","question":"Can an early nucleus suppress later nuclei through heat rather than solute depletion?","prediction":"Suppression persists when concentration is replenished but vanishes under strong thermal anchoring.","test":"Use benign crystallization microcells with independent heat/solute controls.","contrary_outcome":"Suppression follows concentration alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0108","id":"S6-0108","volume":"900v6","title":"Crystal edge acoustic localization","prediction":"A localized vibration appears with the developing stiffness ridge.","test":"Use benign crystal-on-support growth with low-power vibrometry.","contrary":"Mode localization requires resolved geometric thickening.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0108","title":"Crystal edge acoustic localization","question":"Can a growth edge localize an elastic mode before becoming optically sharp?","prediction":"A localized vibration appears with the developing stiffness ridge.","test":"Use benign crystal-on-support growth with low-power vibrometry.","contrary_outcome":"Mode localization requires resolved geometric thickening.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0109","id":"S6-0109","volume":"900v6","title":"Salt film rewetting geometry","prediction":"Tip rounding precedes face loss and raises failure load.","test":"Use benign salt films with microscopy and safe microforce tests.","contrary":"Rewetting only weakens the film.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0109","title":"Salt film rewetting geometry","question":"Can rewetting dissolve a crack tip while leaving crack faces intact enough to heal mechanically?","prediction":"Tip rounding precedes face loss and raises failure load.","test":"Use benign salt films with microscopy and safe microforce tests.","contrary_outcome":"Rewetting only weakens the film.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0110","id":"S6-0110","volume":"900v6","title":"Crystal growth magnetic artifact","prediction":"Changes vanish after verified particulate removal.","test":"Use benign salt solutions with modest fields and particle controls.","contrary":"Effects persist without particles and without flow changes.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0110","title":"Crystal growth magnetic artifact","question":"Can a nearby weak magnet alter measured growth through movement of magnetic impurities rather than direct crystal response?","prediction":"Changes vanish after verified particulate removal.","test":"Use benign salt solutions with modest fields and particle controls.","contrary_outcome":"Effects persist without particles and without flow changes.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0111","id":"S6-0111","volume":"900v6","title":"Confined dissolution pressure sign","prediction":"Solution uptake swells an interfacial layer before solid recession dominates.","test":"Use benign crystals with force, gap and solution-volume measurements.","contrary":"Pressure falls monotonically with dissolution.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0111","title":"Confined dissolution pressure sign","question":"Can dissolving a confined crystal temporarily raise contact pressure?","prediction":"Solution uptake swells an interfacial layer before solid recession dominates.","test":"Use benign crystals with force, gap and solution-volume measurements.","contrary_outcome":"Pressure falls monotonically with dissolution.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0112","id":"S6-0112","volume":"900v6","title":"Crystallization strain wave","prediction":"Support strain reaches the neighbor before its growth changes.","test":"Use benign crystal arrays on safe flexible films.","contrary":"Only solute-connected neighbors respond.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0112","title":"Crystallization strain wave","question":"Can one grain's impingement cause a delayed growth pause in another noncontacting grain through a compliant support?","prediction":"Support strain reaches the neighbor before its growth changes.","test":"Use benign crystal arrays on safe flexible films.","contrary_outcome":"Only solute-connected neighbors respond.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0113","id":"S6-0113","volume":"900v6","title":"Crystal orientation memory bath","prediction":"Bias survives complete seed dissolution but disappears after surface resurfacing.","test":"Use benign salt seeds with independent surface topography controls.","contrary":"Later orientation is random after dissolution.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0113","title":"Crystal orientation memory bath","question":"Can a dissolved seed leave an orientation bias in later crystals through a textured footprint?","prediction":"Bias survives complete seed dissolution but disappears after surface resurfacing.","test":"Use benign salt seeds with independent surface topography controls.","contrary_outcome":"Later orientation is random after dissolution.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0114","id":"S6-0114","volume":"900v6","title":"Salt crust vapor lens","prediction":"Outlet flux becomes localized before total evaporation changes.","test":"Use benign brine layers with spatial humidity and pore imaging.","contrary":"Flux follows only local crust thickness.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0114","title":"Salt crust vapor lens","question":"Can a porous crust focus vapor transport into a few outlets despite uniform underlying liquid supply?","prediction":"Outlet flux becomes localized before total evaporation changes.","test":"Use benign brine layers with spatial humidity and pore imaging.","contrary_outcome":"Flux follows only local crust thickness.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0115","id":"S6-0115","volume":"900v6","title":"Crystal inclusion thermal breathing","prediction":"Birefringence oscillates with pressure-driven shape changes.","test":"Use benign transparent crystals with low-amplitude thermal cycles.","contrary":"Strain follows bulk expansion alone.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0115","title":"Crystal inclusion thermal breathing","question":"Can a trapped solution inclusion cyclically load a crystal under mild temperature changes without changing total inclusion volume measurably?","prediction":"Birefringence oscillates with pressure-driven shape changes.","test":"Use benign transparent crystals with low-amplitude thermal cycles.","contrary_outcome":"Strain follows bulk expansion alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0115","title":"Crystal inclusion thermal breathing","question":"Can a trapped solution inclusion cyclically load a crystal under mild temperature changes without changing total inclusion volume measurably?","prediction":"Birefringence oscillates with pressure-driven shape changes.","test":"Use benign transparent crystals with low-amplitude thermal cycles.","contrary_outcome":"Strain follows bulk expansion alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0116","id":"S6-0116","volume":"900v6","title":"Growth front boundary-layer rupture","prediction":"Flow separation precedes the burst at fixed bulk supersaturation.","test":"Use benign salt cells with synchronized concentration and velocimetry.","contrary":"Bursts occur without boundary-layer detachment.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0116","title":"Growth front boundary-layer rupture","question":"Can a crystal face show a speed burst when a solutal boundary layer detaches?","prediction":"Flow separation precedes the burst at fixed bulk supersaturation.","test":"Use benign salt cells with synchronized concentration and velocimetry.","contrary_outcome":"Bursts occur without boundary-layer detachment.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0117","id":"S6-0117","volume":"900v6","title":"Crystal porosity healing threshold","prediction":"Critical throats seal first.","test":"Measure benign porous salt solids with gas flow and tomography.","contrary":"Permeability follows total porosity smoothly.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0117","title":"Crystal porosity healing threshold","question":"Can recrystallization close gas pathways before substantially reducing total porosity?","prediction":"Critical throats seal first.","test":"Measure benign porous salt solids with gas flow and tomography.","contrary_outcome":"Permeability follows total porosity smoothly.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0118","id":"S6-0118","volume":"900v6","title":"Dissolution etch-pit coupling","prediction":"Neighbor retreat decreases as pits approach.","test":"Image benign crystals under constant bulk undersaturation.","contrary":"Pit rates remain independent after curvature correction.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0118","title":"Dissolution etch-pit coupling","question":"Can one etch pit slow a neighboring pit through shared diffusion despite increasing total dissolving area?","prediction":"Neighbor retreat decreases as pits approach.","test":"Image benign crystals under constant bulk undersaturation.","contrary_outcome":"Pit rates remain independent after curvature correction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0119","id":"S6-0119","volume":"900v6","title":"Crystal acoustic heat separation","prediction":"Independent calibration gives nonparallel sensitivity vectors.","test":"Use benign crystals with controlled inclusion drainage and mild heating.","contrary":"Both perturbations remain degenerate.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0119","title":"Crystal acoustic heat separation","question":"Can resonant-frequency and damping shifts distinguish thermal expansion from trapped-liquid loss?","prediction":"Independent calibration gives nonparallel sensitivity vectors.","test":"Use benign crystals with controlled inclusion drainage and mild heating.","contrary_outcome":"Both perturbations remain degenerate.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0120","id":"S6-0120","volume":"900v6","title":"Salt film load-path inversion","prediction":"Liquid bridges and weakened bonds affect the loading modes differently.","test":"Measure safe benign films under restrained low loads.","contrary":"Both strengths change in the same direction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0120","title":"Salt film load-path inversion","question":"Can a wetter crystalline film carry more compression but less tension than a drier film of equal solid mass?","prediction":"Liquid bridges and weakened bonds affect the loading modes differently.","test":"Measure safe benign films under restrained low loads.","contrary_outcome":"Both strengths change in the same direction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0121","id":"S6-0121","volume":"900v6","title":"Crystal-front light guiding","prediction":"Optical intensity redistribution precedes spatial nucleation bias.","test":"Use benign crystals under safe low-power patterned light.","contrary":"Nucleation bias is unchanged in darkness or uniform absorbed heating.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0121","title":"Crystal-front light guiding","question":"Can a growing transparent crystal guide illumination enough to shift where neighboring crystals nucleate?","prediction":"Optical intensity redistribution precedes spatial nucleation bias.","test":"Use benign crystals under safe low-power patterned light.","contrary_outcome":"Nucleation bias is unchanged in darkness or uniform absorbed heating.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0122","id":"S6-0122","volume":"900v6","title":"Hydrate thermal-contact latch","prediction":"Conductance switches at partial measured conversion.","test":"Use safe hydrate-filled compliant contacts with calorimetry and phase mapping.","contrary":"Switching requires complete hydration or external load changes.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0122","title":"Hydrate thermal-contact latch","question":"Can a reversible hydration expansion close a heat switch before full chemical equilibration?","prediction":"Conductance switches at partial measured conversion.","test":"Use safe hydrate-filled compliant contacts with calorimetry and phase mapping.","contrary_outcome":"Switching requires complete hydration or external load changes.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0123","id":"S6-0123","volume":"900v6","title":"Crystal slurry wall cooling","prediction":"Wall heat flux falls before bulk nuclei increase.","test":"Use benign salt slurries with wall/bulk thermometry and microscopy.","contrary":"Bulk nucleation follows only average supersaturation.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0123","title":"Crystal slurry wall cooling","question":"Can wall crystallization insulate a slurry enough to move subsequent nucleation into the bulk?","prediction":"Wall heat flux falls before bulk nuclei increase.","test":"Use benign salt slurries with wall/bulk thermometry and microscopy.","contrary_outcome":"Bulk nucleation follows only average supersaturation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0124","id":"S6-0124","volume":"900v6","title":"Dissolution gas-path opening","prediction":"Gas breakthrough occurs before geometric solid clearance.","test":"Use benign transparent pore models with safe low-pressure gas.","contrary":"Breakthrough requires full removal of the blocking solid.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0124","title":"Dissolution gas-path opening","question":"Can dissolving a nonspanning crystal reopen a gas path by changing wetting topology?","prediction":"Gas breakthrough occurs before geometric solid clearance.","test":"Use benign transparent pore models with safe low-pressure gas.","contrary_outcome":"Breakthrough requires full removal of the blocking solid.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0125","id":"S6-0125","volume":"900v6","title":"Crystal face roughness inversion","prediction":"Projected growth falls while true area rises.","test":"Use benign crystals with 3D roughness and concentration measurements.","contrary":"True area always increases net growth flux.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0125","title":"Crystal face roughness inversion","question":"Can a rougher face grow more slowly because its extra area traps stagnant depleted solution?","prediction":"Projected growth falls while true area rises.","test":"Use benign crystals with 3D roughness and concentration measurements.","contrary_outcome":"True area always increases net growth flux.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0126","id":"S6-0126","volume":"900v6","title":"Salt bridge thermal anisotropy","prediction":"Contact-neck alignment dominates transport.","test":"Measure benign bridges with orientation and contact tomography.","contrary":"Grain orientation alone explains anisotropy.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0126","title":"Salt bridge thermal anisotropy","question":"Can a crystal bridge carry heat preferentially along its growth direction despite isotropic grain-average conductivity?","prediction":"Contact-neck alignment dominates transport.","test":"Measure benign bridges with orientation and contact tomography.","contrary_outcome":"Grain orientation alone explains anisotropy.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0126","title":"Salt bridge thermal anisotropy","question":"Can a crystal bridge carry heat preferentially along its growth direction despite isotropic grain-average conductivity?","prediction":"Contact-neck alignment dominates transport.","test":"Measure benign bridges with orientation and contact tomography.","contrary_outcome":"Grain orientation alone explains anisotropy.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0127","id":"S6-0127","volume":"900v6","title":"Crystal coalescence torque","prediction":"Capillary torque opposes geometric alignment over a finite separation.","test":"Use benign floating crystals with 3D shape and torque bounds.","contrary":"Bridge forces always align nearest faces.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0127","title":"Crystal coalescence torque","question":"Can two approaching grains rotate apart when a liquid bridge forms between asymmetric faces?","prediction":"Capillary torque opposes geometric alignment over a finite separation.","test":"Use benign floating crystals with 3D shape and torque bounds.","contrary_outcome":"Bridge forces always align nearest faces.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0128","id":"S6-0128","volume":"900v6","title":"Crystallization optical precursor audit","prediction":"Temperature correction removes its apparent independent predictive power.","test":"Use benign solutions with dual concentration/temperature calibration.","contrary":"The optical precursor remains independently predictive.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0128","title":"Crystallization optical precursor audit","question":"Can a refractive-index front predict crystal birth only because it marks local cooling?","prediction":"Temperature correction removes its apparent independent predictive power.","test":"Use benign solutions with dual concentration/temperature calibration.","contrary_outcome":"The optical precursor remains independently predictive.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0129","id":"S6-0129","volume":"900v6","title":"Salt crust bending reversal","prediction":"Stress shifts from capillary suction to differential contraction.","test":"Measure benign supported crusts with strain, moisture and curvature imaging.","contrary":"Curvature keeps one sign throughout equilibration.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0129","title":"Salt crust bending reversal","question":"Can a drying crust bend one way during growth and the opposite way after evaporation stops?","prediction":"Stress shifts from capillary suction to differential contraction.","test":"Measure benign supported crusts with strain, moisture and curvature imaging.","contrary_outcome":"Curvature keeps one sign throughout equilibration.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0130","id":"S6-0130","volume":"900v6","title":"Crystal pore solute archive","prediction":"Spatial tracer layers follow pulse chronology.","test":"Use safe nonreactive optical tracers in benign salt growth with calibration.","contrary":"Inclusion patterns depend only on average tracer concentration.","layers":[1],"categories":["physical","data","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0130","title":"Crystal pore solute archive","question":"Can final inclusions preserve the order of solution pulses rather than just average composition?","prediction":"Spatial tracer layers follow pulse chronology.","test":"Use safe nonreactive optical tracers in benign salt growth with calibration.","contrary_outcome":"Inclusion patterns depend only on average tracer concentration.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0131","id":"S6-0131","volume":"900v6","title":"Dissolution wall-slip source","prediction":"Self-generated concentration gradients create a resolved boundary flow.","test":"Use benign crystals with particle velocimetry and gravity-reversal controls.","contrary":"Flow is fully explained by buoyancy.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0131","title":"Dissolution wall-slip source","question":"Can a retreating crystal face drive tangential flow along itself without an imposed bulk gradient?","prediction":"Self-generated concentration gradients create a resolved boundary flow.","test":"Use benign crystals with particle velocimetry and gravity-reversal controls.","contrary_outcome":"Flow is fully explained by buoyancy.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0132","id":"S6-0132","volume":"900v6","title":"Crystal thermal-diffusion crossover","prediction":"Thermal anchoring changes speed at matched local concentration.","test":"Measure face temperature, concentration and growth under controlled heat links.","contrary":"Speed remains insensitive to thermal anchoring.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0132","title":"Crystal thermal-diffusion crossover","question":"Can growth become thermally limited before solute transport is exhausted in a confined benign salt cell?","prediction":"Thermal anchoring changes speed at matched local concentration.","test":"Measure face temperature, concentration and growth under controlled heat links.","contrary_outcome":"Speed remains insensitive to thermal anchoring.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0133","id":"S6-0133","volume":"900v6","title":"Hydrate gas-pressure oscillator","prediction":"Transport delay and volume feedback create repeated pressure cycles.","test":"Use a safe hydrate analogue with modest pressure and full mass balance.","contrary":"Pressure approaches equilibrium monotonically.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0133","title":"Hydrate gas-pressure oscillator","question":"Can slow reversible hydration make a sealed compliant cavity oscillate in pressure under steady humidity supply?","prediction":"Transport delay and volume feedback create repeated pressure cycles.","test":"Use a safe hydrate analogue with modest pressure and full mass balance.","contrary_outcome":"Pressure approaches equilibrium monotonically.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0134","id":"S6-0134","volume":"900v6","title":"Crystal grain-boundary drain","prediction":"Connectivity to an outlet dominates local width.","test":"Use benign polycrystalline transparent analogues with 3D liquid tracking.","contrary":"Drain order follows width alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0134","title":"Crystal grain-boundary drain","question":"Can one liquid-filled boundary drain preferentially even when it is narrower than neighboring boundaries?","prediction":"Connectivity to an outlet dominates local width.","test":"Use benign polycrystalline transparent analogues with 3D liquid tracking.","contrary_outcome":"Drain order follows width alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0135","id":"S6-0135","volume":"900v6","title":"Salt island thermal merger","prediction":"Temperature correlations extend farther than concentration correlations.","test":"Use benign crystallization arrays with synchronized field measurements.","contrary":"Both correlation lengths grow together.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0135","title":"Salt island thermal merger","question":"Can thermal fields from separate crystal islands merge before their solute fields do?","prediction":"Temperature correlations extend farther than concentration correlations.","test":"Use benign crystallization arrays with synchronized field measurements.","contrary_outcome":"Both correlation lengths grow together.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0136","id":"S6-0136","volume":"900v6","title":"Crystal roughness acoustic phase","prediction":"Subsurface density geometry shifts phase differently.","test":"Use benign crystal coatings with known growth direction and low-power sound.","contrary":"Only RMS height predicts phase.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0136","title":"Crystal roughness acoustic phase","question":"Can reflection phase distinguish roughness growing inward from roughness growing outward at equal RMS height?","prediction":"Subsurface density geometry shifts phase differently.","test":"Use benign crystal coatings with known growth direction and low-power sound.","contrary_outcome":"Only RMS height predicts phase.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0137","id":"S6-0137","volume":"900v6","title":"Dissolution strain relaxation gate","prediction":"Pit velocity follows independently measured elastic-energy release.","test":"Use benign crystals under safe small loads with strain imaging.","contrary":"Dissolution is stress-independent within resolved limits.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0137","title":"Dissolution strain relaxation gate","question":"Can releasing external stress abruptly change etch-pit growth at unchanged chemistry?","prediction":"Pit velocity follows independently measured elastic-energy release.","test":"Use benign crystals under safe small loads with strain imaging.","contrary_outcome":"Dissolution is stress-independent within resolved limits.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0138","id":"S6-0138","volume":"900v6","title":"Crystal bridge force sequencing","prediction":"A confined liquid film delays direct force transmission.","test":"Use benign brine gaps with nanometric film proxies and microforce sensing.","contrary":"Force begins immediately at first crystal contact.","layers":[1,2],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0138","title":"Crystal bridge force sequencing","question":"Can crystallization pressure rise only after liquid drainage has slowed rather than after crystal contact?","prediction":"A confined liquid film delays direct force transmission.","test":"Use benign brine gaps with nanometric film proxies and microforce sensing.","contrary_outcome":"Force begins immediately at first crystal contact.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0138","title":"Crystal bridge force sequencing","question":"Can crystallization pressure rise only after liquid drainage has slowed rather than after crystal contact?","prediction":"A confined liquid film delays direct force transmission.","test":"Use benign brine gaps with nanometric film proxies and microforce sensing.","contrary_outcome":"Force begins immediately at first crystal contact.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0139","id":"S6-0139","volume":"900v6","title":"Salt growth dry-surface route","prediction":"Advance persists below visible liquid connectivity and depends on water activity.","test":"Use safe benign salts with surface-film and humidity calibration.","contrary":"Growth requires visible bulk liquid continuity.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0139","title":"Salt growth dry-surface route","question":"Can crystal growth advance across a nominally dry surface through an adsorbed water film?","prediction":"Advance persists below visible liquid connectivity and depends on water activity.","test":"Use safe benign salts with surface-film and humidity calibration.","contrary_outcome":"Growth requires visible bulk liquid continuity.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0140","id":"S6-0140","volume":"900v6","title":"Crystal habit hydraulic feedback","prediction":"Face selection preserves an open hydraulic corridor.","test":"Measure benign growth channels with 3D morphology and pressure-flow balance.","contrary":"Flow declines solely with remaining cross-sectional area.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0140","title":"Crystal habit hydraulic feedback","question":"Can a crystal's changing habit stabilize flow through a narrowing channel?","prediction":"Face selection preserves an open hydraulic corridor.","test":"Measure benign growth channels with 3D morphology and pressure-flow balance.","contrary_outcome":"Flow declines solely with remaining cross-sectional area.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0141","id":"S6-0141","volume":"900v6","title":"Granular pore heat shunt","prediction":"Heat conduction rises without a corresponding stiffness change.","test":"Use safe inert grains with controlled water films and contact imaging.","contrary":"Thermal and mechanical connectivity coincide.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0141","title":"Granular pore heat shunt","question":"Can a thin liquid film thermally connect grains that remain mechanically separated?","prediction":"Heat conduction rises without a corresponding stiffness change.","test":"Use safe inert grains with controlled water films and contact imaging.","contrary_outcome":"Thermal and mechanical connectivity coincide.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0142","id":"S6-0142","volume":"900v6","title":"Sediment crack flow piracy","prediction":"Network pressure redistribution redirects flow nonlocally.","test":"Use safe transparent clay-like analogues with synchronized pressure and flow maps.","contrary":"Widest shortest paths always dominate.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0142","title":"Sediment crack flow piracy","question":"Can a new crack drain an old crack that remains wider and shorter?","prediction":"Network pressure redistribution redirects flow nonlocally.","test":"Use safe transparent clay-like analogues with synchronized pressure and flow maps.","contrary_outcome":"Widest shortest paths always dominate.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0143","id":"S6-0143","volume":"900v6","title":"Regolith impact air signature","prediction":"Gas release adds an early ejecta pulse.","test":"Use safe small inert-grain impacts with pressure and high-speed imaging.","contrary":"Ejecta timing follows final crater size alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0143","title":"Regolith impact air signature","question":"Can a buried air pocket alter crater ejecta timing without changing final crater diameter?","prediction":"Gas release adds an early ejecta pulse.","test":"Use safe small inert-grain impacts with pressure and high-speed imaging.","contrary_outcome":"Ejecta timing follows final crater size alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0144","id":"S6-0144","volume":"900v6","title":"Thermal boulder rocking","prediction":"Contact expansion produces alternating torque with zero net drift.","test":"Use safe small restrained blocks with contact force and tilt sensing.","contrary":"Rocking requires external vibration or net sliding.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0144","title":"Thermal boulder rocking","question":"Can mild cyclic heating rock an asymmetric inert block without cumulative translation?","prediction":"Contact expansion produces alternating torque with zero net drift.","test":"Use safe small restrained blocks with contact force and tilt sensing.","contrary_outcome":"Rocking requires external vibration or net sliding.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0145","id":"S6-0145","volume":"900v6","title":"Pore throat shape inversion","prediction":"Contact-line pinning reverses the width ranking.","test":"Use safe water-air transparent pore standards.","contrary":"Trapping follows hydraulic width alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0145","title":"Pore throat shape inversion","question":"Can a wider but sharper throat trap gas more strongly than a narrower rounded throat?","prediction":"Contact-line pinning reverses the width ranking.","test":"Use safe water-air transparent pore standards.","contrary_outcome":"Trapping follows hydraulic width alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0146","id":"S6-0146","volume":"900v6","title":"Granular humidity-front rotation","prediction":"Adsorption changes contact friction anisotropically.","test":"Track safe inert grains with sensitive mass and orientation measurements.","contrary":"Rotation requires capillary bridges or bulk moisture uptake.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0146","title":"Granular humidity-front rotation","question":"Can a humidity front rotate elongated grains without measurable water condensation?","prediction":"Adsorption changes contact friction anisotropically.","test":"Track safe inert grains with sensitive mass and orientation measurements.","contrary_outcome":"Rotation requires capillary bridges or bulk moisture uptake.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0147","id":"S6-0147","volume":"900v6","title":"Sediment thermal plume capture","prediction":"Flow turns at the layer before the temperature maximum arrives.","test":"Use safe transparent saturated beds with velocimetry and thermometry.","contrary":"Plume direction follows buoyancy alone.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0147","title":"Sediment thermal plume capture","question":"Can a permeable buried layer capture a buoyant pore-water plume and route it laterally?","prediction":"Flow turns at the layer before the temperature maximum arrives.","test":"Use safe transparent saturated beds with velocimetry and thermometry.","contrary_outcome":"Plume direction follows buoyancy alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0148","id":"S6-0148","volume":"900v6","title":"Crater rim capillary collapse","prediction":"Loss of suction support destabilizes the rim.","test":"Use safe inert granular craters with moisture, suction and shape tracking.","contrary":"Collapse requires positive pore pressure or added weight.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0148","title":"Crater rim capillary collapse","question":"Can wetting a crater rim cause collapse before pore pressure becomes positive?","prediction":"Loss of suction support destabilizes the rim.","test":"Use safe inert granular craters with moisture, suction and shape tracking.","contrary_outcome":"Collapse requires positive pore pressure or added weight.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0149","id":"S6-0149","volume":"900v6","title":"Regolith layered acoustic dispersion","prediction":"Mode localization separates the bands.","test":"Use safe inert layered packs with vector wave measurements.","contrary":"All bands share one effective delay.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0149","title":"Regolith layered acoustic dispersion","question":"Can a thin soft layer delay low-frequency vibration while leaving high-frequency first arrival nearly fixed?","prediction":"Mode localization separates the bands.","test":"Use safe inert layered packs with vector wave measurements.","contrary_outcome":"All bands share one effective delay.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0149","title":"Regolith layered acoustic dispersion","question":"Can a thin soft layer delay low-frequency vibration while leaving high-frequency first arrival nearly fixed?","prediction":"Mode localization separates the bands.","test":"Use safe inert layered packs with vector wave measurements.","contrary_outcome":"All bands share one effective delay.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0150","id":"S6-0150","volume":"900v6","title":"Pore network frost bypass","prediction":"Ice blocks liquid throats but leaves gas-connected films.","test":"Measure safe water networks with liquid flow, humidity and imaging.","contrary":"Both transport routes disappear together.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0150","title":"Pore network frost bypass","question":"Can freezing disconnect hydraulic transport while retaining vapor transport along the same route?","prediction":"Ice blocks liquid throats but leaves gas-connected films.","test":"Measure safe water networks with liquid flow, humidity and imaging.","contrary_outcome":"Both transport routes disappear together.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0151","id":"S6-0151","volume":"900v6","title":"Sediment settling stress pulse","prediction":"Elastic storage balances later return flow.","test":"Use safe inert saturated columns with pressure and flow arrays.","contrary":"Pressure pulses require net transported water.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0151","title":"Sediment settling stress pulse","question":"Can a compacting layer send a pressure pulse upward without net upward water transport over the event?","prediction":"Elastic storage balances later return flow.","test":"Use safe inert saturated columns with pressure and flow arrays.","contrary_outcome":"Pressure pulses require net transported water.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0152","id":"S6-0152","volume":"900v6","title":"Granular tilt heat map","prediction":"Conductance anisotropy changes with measured contact forces.","test":"Use safe inert beds under reversible tilt and constant temperature boundaries.","contrary":"Only geometry and density determine heat transport.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0152","title":"Granular tilt heat map","question":"Can a slight slope alter heat transport through force redistribution without changing grain geometry visibly?","prediction":"Conductance anisotropy changes with measured contact forces.","test":"Use safe inert beds under reversible tilt and constant temperature boundaries.","contrary_outcome":"Only geometry and density determine heat transport.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0153","id":"S6-0153","volume":"900v6","title":"Artificial permafrost thaw pocket","prediction":"Front direction follows pressure after temperature correction.","test":"Use safe restrained water-gel analogues with calibrated pressure and thermal fields.","contrary":"The coldest boundary always nucleates first.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0153","title":"Artificial permafrost thaw pocket","question":"Can a thawed pocket refreeze from its warmest-looking boundary because pressure shifts local freezing conditions?","prediction":"Front direction follows pressure after temperature correction.","test":"Use safe restrained water-gel analogues with calibrated pressure and thermal fields.","contrary_outcome":"The coldest boundary always nucleates first.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0154","id":"S6-0154","volume":"900v6","title":"Pore roughness drainage echo","prediction":"Two bursts align with distinct resolved perimeter jumps.","test":"Use safe transparent rough pores with pressure and high-speed imaging.","contrary":"Each pore empties in one indivisible event.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0154","title":"Pore roughness drainage echo","question":"Can a pressure down-step produce two drainage bursts from one pore because different contact-line segments depin separately?","prediction":"Two bursts align with distinct resolved perimeter jumps.","test":"Use safe transparent rough pores with pressure and high-speed imaging.","contrary_outcome":"Each pore empties in one indivisible event.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0155","id":"S6-0155","volume":"900v6","title":"Sediment wave-driven vapor exchange","prediction":"Asymmetric pore resistance creates tracer turnover.","test":"Use safe dry inert beds with benign tracer gas and zero-mean pressure forcing.","contrary":"No exchange exceeds molecular diffusion after mean-flow correction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0155","title":"Sediment wave-driven vapor exchange","question":"Can oscillatory surface pressure exchange pore air without measurable mean flow?","prediction":"Asymmetric pore resistance creates tracer turnover.","test":"Use safe dry inert beds with benign tracer gas and zero-mean pressure forcing.","contrary_outcome":"No exchange exceeds molecular diffusion after mean-flow correction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0156","id":"S6-0156","volume":"900v6","title":"Granular arch cooling sensitivity","prediction":"Failure follows differential contraction at a critical contact.","test":"Use safe inert arches with optical contacts and independent friction calibration.","contrary":"Failure requires measurable friction weakening.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0156","title":"Granular arch cooling sensitivity","question":"Can localized cooling break an arch by changing contact geometry before friction changes measurably?","prediction":"Failure follows differential contraction at a critical contact.","test":"Use safe inert arches with optical contacts and independent friction calibration.","contrary_outcome":"Failure requires measurable friction weakening.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0157","id":"S6-0157","volume":"900v6","title":"Crater wall acoustic warning","prediction":"The softening mode localizes at the eventual slip region.","test":"Use safe small crater analogues with weak acoustic probes and imaging.","contrary":"Mode drift is unrelated to slump location.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0157","title":"Crater wall acoustic warning","question":"Can a wall's mode-shape drift predict a small granular slump before surface displacement accelerates?","prediction":"The softening mode localizes at the eventual slip region.","test":"Use safe small crater analogues with weak acoustic probes and imaging.","contrary_outcome":"Mode drift is unrelated to slump location.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0158","id":"S6-0158","volume":"900v6","title":"Pore-fluid thermal phase locking","prediction":"Temperature oscillation phases lock while tracer exchange remains negligible.","test":"Use safe water-filled porous cells with full flow and thermal measurements.","contrary":"Synchronization requires substantial material exchange.","layers":[1,2],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0158","title":"Pore-fluid thermal phase locking","question":"Can neighboring convection cells synchronize through a shared permeable layer without net fluid exchange?","prediction":"Temperature oscillation phases lock while tracer exchange remains negligible.","test":"Use safe water-filled porous cells with full flow and thermal measurements.","contrary_outcome":"Synchronization requires substantial material exchange.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0158","title":"Pore-fluid thermal phase locking","question":"Can neighboring convection cells synchronize through a shared permeable layer without net fluid exchange?","prediction":"Temperature oscillation phases lock while tracer exchange remains negligible.","test":"Use safe water-filled porous cells with full flow and thermal measurements.","contrary_outcome":"Synchronization requires substantial material exchange.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0159","id":"S6-0159","volume":"900v6","title":"Sediment compaction drainage ranking","prediction":"Pressure gradient outweighs local resistance.","test":"Use safe saturated inert beds with density, pressure and flow maps.","contrary":"Drainage always begins in the most permeable region.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0159","title":"Sediment compaction drainage ranking","question":"Can the most compact region drain first because its stress raises pore pressure enough to overcome lower permeability?","prediction":"Pressure gradient outweighs local resistance.","test":"Use safe saturated inert beds with density, pressure and flow maps.","contrary_outcome":"Drainage always begins in the most permeable region.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0160","id":"S6-0160","volume":"900v6","title":"Regolith shadow optical trap","prediction":"Cooling delay scales with measured mutual view factors.","test":"Use safe inert granular cavities with calibrated radiative boundaries.","contrary":"Delay follows heat capacity or solid conduction alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0160","title":"Regolith shadow optical trap","question":"Can a rough cavity remain warmer after shadow because neighboring walls return radiation?","prediction":"Cooling delay scales with measured mutual view factors.","test":"Use safe inert granular cavities with calibrated radiative boundaries.","contrary_outcome":"Delay follows heat capacity or solid conduction alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0161","id":"S6-0161","volume":"900v6","title":"Granular inclusion buoyancy pulse","prediction":"Transient buoyancy concentrates around the inclusion.","test":"Use safe low-pressure granular-fluid analogues with force and flow imaging.","contrary":"Lift requires whole-bed fluidization.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0161","title":"Granular inclusion buoyancy pulse","question":"Can a gas pocket lift a buried inert inclusion during pressure relaxation without bulk fluidization?","prediction":"Transient buoyancy concentrates around the inclusion.","test":"Use safe low-pressure granular-fluid analogues with force and flow imaging.","contrary_outcome":"Lift requires whole-bed fluidization.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0162","id":"S6-0162","volume":"900v6","title":"Pore wetting route memory","prediction":"History reverses route ranking.","test":"Use safe water networks with measured surface chemistry and residual films.","contrary":"Route preference is fixed by virgin contact angles.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0162","title":"Pore wetting route memory","question":"Can a nonwetting throat become the preferred refill route after a prior drainage event leaves a liquid bridge?","prediction":"History reverses route ranking.","test":"Use safe water networks with measured surface chemistry and residual films.","contrary_outcome":"Route preference is fixed by virgin contact angles.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0163","id":"S6-0163","volume":"900v6","title":"Sediment freeze acoustic anisotropy","prediction":"Wave anisotropy follows bridge orientation at fixed grain fabric.","test":"Use safe ice-bonded inert packs with tomography and low-power probes.","contrary":"Grain orientation alone predicts anisotropy.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0163","title":"Sediment freeze acoustic anisotropy","question":"Can ice bonds orient acoustic response before grains themselves reorient?","prediction":"Wave anisotropy follows bridge orientation at fixed grain fabric.","test":"Use safe ice-bonded inert packs with tomography and low-power probes.","contrary_outcome":"Grain orientation alone predicts anisotropy.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0164","id":"S6-0164","volume":"900v6","title":"Granular bedding thermal inversion","prediction":"Heat detours along the layer boundary.","test":"Use safe inert layered beds with full temperature fields.","contrary":"Hot spots follow illumination or gravity-driven airflow only.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0164","title":"Granular bedding thermal inversion","question":"Can an inclined low-conductivity layer move a hot spot uphill despite uniform surface heating?","prediction":"Heat detours along the layer boundary.","test":"Use safe inert layered beds with full temperature fields.","contrary_outcome":"Hot spots follow illumination or gravity-driven airflow only.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0165","id":"S6-0165","volume":"900v6","title":"Crater ejecta contact charge audit","prediction":"Sorting persists under verified near-zero charge.","test":"Use safe inert particles with low-energy impacts, charge monitors and flow imaging.","contrary":"Sorting vanishes when charge is neutralized.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0165","title":"Crater ejecta contact charge audit","question":"Can apparent electrostatic ejecta sorting be explained by aerodynamic drag after charge neutralization?","prediction":"Sorting persists under verified near-zero charge.","test":"Use safe inert particles with low-energy impacts, charge monitors and flow imaging.","contrary_outcome":"Sorting vanishes when charge is neutralized.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0166","id":"S6-0166","volume":"900v6","title":"Pore-pressure refreezing memory","prediction":"Front paths follow residual gas topology.","test":"Use safe transparent freeze-thaw networks with gas-pressure mapping.","contrary":"Water content and temperature uniquely determine refreezing.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0166","title":"Pore-pressure refreezing memory","question":"Can two thawed samples with equal water content refreeze differently because trapped-gas pressure histories differ?","prediction":"Front paths follow residual gas topology.","test":"Use safe transparent freeze-thaw networks with gas-pressure mapping.","contrary_outcome":"Water content and temperature uniquely determine refreezing.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0167","id":"S6-0167","volume":"900v6","title":"Sediment grain-spin compaction","prediction":"Grains accommodate strain through spin.","test":"Use marked safe inert grains with 3D motion tracking.","contrary":"Compaction scales only with translational events.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0167","title":"Sediment grain-spin compaction","question":"Can rotational freedom increase compaction while reducing translational rearrangement count?","prediction":"Grains accommodate strain through spin.","test":"Use marked safe inert grains with 3D motion tracking.","contrary_outcome":"Compaction scales only with translational events.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0168","id":"S6-0168","volume":"900v6","title":"Regolith conductive filament rupture","prediction":"A phase-sensitive observable detects lost connectivity.","test":"Use safe inert composite beds with independently imaged chains.","contrary":"Mean temperature is equally sensitive after noise normalization.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0168","title":"Regolith conductive filament rupture","question":"Can breaking one sparse conductive chain change surface thermal phase more than mean temperature?","prediction":"A phase-sensitive observable detects lost connectivity.","test":"Use safe inert composite beds with independently imaged chains.","contrary_outcome":"Mean temperature is equally sensitive after noise normalization.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0169","id":"S6-0169","volume":"900v6","title":"Pore capillary pressure focusing","prediction":"Pressure coupling deforms a compliant throat remotely.","test":"Use safe transparent elastic pore networks with shape and pressure sensing.","contrary":"Stress localizes only at invaded throats.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0169","title":"Pore capillary pressure focusing","question":"Can a broad wetting front concentrate stress at one narrow throat far ahead of visible invasion?","prediction":"Pressure coupling deforms a compliant throat remotely.","test":"Use safe transparent elastic pore networks with shape and pressure sensing.","contrary_outcome":"Stress localizes only at invaded throats.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0169","title":"Pore capillary pressure focusing","question":"Can a broad wetting front concentrate stress at one narrow throat far ahead of visible invasion?","prediction":"Pressure coupling deforms a compliant throat remotely.","test":"Use safe transparent elastic pore networks with shape and pressure sensing.","contrary_outcome":"Stress localizes only at invaded throats.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0170","id":"S6-0170","volume":"900v6","title":"Granular avalanche pore-gas lag","prediction":"Delayed gas escape stores compression.","test":"Use safe small inert avalanches with pressure and motion measurements.","contrary":"Pressure and acceleration peaks are synchronous after instrument correction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0170","title":"Granular avalanche pore-gas lag","question":"Can the maximum gas-pressure pulse occur after grain acceleration peaks?","prediction":"Delayed gas escape stores compression.","test":"Use safe small inert avalanches with pressure and motion measurements.","contrary_outcome":"Pressure and acceleration peaks are synchronous after instrument correction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0171","id":"S6-0171","volume":"900v6","title":"Sediment fluidization patch survival","prediction":"Bypass flow lowers its local drag.","test":"Use inert particles in water with 3D velocities and contact imaging.","contrary":"Every patch fluidizes at the same local pressure gradient.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0171","title":"Sediment fluidization patch survival","question":"Can a dense patch remain stable inside an otherwise fluidized safe bed because it redirects flow around itself?","prediction":"Bypass flow lowers its local drag.","test":"Use inert particles in water with 3D velocities and contact imaging.","contrary_outcome":"Every patch fluidizes at the same local pressure gradient.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0172","id":"S6-0172","volume":"900v6","title":"Regolith thermal crack orientation","prediction":"Cracks align with weak force paths.","test":"Use safe brittle granular analogues with thermal and contact maps.","contrary":"Cracks follow thermal-gradient orientation alone.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0172","title":"Regolith thermal crack orientation","question":"Can a buried contact network select crack direction independently of the surface temperature gradient?","prediction":"Cracks align with weak force paths.","test":"Use safe brittle granular analogues with thermal and contact maps.","contrary_outcome":"Cracks follow thermal-gradient orientation alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0173","id":"S6-0173","volume":"900v6","title":"Pore evaporation solute reversal","prediction":"Local advection briefly opposes net evaporation supply.","test":"Use safe brine networks with concentration and velocity imaging.","contrary":"Solute always moves toward the drying front.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0173","title":"Pore evaporation solute reversal","question":"Can a drying front push dissolved salt away from itself through a transient return flow?","prediction":"Local advection briefly opposes net evaporation supply.","test":"Use safe brine networks with concentration and velocity imaging.","contrary_outcome":"Solute always moves toward the drying front.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0174","id":"S6-0174","volume":"900v6","title":"Sediment acoustic loading history","prediction":"Wall friction preserves distinct internal force fabrics.","test":"Use safe inert columns with photoelastic contacts and wave probes.","contrary":"Base pressure uniquely determines acoustic response.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0174","title":"Sediment acoustic loading history","question":"Can equal base pressure conceal different acoustic stiffness after upward versus downward loading?","prediction":"Wall friction preserves distinct internal force fabrics.","test":"Use safe inert columns with photoelastic contacts and wave probes.","contrary_outcome":"Base pressure uniquely determines acoustic response.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0175","id":"S6-0175","volume":"900v6","title":"Granular wetting front cooling","prediction":"A thermal signal leads optically resolved water while mass balance detects condensation.","test":"Use safe water-wet porous analogues with humidity and temperature imaging.","contrary":"Cooling starts only with bulk liquid arrival.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0175","title":"Granular wetting front cooling","question":"Can local cooling precede liquid arrival because vapor condenses ahead of a wetting front?","prediction":"A thermal signal leads optically resolved water while mass balance detects condensation.","test":"Use safe water-wet porous analogues with humidity and temperature imaging.","contrary_outcome":"Cooling starts only with bulk liquid arrival.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0176","id":"S6-0176","volume":"900v6","title":"Crater thermal horizon detector","prediction":"Spatial arrival-time asymmetry carries orientation information.","test":"Use safe inert crater beds with known buried geometry.","contrary":"Long heating performs equally after equal-energy comparison.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0176","title":"Crater thermal horizon detector","question":"Can a short heat pulse locate an inclined buried layer better than a day-long heating curve?","prediction":"Spatial arrival-time asymmetry carries orientation information.","test":"Use safe inert crater beds with known buried geometry.","contrary_outcome":"Long heating performs equally after equal-energy comparison.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0177","id":"S6-0177","volume":"900v6","title":"Pore gas dissolution ratchet","prediction":"Bubble volume decreases despite zero mean pressure shift.","test":"Use safe air-water pores with gas mass balance and sealed controls.","contrary":"Gas returns to its original volume after each equilibrated cycle.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0177","title":"Pore gas dissolution ratchet","question":"Can symmetric pressure cycling progressively remove trapped gas through nonlinear dissolution kinetics?","prediction":"Bubble volume decreases despite zero mean pressure shift.","test":"Use safe air-water pores with gas mass balance and sealed controls.","contrary_outcome":"Gas returns to its original volume after each equilibrated cycle.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0177","title":"Pore gas dissolution ratchet","question":"Can symmetric pressure cycling progressively remove trapped gas through nonlinear dissolution kinetics?","prediction":"Bubble volume decreases despite zero mean pressure shift.","test":"Use safe air-water pores with gas mass balance and sealed controls.","contrary_outcome":"Gas returns to its original volume after each equilibrated cycle.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0178","id":"S6-0178","volume":"900v6","title":"Sediment load-path moisture gate","prediction":"Boundary capillary load propagates elastically.","test":"Use safe transparent inert packs with moisture and force maps.","contrary":"Force changes remain confined to wetted grains.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0178","title":"Sediment load-path moisture gate","question":"Can wetting one remote boundary redistribute grain forces before water reaches the stressed region?","prediction":"Boundary capillary load propagates elastically.","test":"Use safe transparent inert packs with moisture and force maps.","contrary_outcome":"Force changes remain confined to wetted grains.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0179","id":"S6-0179","volume":"900v6","title":"Regolith surface-grain thermal lag","prediction":"Weak contacts produce a history-dependent temperature crossover.","test":"Use safe inert surface beds with grain-resolved thermometry.","contrary":"One bulk temperature predicts every grain.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0179","title":"Regolith surface-grain thermal lag","question":"Can isolated surface grains cool faster than the underlying bulk yet remain warmer at dawn-like reheating onset?","prediction":"Weak contacts produce a history-dependent temperature crossover.","test":"Use safe inert surface beds with grain-resolved thermometry.","contrary_outcome":"One bulk temperature predicts every grain.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0180","id":"S6-0180","volume":"900v6","title":"Pore front topology entropy","prediction":"Pressure history selects cluster topology.","test":"Use safe transparent networks with complete cluster census.","contrary":"Saturation alone determines the cluster distribution.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0180","title":"Pore front topology entropy","question":"Can two invasion protocols yield equal saturation but different distributions of trapped-cluster sizes?","prediction":"Pressure history selects cluster topology.","test":"Use safe transparent networks with complete cluster census.","contrary_outcome":"Saturation alone determines the cluster distribution.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0181","id":"S6-0181","volume":"900v6","title":"Granular wave-triggered settling","prediction":"Compaction depends on polarization at equal injected energy.","test":"Use safe inert packs with vector excitation and contact maps.","contrary":"Only total wave energy determines settling.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0181","title":"Granular wave-triggered settling","question":"Can a weak wave settle a loose bed only when its polarization aligns with a soft contact mode?","prediction":"Compaction depends on polarization at equal injected energy.","test":"Use safe inert packs with vector excitation and contact maps.","contrary_outcome":"Only total wave energy determines settling.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0182","id":"S6-0182","volume":"900v6","title":"Sediment thermal plume obstruction","prediction":"Convective enhancement exceeds lost solid conduction.","test":"Use safe water-saturated inert beds with full heat and flow balance.","contrary":"The inclusion always reduces total heat transport.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0182","title":"Sediment thermal plume obstruction","question":"Can a thermally insulating inclusion increase upward heat transport by organizing pore circulation?","prediction":"Convective enhancement exceeds lost solid conduction.","test":"Use safe water-saturated inert beds with full heat and flow balance.","contrary_outcome":"The inclusion always reduces total heat transport.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0183","id":"S6-0183","volume":"900v6","title":"Crater rim frost reinforcement","prediction":"Bonded support stores more unstable load before thaw.","test":"Use safe small ice-grain analogues with force and imaging.","contrary":"Frost changes strength but not collapse dynamics after load matching.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0183","title":"Crater rim frost reinforcement","question":"Can a small amount of frost strengthen a granular rim while increasing its later thaw-collapse abruptness?","prediction":"Bonded support stores more unstable load before thaw.","test":"Use safe small ice-grain analogues with force and imaging.","contrary_outcome":"Frost changes strength but not collapse dynamics after load matching.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0184","id":"S6-0184","volume":"900v6","title":"Pore liquid bridge hydraulic silence","prediction":"A pinned narrow neck is mechanically connected but hydraulically blocked.","test":"Use safe transparent networks with force and pressure-flow measurements.","contrary":"Every force-transmitting bridge carries the predicted steady flow.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0184","title":"Pore liquid bridge hydraulic silence","question":"Can a spanning liquid bridge transmit stress yet carry negligible sustained flow?","prediction":"A pinned narrow neck is mechanically connected but hydraulically blocked.","test":"Use safe transparent networks with force and pressure-flow measurements.","contrary_outcome":"Every force-transmitting bridge carries the predicted steady flow.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0185","id":"S6-0185","volume":"900v6","title":"Granular shear-band thermal lens","prediction":"Optical deflection follows independently measured local heating.","test":"Use safe transparent inert slurries under gentle shear.","contrary":"Deflection is explained only by density or particle orientation.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0185","title":"Granular shear-band thermal lens","question":"Can localized shear change light propagation through pore-fluid temperature gradients before density changes resolve?","prediction":"Optical deflection follows independently measured local heating.","test":"Use safe transparent inert slurries under gentle shear.","contrary_outcome":"Deflection is explained only by density or particle orientation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0186","id":"S6-0186","volume":"900v6","title":"Regolith pressure-breathing heat","prediction":"Oscillatory enthalpy exchange survives zero mean flow.","test":"Use safe inert gas beds with heat-flux and mass-flow balance.","contrary":"Heat transport equals static conduction after actuator heating correction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0186","title":"Regolith pressure-breathing heat","question":"Can periodic ambient pressure drive measurable heat transport through a porous bed without net gas throughput?","prediction":"Oscillatory enthalpy exchange survives zero mean flow.","test":"Use safe inert gas beds with heat-flux and mass-flow balance.","contrary_outcome":"Heat transport equals static conduction after actuator heating correction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0187","id":"S6-0187","volume":"900v6","title":"Sediment intrusion water release","prediction":"Stress-driven pressure overcomes local pore-volume increase.","test":"Use safe saturated inert packs with tomography and flow tracking.","contrary":"Water release occurs only where porosity decreases.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0187","title":"Sediment intrusion water release","question":"Can a slowly inserted object expel water from a region that becomes locally more porous?","prediction":"Stress-driven pressure overcomes local pore-volume increase.","test":"Use safe saturated inert packs with tomography and flow tracking.","contrary_outcome":"Water release occurs only where porosity decreases.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0188","id":"S6-0188","volume":"900v6","title":"Pore frost acoustic transparency","prediction":"Transmission peaks at intermediate ice fraction.","test":"Use safe water-filled networks with phase imaging and low-power sound.","contrary":"Transmission changes monotonically with ice fraction.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0188","title":"Pore frost acoustic transparency","question":"Can partial freezing improve acoustic transmission by matching impedance before full ice continuity?","prediction":"Transmission peaks at intermediate ice fraction.","test":"Use safe water-filled networks with phase imaging and low-power sound.","contrary_outcome":"Transmission changes monotonically with ice fraction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0188","title":"Pore frost acoustic transparency","question":"Can partial freezing improve acoustic transmission by matching impedance before full ice continuity?","prediction":"Transmission peaks at intermediate ice fraction.","test":"Use safe water-filled networks with phase imaging and low-power sound.","contrary_outcome":"Transmission changes monotonically with ice fraction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0189","id":"S6-0189","volume":"900v6","title":"Granular angular contact sorting","prediction":"Bridge location rather than volume controls load redistribution.","test":"Use safe inert angular grains with 3D liquid/contact imaging.","contrary":"Only total water content determines force changes.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0189","title":"Granular angular contact sorting","question":"Can grain corners concentrate capillary water enough to alter force chains without changing total water?","prediction":"Bridge location rather than volume controls load redistribution.","test":"Use safe inert angular grains with 3D liquid/contact imaging.","contrary_outcome":"Only total water content determines force changes.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0190","id":"S6-0190","volume":"900v6","title":"Crater cooling plume recirculation","prediction":"Cold-air residence predicts localized frost.","test":"Use safe small pit analogues with airflow, humidity and temperature maps.","contrary":"Frost follows radiative temperature alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0190","title":"Crater cooling plume recirculation","question":"Can a shallow pit retain cold air long enough to alter frost deposition despite identical radiative exposure?","prediction":"Cold-air residence predicts localized frost.","test":"Use safe small pit analogues with airflow, humidity and temperature maps.","contrary_outcome":"Frost follows radiative temperature alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0191","id":"S6-0191","volume":"900v6","title":"Pore-pressure geometry echo","prediction":"History-dependent echoes distinguish looped and tree-like networks.","test":"Use safe transparent networks with known topology and calibrated pulses.","contrary":"Response depends only on current saturation and total volume.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0191","title":"Pore-pressure geometry echo","question":"Can a second pressure pulse recover pore connectivity hidden by the first pulse's saturation change?","prediction":"History-dependent echoes distinguish looped and tree-like networks.","test":"Use safe transparent networks with known topology and calibrated pulses.","contrary_outcome":"Response depends only on current saturation and total volume.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0192","id":"S6-0192","volume":"900v6","title":"Sediment transport force inversion","prediction":"Geometric interlocking dominates load magnitude.","test":"Use safe inert beds with contact-force and hydrodynamic measurements.","contrary":"Entrainment threshold ranks monotonically with static load.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0192","title":"Sediment transport force inversion","question":"Can a grain carrying little static load resist fluid entrainment more than a heavily loaded neighbor?","prediction":"Geometric interlocking dominates load magnitude.","test":"Use safe inert beds with contact-force and hydrodynamic measurements.","contrary_outcome":"Entrainment threshold ranks monotonically with static load.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0193","id":"S6-0193","volume":"900v6","title":"Regolith subsurface radiation gap","prediction":"Radiative coupling and delayed conduction alter inverse fits differently.","test":"Use safe layered inert beds with complete thermal histories.","contrary":"Recovered heat capacity is schedule-independent.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0193","title":"Regolith subsurface radiation gap","question":"Can a buried gas gap make a surface appear to have higher heat capacity under one illumination schedule and lower capacity under another?","prediction":"Radiative coupling and delayed conduction alter inverse fits differently.","test":"Use safe layered inert beds with complete thermal histories.","contrary_outcome":"Recovered heat capacity is schedule-independent.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0194","id":"S6-0194","volume":"900v6","title":"Granular tilt-front delay","prediction":"Delay varies with rest history at identical angle ramps.","test":"Use safe inert slopes with high-speed contact and force imaging.","contrary":"Delay is determined only by inertia and ramp rate.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0194","title":"Granular tilt-front delay","question":"Can the onset of local grain motion lag a global tilt change by a contact-aging time rather than inertial time?","prediction":"Delay varies with rest history at identical angle ramps.","test":"Use safe inert slopes with high-speed contact and force imaging.","contrary_outcome":"Delay is determined only by inertia and ramp rate.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0195","id":"S6-0195","volume":"900v6","title":"Pore wetting elastic shielding","prediction":"Liquid incompressibility reroutes strain.","test":"Use safe compliant pore models with water and full-field deformation.","contrary":"Pore deformation depends only on local pressure.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0195","title":"Pore wetting elastic shielding","question":"Can one filled pore mechanically shield a neighbor from deformation during the next pressure pulse?","prediction":"Liquid incompressibility reroutes strain.","test":"Use safe compliant pore models with water and full-field deformation.","contrary_outcome":"Pore deformation depends only on local pressure.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0196","id":"S6-0196","volume":"900v6","title":"Sediment thermal packing repair","prediction":"Contact relaxation reopens critical throats.","test":"Use safe inert packs with tomography and pressure-flow tests.","contrary":"Permeability recovers only with porosity.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0196","title":"Sediment thermal packing repair","question":"Can a mild uniform temperature cycle restore permeability after mechanical compaction without restoring porosity?","prediction":"Contact relaxation reopens critical throats.","test":"Use safe inert packs with tomography and pressure-flow tests.","contrary_outcome":"Permeability recovers only with porosity.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0197","id":"S6-0197","volume":"900v6","title":"Crater wall water-film slip","prediction":"Boundary lubrication lowers shear resistance before interior wetting.","test":"Use safe small inert slopes with film imaging and force sensing.","contrary":"Failure requires bulk saturation or added mass.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0197","title":"Crater wall water-film slip","question":"Can a film too thin to change bulk water content trigger a wall slip event?","prediction":"Boundary lubrication lowers shear resistance before interior wetting.","test":"Use safe small inert slopes with film imaging and force sensing.","contrary_outcome":"Failure requires bulk saturation or added mass.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0198","id":"S6-0198","volume":"900v6","title":"Regolith acoustic thermal cross-check","prediction":"The two observables respond differently to independently controlled contact preload.","test":"Use safe inert standards with tomography and calibrated heat/wave transport.","contrary":"Both observables reduce to porosity alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0198","title":"Regolith acoustic thermal cross-check","question":"Can paired acoustic and thermal measurements separate loose contacts from high porosity?","prediction":"The two observables respond differently to independently controlled contact preload.","test":"Use safe inert standards with tomography and calibrated heat/wave transport.","contrary_outcome":"Both observables reduce to porosity alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0199","id":"S6-0199","volume":"900v6","title":"Electrolyte pore compliance gate","prediction":"A transient current accompanies internal pore-volume redistribution.","test":"Use safe blocking-electrode aqueous cells with current limits and optical volume tracking.","contrary":"Current requires external liquid loss or faradaic chemistry.","layers":[1,2],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0199","title":"Electrolyte pore compliance gate","question":"Can modest electrode compression redistribute electrolyte charge before measurable liquid leaves the pores?","prediction":"A transient current accompanies internal pore-volume redistribution.","test":"Use safe blocking-electrode aqueous cells with current limits and optical volume tracking.","contrary_outcome":"Current requires external liquid loss or faradaic chemistry.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0199","title":"Electrolyte pore compliance gate","question":"Can modest electrode compression redistribute electrolyte charge before measurable liquid leaves the pores?","prediction":"A transient current accompanies internal pore-volume redistribution.","test":"Use safe blocking-electrode aqueous cells with current limits and optical volume tracking.","contrary_outcome":"Current requires external liquid loss or faradaic chemistry.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0200","id":"S6-0200","volume":"900v6","title":"Carbon interfacial heat memory","prediction":"Heat relaxation depends on charging waveform despite matched charge and temperature.","test":"Use safe low-voltage carbon capacitors with microcalorimetry.","contrary":"Stored charge uniquely predicts the relaxation heat.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0200","title":"Carbon interfacial heat memory","question":"Can two equal-charge states have different subsequent heat release because ions occupy different pore depths?","prediction":"Heat relaxation depends on charging waveform despite matched charge and temperature.","test":"Use safe low-voltage carbon capacitors with microcalorimetry.","contrary_outcome":"Stored charge uniquely predicts the relaxation heat.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0201","id":"S6-0201","volume":"900v6","title":"Ionic branch hidden reservoir","prediction":"Pulse relaxation acquires a branch-volume-dependent tail.","test":"Use safe salt-water channels with blocking electrodes and optical concentration maps.","contrary":"Only through-path geometry affects the transient.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0201","title":"Ionic branch hidden reservoir","question":"Can a dead-end electrolyte branch alter transient conductance while leaving steady conductance unchanged?","prediction":"Pulse relaxation acquires a branch-volume-dependent tail.","test":"Use safe salt-water channels with blocking electrodes and optical concentration maps.","contrary_outcome":"Only through-path geometry affects the transient.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0202","id":"S6-0202","volume":"900v6","title":"Separator edge wetting gate","prediction":"Connected thin films conduct ahead of the visible front.","test":"Use safe dilute electrolyte and current-limited segmented electrodes.","contrary":"Central activation requires full local saturation.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0202","title":"Separator edge wetting gate","question":"Can wetting only a separator's edge activate central ionic paths before bulk saturation?","prediction":"Connected thin films conduct ahead of the visible front.","test":"Use safe dilute electrolyte and current-limited segmented electrodes.","contrary_outcome":"Central activation requires full local saturation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0203","id":"S6-0203","volume":"900v6","title":"Aqueous contact thermal reversal","prediction":"Four-terminal resistance changes oppose bulk-electrolyte calibration.","test":"Use safe low-voltage cells with independent contact force and temperature sensing.","contrary":"Resistance follows electrolyte mobility alone.","layers":[1,2],"categories":["physical","energy","biology","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0203","title":"Aqueous contact thermal reversal","question":"Can mild cooling lower cell resistance by improving collector contact more than it lowers ionic mobility?","prediction":"Four-terminal resistance changes oppose bulk-electrolyte calibration.","test":"Use safe low-voltage cells with independent contact force and temperature sensing.","contrary_outcome":"Resistance follows electrolyte mobility alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0203","title":"Aqueous contact thermal reversal","question":"Can mild cooling lower cell resistance by improving collector contact more than it lowers ionic mobility?","prediction":"Four-terminal resistance changes oppose bulk-electrolyte calibration.","test":"Use safe low-voltage cells with independent contact force and temperature sensing.","contrary_outcome":"Resistance follows electrolyte mobility alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0204","id":"S6-0204","volume":"900v6","title":"Blocking-cell pressure pulse","prediction":"Integrated charge returns to zero over a closed pressure cycle.","test":"Use safe aqueous blocking cells with current limits and gas-free controls.","contrary":"A persistent net charge or reaction product remains.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0204","title":"Blocking-cell pressure pulse","question":"Can a small pressure pulse generate a reversible current through charge redistribution without net chemical conversion?","prediction":"Integrated charge returns to zero over a closed pressure cycle.","test":"Use safe aqueous blocking cells with current limits and gas-free controls.","contrary_outcome":"A persistent net charge or reaction product remains.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0205","id":"S6-0205","volume":"900v6","title":"Porous electrode gas drainage","prediction":"Pressure release reconnects ionic pathways nonlocally.","test":"Use safe carbon analogues with imaged air topology and impedance sensing.","contrary":"Recovery occurs only at the vent neighborhood.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0205","title":"Porous electrode gas drainage","question":"Can opening one gas vent restore distant pore charging before local liquid redistribution resolves?","prediction":"Pressure release reconnects ionic pathways nonlocally.","test":"Use safe carbon analogues with imaged air topology and impedance sensing.","contrary_outcome":"Recovery occurs only at the vent neighborhood.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0206","id":"S6-0206","volume":"900v6","title":"Electrolyte concentration lens delay","prediction":"Impedance responds before volume-average concentration changes.","test":"Use safe salt-water networks with calibrated optical and electrical channels.","contrary":"Both signals follow the same concentration average.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0206","title":"Electrolyte concentration lens delay","question":"Can an optical concentration signal lag an impedance signal because charge transport samples connected paths first?","prediction":"Impedance responds before volume-average concentration changes.","test":"Use safe salt-water networks with calibrated optical and electrical channels.","contrary_outcome":"Both signals follow the same concentration average.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0207","id":"S6-0207","volume":"900v6","title":"Capacitor mechanical rest clock","prediction":"Contact geometry changes internal ionic redistribution.","test":"Use safe low-voltage carbon capacitors with force and leakage monitoring.","contrary":"Relaxation depends only on charge and temperature.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0207","title":"Capacitor mechanical rest clock","question":"Can releasing preload during rest accelerate voltage relaxation without changing total charge?","prediction":"Contact geometry changes internal ionic redistribution.","test":"Use safe low-voltage carbon capacitors with force and leakage monitoring.","contrary_outcome":"Relaxation depends only on charge and temperature.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0208","id":"S6-0208","volume":"900v6","title":"Ionic membrane curvature bias","prediction":"Compression and tension redistribute water through thickness.","test":"Use safe hydrated polymer strips with low-voltage segmented electrodes.","contrary":"Conductance remains uniform at matched water content.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0208","title":"Ionic membrane curvature bias","question":"Can bending a hydrated membrane create a reversible conductance gradient without changing average water content?","prediction":"Compression and tension redistribute water through thickness.","test":"Use safe hydrated polymer strips with low-voltage segmented electrodes.","contrary_outcome":"Conductance remains uniform at matched water content.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0209","id":"S6-0209","volume":"900v6","title":"Electrode current crowding shield","prediction":"Current redistributes into previously underused regions.","test":"Use safe aqueous carbon electrodes with current-limited segmented sensing.","contrary":"Peak reduction requires proportional loss of accessible charge.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0209","title":"Electrode current crowding shield","question":"Can a passive insulating patch reduce peak local current without lowering total reversible charge access?","prediction":"Current redistributes into previously underused regions.","test":"Use safe aqueous carbon electrodes with current-limited segmented sensing.","contrary_outcome":"Peak reduction requires proportional loss of accessible charge.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0210","id":"S6-0210","volume":"900v6","title":"Aqueous impedance acoustic audit","prediction":"The feature disappears with a mechanically fixed nonintrusive reference.","test":"Use safe blocking cells with low-power sound and optical probe-motion tracking.","contrary":"The feature persists without probe motion.","layers":[1],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0210","title":"Aqueous impedance acoustic audit","question":"Can sound-induced motion of a reference probe mimic electrochemical kinetics changes?","prediction":"The feature disappears with a mechanically fixed nonintrusive reference.","test":"Use safe blocking cells with low-power sound and optical probe-motion tracking.","contrary_outcome":"The feature persists without probe motion.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0211","id":"S6-0211","volume":"900v6","title":"Electrolyte evaporation charge balance","prediction":"Changing capacitance and concentration redistribute potential.","test":"Use safe sealed/open blocking cells with guarded charge accounting.","contrary":"Voltage changes require net charge transfer.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0211","title":"Electrolyte evaporation charge balance","question":"Can evaporation drive a transient voltage while total electrode charge remains fixed?","prediction":"Changing capacitance and concentration redistribute potential.","test":"Use safe sealed/open blocking cells with guarded charge accounting.","contrary_outcome":"Voltage changes require net charge transfer.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0212","id":"S6-0212","volume":"900v6","title":"Carbon pore thermal diffusion","prediction":"Rebound shifts with independently measured pore exchange times.","test":"Use safe low-voltage carbon cells with calibrated mild heating.","contrary":"Voltage follows temperature directly without a reservoir-specific delay.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0212","title":"Carbon pore thermal diffusion","question":"Can a short heat pulse reveal slow ionic reservoirs through voltage rebound timing?","prediction":"Rebound shifts with independently measured pore exchange times.","test":"Use safe low-voltage carbon cells with calibrated mild heating.","contrary_outcome":"Voltage follows temperature directly without a reservoir-specific delay.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0213","id":"S6-0213","volume":"900v6","title":"Separator wrinkle bypass","prediction":"Resistance and contact area change in opposite directions.","test":"Use safe electrolyte-soaked films with 3D shape and impedance measurements.","contrary":"Resistance follows contact area monotonically.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0213","title":"Separator wrinkle bypass","question":"Can a wrinkle lower ionic resistance by creating a liquid bypass while reducing mechanical contact?","prediction":"Resistance and contact area change in opposite directions.","test":"Use safe electrolyte-soaked films with 3D shape and impedance measurements.","contrary_outcome":"Resistance follows contact area monotonically.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0214","id":"S6-0214","volume":"900v6","title":"Blocking-cell orientation memory","prediction":"Relaxation changes with gravity while initial voltage is matched.","test":"Use safe aqueous cells with optical concentration imaging.","contrary":"Voltage state alone predicts relaxation regardless of orientation.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0214","title":"Blocking-cell orientation memory","question":"Can rotating a cell after a pulse reveal a concentration gradient invisible in open-circuit voltage?","prediction":"Relaxation changes with gravity while initial voltage is matched.","test":"Use safe aqueous cells with optical concentration imaging.","contrary_outcome":"Voltage state alone predicts relaxation regardless of orientation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0215","id":"S6-0215","volume":"900v6","title":"Electrolyte flow-stop polarization","prediction":"A depleted boundary layer refills from a side reservoir.","test":"Use safe current-limited blocking channels with local concentration maps.","contrary":"Current only decreases after flow stops.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0215","title":"Electrolyte flow-stop polarization","question":"Can stopping neutral electrolyte flow briefly increase reversible current at fixed small bias?","prediction":"A depleted boundary layer refills from a side reservoir.","test":"Use safe current-limited blocking channels with local concentration maps.","contrary_outcome":"Current only decreases after flow stops.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0216","id":"S6-0216","volume":"900v6","title":"Carbon wetting acoustic witness","prediction":"Mechanical bridges form before ionic pore access.","test":"Use safe aqueous carbon analogues with low-power sound and impedance.","contrary":"Both responses begin at the same saturation threshold.","layers":[1,2],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0216","title":"Carbon wetting acoustic witness","question":"Can a carbon electrode's acoustic stiffness change before its capacitance rises during first wetting?","prediction":"Mechanical bridges form before ionic pore access.","test":"Use safe aqueous carbon analogues with low-power sound and impedance.","contrary_outcome":"Both responses begin at the same saturation threshold.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0216","title":"Carbon wetting acoustic witness","question":"Can a carbon electrode's acoustic stiffness change before its capacitance rises during first wetting?","prediction":"Mechanical bridges form before ionic pore access.","test":"Use safe aqueous carbon analogues with low-power sound and impedance.","contrary_outcome":"Both responses begin at the same saturation threshold.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0217","id":"S6-0217","volume":"900v6","title":"Ionic network topology parity","prediction":"Swapping reservoirs reverses the asymmetry.","test":"Use safe dilute salts with blocking electrodes and matched geometry.","contrary":"Transient asymmetry remains fixed to network orientation.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0217","title":"Ionic network topology parity","question":"Can mirror-symmetric electrolyte networks have different transients solely from unequal boundary reservoirs?","prediction":"Swapping reservoirs reverses the asymmetry.","test":"Use safe dilute salts with blocking electrodes and matched geometry.","contrary_outcome":"Transient asymmetry remains fixed to network orientation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0218","id":"S6-0218","volume":"900v6","title":"Aqueous lead heat partition","prediction":"Heat leaks through collectors redistribute the calorimetric signal.","test":"Use safe low-voltage cells with independently measured lead conduction.","contrary":"Calorimetric efficiency is lead-placement independent.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0218","title":"Aqueous lead heat partition","question":"Can lead placement alter measured cell heat while electrical efficiency stays unchanged?","prediction":"Heat leaks through collectors redistribute the calorimetric signal.","test":"Use safe low-voltage cells with independently measured lead conduction.","contrary_outcome":"Calorimetric efficiency is lead-placement independent.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0219","id":"S6-0219","volume":"900v6","title":"Porous electrode pressure census","prediction":"The two measurements identify independently imaged state variables.","test":"Use safe water-based carbon analogues with current limits.","contrary":"Both observables depend on one unresolved combined parameter.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0219","title":"Porous electrode pressure census","question":"Can impedance and pressure relaxation jointly estimate trapped-air volume and pore wetting?","prediction":"The two measurements identify independently imaged state variables.","test":"Use safe water-based carbon analogues with current limits.","contrary_outcome":"Both observables depend on one unresolved combined parameter.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0220","id":"S6-0220","volume":"900v6","title":"Salt front electrical echo","prediction":"Dead-end pores release stored ions later.","test":"Use safe dilute salt channels with complete concentration balance.","contrary":"Conductance returns immediately with bulk concentration.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0220","title":"Salt front electrical echo","question":"Can a concentration pulse leave a conductance echo after the bulk solution returns to baseline?","prediction":"Dead-end pores release stored ions later.","test":"Use safe dilute salt channels with complete concentration balance.","contrary_outcome":"Conductance returns immediately with bulk concentration.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0221","id":"S6-0221","volume":"900v6","title":"Capacitor thermal-state ambiguity","prediction":"Leakage differs until internal temperatures equilibrate.","test":"Use safe low-voltage carbon capacitors with depth-sensitive thermometry.","contrary":"Voltage and average temperature fully predict leakage.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0221","title":"Capacitor thermal-state ambiguity","question":"Can equal voltage and charge conceal different internal thermal fields that alter leakage?","prediction":"Leakage differs until internal temperatures equilibrate.","test":"Use safe low-voltage carbon capacitors with depth-sensitive thermometry.","contrary_outcome":"Voltage and average temperature fully predict leakage.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0222","id":"S6-0222","volume":"900v6","title":"Hydrated film contact asymmetry","prediction":"Rectification reverses when clamps are exchanged.","test":"Use safe low-voltage hydrated films with independent strain/water maps.","contrary":"Rectification persists under symmetric mechanical boundaries.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0222","title":"Hydrated film contact asymmetry","question":"Can asymmetric clamping create apparent ionic rectification in a chemically symmetric film?","prediction":"Rectification reverses when clamps are exchanged.","test":"Use safe low-voltage hydrated films with independent strain/water maps.","contrary_outcome":"Rectification persists under symmetric mechanical boundaries.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0223","id":"S6-0223","volume":"900v6","title":"Electrolyte bubble surface-charge audit","prediction":"Voltage tracks bubble coverage with no sustained faradaic current.","test":"Use safe air-water interfaces and guarded low-voltage sensing.","contrary":"Changes require reaction currents or concentration shifts.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0223","title":"Electrolyte bubble surface-charge audit","question":"Can bubble motion change a blocking-cell voltage through interfacial area redistribution alone?","prediction":"Voltage tracks bubble coverage with no sustained faradaic current.","test":"Use safe air-water interfaces and guarded low-voltage sensing.","contrary_outcome":"Changes require reaction currents or concentration shifts.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0224","id":"S6-0224","volume":"900v6","title":"Carbon charging front geometry","prediction":"Spatial potential maps show delayed reconnection.","test":"Use safe current-limited segmented carbon analogues with wetting imaging.","contrary":"Charging is spatially uniform after electrolyte resistance correction.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0224","title":"Carbon charging front geometry","question":"Can a charging front bend around an unwetted island and later reconnect behind it?","prediction":"Spatial potential maps show delayed reconnection.","test":"Use safe current-limited segmented carbon analogues with wetting imaging.","contrary_outcome":"Charging is spatially uniform after electrolyte resistance correction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0225","id":"S6-0225","volume":"900v6","title":"Aqueous thermal cycling leakage","prediction":"Leakage reduction follows imaged film disconnection and reverses on rewetting.","test":"Use safe low-voltage porous insulators with mass balance.","contrary":"Leakage changes require permanent chemical modification.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0225","title":"Aqueous thermal cycling leakage","question":"Can mild thermal cycling lower leakage by relocating conductive liquid films rather than altering chemistry?","prediction":"Leakage reduction follows imaged film disconnection and reverses on rewetting.","test":"Use safe low-voltage porous insulators with mass balance.","contrary_outcome":"Leakage changes require permanent chemical modification.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0226","id":"S6-0226","volume":"900v6","title":"Separator edge thermal shunt","prediction":"Thermal and electrical sensitivity maps peak in different regions.","test":"Use safe aqueous films with patterned mild heating and low-voltage probing.","contrary":"Both transport maps share the same dominant paths.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0226","title":"Separator edge thermal shunt","question":"Can a wet separator edge dominate heat transport while the central area dominates ionic transport?","prediction":"Thermal and electrical sensitivity maps peak in different regions.","test":"Use safe aqueous films with patterned mild heating and low-voltage probing.","contrary_outcome":"Both transport maps share the same dominant paths.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0227","id":"S6-0227","volume":"900v6","title":"Blocking-cell electrode motion","prediction":"Current follows capacitance geometry rather than optical concentration.","test":"Use safe low-voltage cells with calibrated motion and guarded electronics.","contrary":"Transient current requires concentration redistribution.","layers":[1],"categories":["physical","energy","biology","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0227","title":"Blocking-cell electrode motion","question":"Can a micrometric electrode displacement create an apparent diffusion transient without concentration change?","prediction":"Current follows capacitance geometry rather than optical concentration.","test":"Use safe low-voltage cells with calibrated motion and guarded electronics.","contrary_outcome":"Transient current requires concentration redistribution.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0228","id":"S6-0228","volume":"900v6","title":"Ionic gel prestress gate","prediction":"Pore exchange changes while through-path conductance remains matched.","test":"Use safe hydrated gels with force, impedance and water imaging.","contrary":"DC resistance uniquely predicts the relaxation spectrum.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0228","title":"Ionic gel prestress gate","question":"Can mechanical prestress alter ionic relaxation time independently of DC resistance?","prediction":"Pore exchange changes while through-path conductance remains matched.","test":"Use safe hydrated gels with force, impedance and water imaging.","contrary_outcome":"DC resistance uniquely predicts the relaxation spectrum.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0228","title":"Ionic gel prestress gate","question":"Can mechanical prestress alter ionic relaxation time independently of DC resistance?","prediction":"Pore exchange changes while through-path conductance remains matched.","test":"Use safe hydrated gels with force, impedance and water imaging.","contrary_outcome":"DC resistance uniquely predicts the relaxation spectrum.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0229","id":"S6-0229","volume":"900v6","title":"Carbon charge-rest waveform","prediction":"Internal redistribution depends on the state at interruption.","test":"Use safe current-limited aqueous capacitors with full energy accounting.","contrary":"Only total rest duration determines recovery.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0229","title":"Carbon charge-rest waveform","question":"Can equal-duration rests at different points in a charging waveform yield different final energy recovery?","prediction":"Internal redistribution depends on the state at interruption.","test":"Use safe current-limited aqueous capacitors with full energy accounting.","contrary_outcome":"Only total rest duration determines recovery.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0230","id":"S6-0230","volume":"900v6","title":"Electrolyte pore-wall temperature","prediction":"Concentration imaging explains the electrical change.","test":"Use safe dilute aqueous blocking cells with mild local heating.","contrary":"Capacitance changes remain after concentration correction.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0230","title":"Electrolyte pore-wall temperature","question":"Can wall heating redistribute ions enough to create an apparent capacitance increase without changing pore accessibility?","prediction":"Concentration imaging explains the electrical change.","test":"Use safe dilute aqueous blocking cells with mild local heating.","contrary_outcome":"Capacitance changes remain after concentration correction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0231","id":"S6-0231","volume":"900v6","title":"Aqueous reference placement","prediction":"Local concentration sampling changes the inferred trend.","test":"Use safe low-voltage nonfaradaic cells with optical concentration maps.","contrary":"Reference position has no effect after calibration.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0231","title":"Aqueous reference placement","question":"Can moving a reference probe across a flow stagnation point reverse an apparent overpotential trend?","prediction":"Local concentration sampling changes the inferred trend.","test":"Use safe low-voltage nonfaradaic cells with optical concentration maps.","contrary_outcome":"Reference position has no effect after calibration.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0232","id":"S6-0232","volume":"900v6","title":"Separator swelling force delay","prediction":"Connected liquid films precede bulk mechanical equilibration.","test":"Use safe polymer separators with impedance and force sensing.","contrary":"Conductance and pressure recover on one common time scale.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0232","title":"Separator swelling force delay","question":"Can ionic conductance recover before swelling pressure after a drying-rewetting cycle?","prediction":"Connected liquid films precede bulk mechanical equilibration.","test":"Use safe polymer separators with impedance and force sensing.","contrary_outcome":"Conductance and pressure recover on one common time scale.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0233","id":"S6-0233","volume":"900v6","title":"Carbon collector thermal preload","prediction":"Improved contact exposes previously isolated electrode regions.","test":"Use safe low-voltage cells with four-terminal contact and charge measurements.","contrary":"Gain persists when contact resistance is held fixed.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0233","title":"Carbon collector thermal preload","question":"Can collector expansion create a reversible capacity-like gain during warming?","prediction":"Improved contact exposes previously isolated electrode regions.","test":"Use safe low-voltage cells with four-terminal contact and charge measurements.","contrary_outcome":"Gain persists when contact resistance is held fixed.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0234","id":"S6-0234","volume":"900v6","title":"Electrolyte concentration cancellation","prediction":"Spatial heating reveals hidden gradients.","test":"Use safe current-limited salt channels with calibrated infrared thermometry.","contrary":"Uniform resistance implies uniform dissipation after geometry correction.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0234","title":"Electrolyte concentration cancellation","question":"Can opposite concentration gradients leave total resistance unchanged while producing different local dissipation?","prediction":"Spatial heating reveals hidden gradients.","test":"Use safe current-limited salt channels with calibrated infrared thermometry.","contrary_outcome":"Uniform resistance implies uniform dissipation after geometry correction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0235","id":"S6-0235","volume":"900v6","title":"Ionic pore acoustic sideband sign","prediction":"Independent perturbations yield opposite calibrated phases.","test":"Use safe low-voltage carbon analogues with weak mechanical forcing.","contrary":"Both perturbations produce the same unresolved sideband.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0235","title":"Ionic pore acoustic sideband sign","question":"Can the sign of an impedance sideband distinguish pore compression from collector motion?","prediction":"Independent perturbations yield opposite calibrated phases.","test":"Use safe low-voltage carbon analogues with weak mechanical forcing.","contrary_outcome":"Both perturbations produce the same unresolved sideband.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0236","id":"S6-0236","volume":"900v6","title":"Aqueous charge redistribution force","prediction":"Double-layer pressure modifies interfacial load.","test":"Use safe blocking contacts at conservative voltage with force and gas monitoring.","contrary":"Force changes are entirely thermal or instrumental.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0236","title":"Aqueous charge redistribution force","question":"Can a small reversible voltage step change contact force without measurable macroscopic deformation?","prediction":"Double-layer pressure modifies interfacial load.","test":"Use safe blocking contacts at conservative voltage with force and gas monitoring.","contrary_outcome":"Force changes are entirely thermal or instrumental.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0237","id":"S6-0237","volume":"900v6","title":"Separator anisotropy reset","prediction":"Water-path connectivity relaxes independently of the skeleton.","test":"Use safe oriented films with orthogonal conductance and structural imaging.","contrary":"Anisotropy remains fixed to fiber orientation.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0237","title":"Separator anisotropy reset","question":"Can a hydration cycle erase ionic anisotropy while preserving fiber orientation?","prediction":"Water-path connectivity relaxes independently of the skeleton.","test":"Use safe oriented films with orthogonal conductance and structural imaging.","contrary_outcome":"Anisotropy remains fixed to fiber orientation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0238","id":"S6-0238","volume":"900v6","title":"Carbon pulse energy localization","prediction":"Fast pulses heat the entrance region more strongly.","test":"Use safe current-limited segmented capacitors with thermal mapping.","contrary":"Heat distribution depends only on total energy.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0238","title":"Carbon pulse energy localization","question":"Can two equal-energy pulses deposit heat in different electrode regions because charging depth differs?","prediction":"Fast pulses heat the entrance region more strongly.","test":"Use safe current-limited segmented capacitors with thermal mapping.","contrary_outcome":"Heat distribution depends only on total energy.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0239","id":"S6-0239","volume":"900v6","title":"Electrolyte conductivity plateau","prediction":"Optical topology reveals compensating effects.","test":"Use safe dilute electrolyte cells with controlled trapped air.","contrary":"Conductance follows concentration after bubble-volume matching.","layers":[1,2],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0239","title":"Electrolyte conductivity plateau","question":"Can increasing salt concentration leave cell conductance unchanged because a gas blockage grows concurrently?","prediction":"Optical topology reveals compensating effects.","test":"Use safe dilute electrolyte cells with controlled trapped air.","contrary_outcome":"Conductance follows concentration after bubble-volume matching.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0239","title":"Electrolyte conductivity plateau","question":"Can increasing salt concentration leave cell conductance unchanged because a gas blockage grows concurrently?","prediction":"Optical topology reveals compensating effects.","test":"Use safe dilute electrolyte cells with controlled trapped air.","contrary_outcome":"Conductance follows concentration after bubble-volume matching.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0240","id":"S6-0240","volume":"900v6","title":"Hydrated membrane torsion","prediction":"Shear reorganizes connected hydration paths.","test":"Use safe low-voltage hydrated films with full strain/water maps.","contrary":"Conductance depends only on scalar strain magnitude.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0240","title":"Hydrated membrane torsion","question":"Can twisting a membrane change ionic conductance more than stretching it to the same average strain?","prediction":"Shear reorganizes connected hydration paths.","test":"Use safe low-voltage hydrated films with full strain/water maps.","contrary_outcome":"Conductance depends only on scalar strain magnitude.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0241","id":"S6-0241","volume":"900v6","title":"Aqueous cell acoustic heating floor","prediction":"Mode drift scales with probe current squared.","test":"Use safe current-limited cells with independent optical wetting checks.","contrary":"Acoustic response is electrical-probe independent.","layers":[1],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0241","title":"Aqueous cell acoustic heating floor","question":"Can the electrical readout dissipate enough heat to alter a weak acoustic mode used as a wetting probe?","prediction":"Mode drift scales with probe current squared.","test":"Use safe current-limited cells with independent optical wetting checks.","contrary_outcome":"Acoustic response is electrical-probe independent.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0242","id":"S6-0242","volume":"900v6","title":"Carbon pore dry-island recovery","prediction":"Thin films establish ionic access before optical saturation.","test":"Use safe carbon pore analogues with segmented charge sensing.","contrary":"Activation requires bulk liquid entry.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0242","title":"Carbon pore dry-island recovery","question":"Can a dry island become electrically active from its perimeter inward without visible bulk flooding?","prediction":"Thin films establish ionic access before optical saturation.","test":"Use safe carbon pore analogues with segmented charge sensing.","contrary_outcome":"Activation requires bulk liquid entry.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0243","id":"S6-0243","volume":"900v6","title":"Electrolyte hydraulic relaxation arc","prediction":"Arc time follows independently measured hydraulic compliance.","test":"Use safe compliant blocking cells with pressure and concentration sensing.","contrary":"Arc is independent of hydraulic boundary conditions.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0243","title":"Electrolyte hydraulic relaxation arc","question":"Can pressure equilibration create an impedance arc normally attributed to ion diffusion?","prediction":"Arc time follows independently measured hydraulic compliance.","test":"Use safe compliant blocking cells with pressure and concentration sensing.","contrary_outcome":"Arc is independent of hydraulic boundary conditions.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0244","id":"S6-0244","volume":"900v6","title":"Separator interfacial thermal memory","prediction":"Interfacial heat transfer retains wetting history.","test":"Use safe low-voltage cells with calorimetry and contact imaging.","contrary":"Bulk water content uniquely predicts temperature recovery.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0244","title":"Separator interfacial thermal memory","question":"Can two equally wet separators leave different cell temperatures after identical pulses because contact water differs?","prediction":"Interfacial heat transfer retains wetting history.","test":"Use safe low-voltage cells with calorimetry and contact imaging.","contrary_outcome":"Bulk water content uniquely predicts temperature recovery.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0245","id":"S6-0245","volume":"900v6","title":"Carbon voltage-noise topology","prediction":"Event correlations align with independently imaged connectivity.","test":"Use safe aqueous carbon analogues with low-voltage guarded sensing.","contrary":"Noise depends only on total uptake rate.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0245","title":"Carbon voltage-noise topology","question":"Can voltage-noise event statistics distinguish isolated pore filling from a spanning wetting avalanche?","prediction":"Event correlations align with independently imaged connectivity.","test":"Use safe aqueous carbon analogues with low-voltage guarded sensing.","contrary_outcome":"Noise depends only on total uptake rate.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0246","id":"S6-0246","volume":"900v6","title":"Aqueous cell convection threshold","prediction":"Conductance gain coincides with flow onset and extra heat loss.","test":"Use safe bounded-current salt cells with full energy and velocity maps.","contrary":"Conductance changes are explained by temperature-dependent mobility alone.","layers":[1],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0246","title":"Aqueous cell convection threshold","question":"Can weak Joule heating create convection that improves conductance while increasing total entropy production?","prediction":"Conductance gain coincides with flow onset and extra heat loss.","test":"Use safe bounded-current salt cells with full energy and velocity maps.","contrary_outcome":"Conductance changes are explained by temperature-dependent mobility alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0247","id":"S6-0247","volume":"900v6","title":"Ionic conductor fracture healing","prediction":"Electrical reconnection precedes cohesive repair.","test":"Use safe low-voltage gel strips with force and microscopy.","contrary":"Electrical and mechanical recovery occur together.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0247","title":"Ionic conductor fracture healing","question":"Can a cracked hydrated film recover conductance before tensile strength through a liquid bridge?","prediction":"Electrical reconnection precedes cohesive repair.","test":"Use safe low-voltage gel strips with force and microscopy.","contrary_outcome":"Electrical and mechanical recovery occur together.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0248","id":"S6-0248","volume":"900v6","title":"Carbon electrode rest-pressure phase","prediction":"Phase controls whether pores refill or expel electrolyte.","test":"Use safe aqueous capacitors with complete electrical/mechanical energy accounting.","contrary":"Any gain is paid entirely by uncounted mechanical input.","layers":[1,2],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0248","title":"Carbon electrode rest-pressure phase","question":"Can synchronizing preload changes with electrical rest improve reversible energy recovery at fixed mechanical work?","prediction":"Phase controls whether pores refill or expel electrolyte.","test":"Use safe aqueous capacitors with complete electrical/mechanical energy accounting.","contrary_outcome":"Any gain is paid entirely by uncounted mechanical input.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0248","title":"Carbon electrode rest-pressure phase","question":"Can synchronizing preload changes with electrical rest improve reversible energy recovery at fixed mechanical work?","prediction":"Phase controls whether pores refill or expel electrolyte.","test":"Use safe aqueous capacitors with complete electrical/mechanical energy accounting.","contrary_outcome":"Any gain is paid entirely by uncounted mechanical input.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0249","id":"S6-0249","volume":"900v6","title":"Low-voltage contact corrosion audit","prediction":"Four-terminal localization places resistance growth at the dry collector.","test":"Use safe low-voltage cells with independently replaceable contacts.","contrary":"Degradation remains inside the electrolyte-contacted region.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0249","title":"Low-voltage contact corrosion audit","question":"Can apparent electrode degradation in a nominally blocking cell arise from collector oxidation outside the electrolyte?","prediction":"Four-terminal localization places resistance growth at the dry collector.","test":"Use safe low-voltage cells with independently replaceable contacts.","contrary_outcome":"Degradation remains inside the electrolyte-contacted region.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0250","id":"S6-0250","volume":"900v6","title":"Electrolyte thermal gradient erasure","prediction":"Thermodiffusive redistribution counteracts the prior concentration profile.","test":"Use safe dilute salt cells with optical concentration calibration.","contrary":"Reversal adds no recovery beyond mean-temperature effects.","layers":[1],"categories":["physical","energy","biology","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0250","title":"Electrolyte thermal gradient erasure","question":"Can reversing a small temperature gradient erase electrical relaxation memory faster than an isothermal rest?","prediction":"Thermodiffusive redistribution counteracts the prior concentration profile.","test":"Use safe dilute salt cells with optical concentration calibration.","contrary_outcome":"Reversal adds no recovery beyond mean-temperature effects.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0251","id":"S6-0251","volume":"900v6","title":"Separator pore-mouth blockade","prediction":"Hidden reservoirs lose access while through-paths remain.","test":"Use safe carbon analogues with reversible inert masks.","contrary":"Both measurements scale with blocked area equally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0251","title":"Separator pore-mouth blockade","question":"Can blocking a small fraction of pore mouths reduce accessible capacitance far more than ionic DC conductance?","prediction":"Hidden reservoirs lose access while through-paths remain.","test":"Use safe carbon analogues with reversible inert masks.","contrary_outcome":"Both measurements scale with blocked area equally.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0252","id":"S6-0252","volume":"900v6","title":"Carbon compression charge expulsion","prediction":"Potential shifts to accommodate changing accessible area.","test":"Use safe current-limited aqueous capacitors with guarded charge and mass sensing.","contrary":"Charge must leave whenever electrolyte is expelled.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0252","title":"Carbon compression charge expulsion","question":"Can compressing a charged porous electrode expel electrolyte while its measured charge stays constant?","prediction":"Potential shifts to accommodate changing accessible area.","test":"Use safe current-limited aqueous capacitors with guarded charge and mass sensing.","contrary_outcome":"Charge must leave whenever electrolyte is expelled.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0253","id":"S6-0253","volume":"900v6","title":"Aqueous reference thermal junction","prediction":"Matched thermal anchoring removes the signal on a uniform solution.","test":"Use safe dilute salt standards and traceable low-voltage thermometry.","contrary":"Voltage persists after junction-temperature correction.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0253","title":"Aqueous reference thermal junction","question":"Can a temperature difference along reference leads mimic concentration-cell voltage?","prediction":"Matched thermal anchoring removes the signal on a uniform solution.","test":"Use safe dilute salt standards and traceable low-voltage thermometry.","contrary_outcome":"Voltage persists after junction-temperature correction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0254","id":"S6-0254","volume":"900v6","title":"Ionic gel acoustic polarization","prediction":"The two structures produce different calibrated anisotropy signatures.","test":"Use safe gels with independent water and chain-orientation imaging.","contrary":"Acoustic anisotropy cannot separate the structures.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0254","title":"Ionic gel acoustic polarization","question":"Can orthogonal acoustic probes distinguish hydration channels from polymer-chain alignment?","prediction":"The two structures produce different calibrated anisotropy signatures.","test":"Use safe gels with independent water and chain-orientation imaging.","contrary_outcome":"Acoustic anisotropy cannot separate the structures.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0255","id":"S6-0255","volume":"900v6","title":"Carbon electrode heat-capacity crossover","prediction":"Specific heat contrast creates an early thermal crossover.","test":"Use safe wetted carbon standards with gravimetry and calorimetry.","contrary":"Thermal storage scales only with total mass.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0255","title":"Carbon electrode heat-capacity crossover","question":"Can absorbed electrolyte dominate thermal storage before it dominates total electrode mass?","prediction":"Specific heat contrast creates an early thermal crossover.","test":"Use safe wetted carbon standards with gravimetry and calorimetry.","contrary_outcome":"Thermal storage scales only with total mass.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0256","id":"S6-0256","volume":"900v6","title":"Electrolyte concentration front pinning","prediction":"Front delay persists without a hydrodynamic obstacle.","test":"Use safe dilute salt and benign sorbing walls with optical maps.","contrary":"Delay vanishes after fluid residence-time correction.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0256","title":"Electrolyte concentration front pinning","question":"Can a geometrically smooth channel pin a concentration front through wall sorption alone?","prediction":"Front delay persists without a hydrodynamic obstacle.","test":"Use safe dilute salt and benign sorbing walls with optical maps.","contrary_outcome":"Delay vanishes after fluid residence-time correction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0257","id":"S6-0257","volume":"900v6","title":"Separator recovery voltage witness","prediction":"Potential tracks independently measured thickness relaxation.","test":"Use safe low-voltage blocking capacitors with displacement sensing.","contrary":"Voltage depends only on temperature and leakage.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0257","title":"Separator recovery voltage witness","question":"Can open-circuit voltage reveal mechanical recovery of a separator under fixed stored charge?","prediction":"Potential tracks independently measured thickness relaxation.","test":"Use safe low-voltage blocking capacitors with displacement sensing.","contrary_outcome":"Voltage depends only on temperature and leakage.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0258","id":"S6-0258","volume":"900v6","title":"Carbon pore impedance parity","prediction":"Fixed-state reciprocal responses agree while sequential measurements differ.","test":"Use safe low-voltage carbon networks with simultaneous channels.","contrary":"Asymmetry persists in a verified fixed linear state.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0258","title":"Carbon pore impedance parity","question":"Can source/detector exchange in a segmented electrode distinguish instrumentation asymmetry from true evolving state?","prediction":"Fixed-state reciprocal responses agree while sequential measurements differ.","test":"Use safe low-voltage carbon networks with simultaneous channels.","contrary_outcome":"Asymmetry persists in a verified fixed linear state.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0259","id":"S6-0259","volume":"900v6","title":"Electrolyte meniscus hydraulic pulse","prediction":"Interfacial stress precedes bulk displacement.","test":"Use safe conservative-voltage blocking interfaces with pressure and interferometric sensing.","contrary":"Pressure changes are entirely thermal or require visible motion.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0259","title":"Electrolyte meniscus hydraulic pulse","question":"Can electrical charging alter a pinned meniscus enough to launch a measurable pressure pulse below visible motion?","prediction":"Interfacial stress precedes bulk displacement.","test":"Use safe conservative-voltage blocking interfaces with pressure and interferometric sensing.","contrary_outcome":"Pressure changes are entirely thermal or require visible motion.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0259","title":"Electrolyte meniscus hydraulic pulse","question":"Can electrical charging alter a pinned meniscus enough to launch a measurable pressure pulse below visible motion?","prediction":"Interfacial stress precedes bulk displacement.","test":"Use safe conservative-voltage blocking interfaces with pressure and interferometric sensing.","contrary_outcome":"Pressure changes are entirely thermal or require visible motion.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0260","id":"S6-0260","volume":"900v6","title":"Hydrated film salt exclusion","prediction":"Water uptake outruns ion diffusion.","test":"Use safe salt-water gels with spatial concentration and volume maps.","contrary":"Salt concentration remains uniform during swelling.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0260","title":"Hydrated film salt exclusion","question":"Can a swelling front temporarily concentrate salt behind itself while total salt remains fixed?","prediction":"Water uptake outruns ion diffusion.","test":"Use safe salt-water gels with spatial concentration and volume maps.","contrary_outcome":"Salt concentration remains uniform during swelling.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0261","id":"S6-0261","volume":"900v6","title":"Carbon voltage rebound geometry","prediction":"Ion redistribution changes the local reference potential.","test":"Use safe low-voltage cells with optical concentration and multiple reference positions.","contrary":"Rebound sign is reservoir-independent.","layers":[1],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0261","title":"Carbon voltage rebound geometry","question":"Can a side reservoir reverse the sign of a small voltage rebound without changing electrode chemistry?","prediction":"Ion redistribution changes the local reference potential.","test":"Use safe low-voltage cells with optical concentration and multiple reference positions.","contrary_outcome":"Rebound sign is reservoir-independent.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0262","id":"S6-0262","volume":"900v6","title":"Electrolyte current-path thermal alias","prediction":"Local temperature hot spots migrate with concentration topology.","test":"Use safe current-limited transparent networks with thermal/concentration imaging.","contrary":"Dissipation remains spatially fixed.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0262","title":"Electrolyte current-path thermal alias","question":"Can a current path move while the external current and total heat stay constant?","prediction":"Local temperature hot spots migrate with concentration topology.","test":"Use safe current-limited transparent networks with thermal/concentration imaging.","contrary_outcome":"Dissipation remains spatially fixed.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0263","id":"S6-0263","volume":"900v6","title":"Separator wetting pressure ranking","prediction":"Gas venting reverses thickness-based expectations.","test":"Use safe benign electrolyte with tomography and controlled vents.","contrary":"Wetting time scales only with thickness squared.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0263","title":"Separator wetting pressure ranking","question":"Can a thicker separator wet faster than a thinner one because its pore connectivity reduces trapped-gas resistance?","prediction":"Gas venting reverses thickness-based expectations.","test":"Use safe benign electrolyte with tomography and controlled vents.","contrary_outcome":"Wetting time scales only with thickness squared.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0264","id":"S6-0264","volume":"900v6","title":"Carbon contact aging acoustics","prediction":"Mechanical recontact precedes conductive microjunction formation.","test":"Use safe low-current carbon contacts with force and acoustic sensing.","contrary":"The two recoveries are synchronous.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0264","title":"Carbon contact aging acoustics","question":"Can acoustic contact stiffness recover while electrical contact resistance remains high after unloading?","prediction":"Mechanical recontact precedes conductive microjunction formation.","test":"Use safe low-current carbon contacts with force and acoustic sensing.","contrary_outcome":"The two recoveries are synchronous.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0265","id":"S6-0265","volume":"900v6","title":"Aqueous cell optical field audit","prediction":"Apparent motion vanishes with independent reflection metrology.","test":"Use safe low-voltage transparent cells with fixed electrode references.","contrary":"Electrode motion remains after optical-path correction.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0265","title":"Aqueous cell optical field audit","question":"Can refractive concentration gradients bend a probe beam enough to bias electrode-position measurements?","prediction":"Apparent motion vanishes with independent reflection metrology.","test":"Use safe low-voltage transparent cells with fixed electrode references.","contrary_outcome":"Electrode motion remains after optical-path correction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0266","id":"S6-0266","volume":"900v6","title":"Ionic conductor thermal noise","prediction":"Intermittent pathway switching broadens noise first.","test":"Use safe low-voltage hydrated films with independent water maps.","contrary":"Noise is a single-valued function of mean conductance.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0266","title":"Ionic conductor thermal noise","question":"Can a humidity-induced noise increase occur without a corresponding mean-conductance change?","prediction":"Intermittent pathway switching broadens noise first.","test":"Use safe low-voltage hydrated films with independent water maps.","contrary_outcome":"Noise is a single-valued function of mean conductance.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0267","id":"S6-0267","volume":"900v6","title":"Carbon pore pulse reversal","prediction":"Redistribution reduces otherwise trapped charge losses.","test":"Use safe bounded-voltage aqueous capacitors with full cycle energy accounting.","contrary":"Net recovery never exceeds the rest control.","layers":[1,2],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0267","title":"Carbon pore pulse reversal","question":"Can a small reversed pulse recover more stored energy than an equal-duration zero-current rest after its own input is counted?","prediction":"Redistribution reduces otherwise trapped charge losses.","test":"Use safe bounded-voltage aqueous capacitors with full cycle energy accounting.","contrary_outcome":"Net recovery never exceeds the rest control.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0267","title":"Carbon pore pulse reversal","question":"Can a small reversed pulse recover more stored energy than an equal-duration zero-current rest after its own input is counted?","prediction":"Redistribution reduces otherwise trapped charge losses.","test":"Use safe bounded-voltage aqueous capacitors with full cycle energy accounting.","contrary_outcome":"Net recovery never exceeds the rest control.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0268","id":"S6-0268","volume":"900v6","title":"Electrolyte freeze-front charge","prediction":"Ion exclusion changes local concentration potentials.","test":"Use small water-salt blocking cells with current limits and phase imaging.","contrary":"Voltage changes require faradaic reactions or net charge exchange.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0268","title":"Electrolyte freeze-front charge","question":"Can a safe freezing front redistribute voltage without net electrode charge transfer?","prediction":"Ion exclusion changes local concentration potentials.","test":"Use small water-salt blocking cells with current limits and phase imaging.","contrary_outcome":"Voltage changes require faradaic reactions or net charge exchange.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0269","id":"S6-0269","volume":"900v6","title":"Separator edge strain leak","prediction":"Spatial current maps localize leakage ahead of visible damage.","test":"Use safe low-voltage benign electrolyte films under small loads.","contrary":"Leakage begins only after a resolved through-thickness defect.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0269","title":"Separator edge strain leak","question":"Can an edge strain concentration dominate ionic leakage while the central separator remains intact?","prediction":"Spatial current maps localize leakage ahead of visible damage.","test":"Use safe low-voltage benign electrolyte films under small loads.","contrary_outcome":"Leakage begins only after a resolved through-thickness defect.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0270","id":"S6-0270","volume":"900v6","title":"Carbon charging heat delay","prediction":"Calorimetric lag exceeds independently measured sensor response.","test":"Use safe low-voltage capacitors with electrical energy closure.","contrary":"All heat follows instantaneous resistive current loss.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0270","title":"Carbon charging heat delay","question":"Can the maximum heat rate occur after electrical current falls because trapped ions continue redistributing?","prediction":"Calorimetric lag exceeds independently measured sensor response.","test":"Use safe low-voltage capacitors with electrical energy closure.","contrary_outcome":"All heat follows instantaneous resistive current loss.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0271","id":"S6-0271","volume":"900v6","title":"Electrolyte density inversion","prediction":"Delayed diffusion shifts the density profile into instability.","test":"Use safe low-voltage salt cells with concentration and velocity imaging.","contrary":"Convection begins only during active current or thermal forcing.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0271","title":"Electrolyte density inversion","question":"Can a charging-generated concentration gradient become buoyantly unstable only after current stops?","prediction":"Delayed diffusion shifts the density profile into instability.","test":"Use safe low-voltage salt cells with concentration and velocity imaging.","contrary_outcome":"Convection begins only during active current or thermal forcing.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0272","id":"S6-0272","volume":"900v6","title":"Ionic gel compression anisotropy","prediction":"Water-channel orientation changes at fixed average hydration.","test":"Use safe gels with multiaxis conductance and 3D water maps.","contrary":"All conductance directions change together.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0272","title":"Ionic gel compression anisotropy","question":"Can compression increase conductance along one direction while decreasing it perpendicular to that direction?","prediction":"Water-channel orientation changes at fixed average hydration.","test":"Use safe gels with multiaxis conductance and 3D water maps.","contrary_outcome":"All conductance directions change together.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0273","id":"S6-0273","volume":"900v6","title":"Carbon pore hydraulic acoustic clock","prediction":"Acoustic recovery tracks local liquid motion rather than charge.","test":"Use safe water-based carbon analogues with low-power sound and imaging.","contrary":"Acoustic response contains only electrical-state information.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0273","title":"Carbon pore hydraulic acoustic clock","question":"Can a weak sound pulse measure electrolyte refill time independently of electrical relaxation?","prediction":"Acoustic recovery tracks local liquid motion rather than charge.","test":"Use safe water-based carbon analogues with low-power sound and imaging.","contrary_outcome":"Acoustic response contains only electrical-state information.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0274","id":"S6-0274","volume":"900v6","title":"Aqueous cell wall sorption memory","prediction":"Surface-area scaling reveals the hidden reservoir.","test":"Use safe dilute salt blocking cells with inert-wall controls.","contrary":"Relaxation is independent of wall area and chemistry.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0274","title":"Aqueous cell wall sorption memory","question":"Can a vessel wall store enough ions to alter later voltage relaxation without detectable bulk concentration change?","prediction":"Surface-area scaling reveals the hidden reservoir.","test":"Use safe dilute salt blocking cells with inert-wall controls.","contrary_outcome":"Relaxation is independent of wall area and chemistry.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0275","id":"S6-0275","volume":"900v6","title":"Separator microfold thermal short","prediction":"Thermal contact crosses the fold while ionic paths remain long.","test":"Use safe low-voltage cells with thermal and electrical maps.","contrary":"Thermal and ionic shortcuts appear together.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0275","title":"Separator microfold thermal short","question":"Can a folded wet separator create a local heat bridge without a low-resistance ionic short?","prediction":"Thermal contact crosses the fold while ionic paths remain long.","test":"Use safe low-voltage cells with thermal and electrical maps.","contrary_outcome":"Thermal and ionic shortcuts appear together.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0276","id":"S6-0276","volume":"900v6","title":"Carbon electrode orientation bias","prediction":"Orientation effects vanish after verified saturation.","test":"Use safe aqueous carbon capacitors with gas imaging.","contrary":"Orientation effects persist in fully wetted controls.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0276","title":"Carbon electrode orientation bias","question":"Can gravity alter first-charge utilization through trapped-air migration while leaving fully wetted performance unchanged?","prediction":"Orientation effects vanish after verified saturation.","test":"Use safe aqueous carbon capacitors with gas imaging.","contrary_outcome":"Orientation effects persist in fully wetted controls.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0277","id":"S6-0277","volume":"900v6","title":"Electrolyte pulse phase thermometer","prediction":"Joint optical concentration data removes temperature bias.","test":"Use safe dilute salt standards with traceable thermal steps.","contrary":"Electrical phase alone recovers temperature across concentration histories.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0277","title":"Electrolyte pulse phase thermometer","question":"Can a small electrical probe infer local temperature only after concentration relaxation is separately constrained?","prediction":"Joint optical concentration data removes temperature bias.","test":"Use safe dilute salt standards with traceable thermal steps.","contrary_outcome":"Electrical phase alone recovers temperature across concentration histories.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0278","id":"S6-0278","volume":"900v6","title":"Ionic membrane tension release","prediction":"Internal hydration channels reorganize under fixed endpoints.","test":"Use safe low-voltage gels with full strain and water sensing.","contrary":"Current requires resolved macroscopic deformation.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0278","title":"Ionic membrane tension release","question":"Can releasing tension create a current transient even when membrane length barely changes?","prediction":"Internal hydration channels reorganize under fixed endpoints.","test":"Use safe low-voltage gels with full strain and water sensing.","contrary_outcome":"Current requires resolved macroscopic deformation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0279","id":"S6-0279","volume":"900v6","title":"Carbon pore saturation plateau","prediction":"Charge and mass decouple at late wetting times.","test":"Use safe carbon analogues with gravimetry and segmented capacitance.","contrary":"Charge remains proportional to total liquid uptake.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0279","title":"Carbon pore saturation plateau","question":"Can accessible charge plateau while liquid uptake continues because later water enters electrically isolated pores?","prediction":"Charge and mass decouple at late wetting times.","test":"Use safe carbon analogues with gravimetry and segmented capacitance.","contrary_outcome":"Charge remains proportional to total liquid uptake.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0279","title":"Carbon pore saturation plateau","question":"Can accessible charge plateau while liquid uptake continues because later water enters electrically isolated pores?","prediction":"Charge and mass decouple at late wetting times.","test":"Use safe carbon analogues with gravimetry and segmented capacitance.","contrary_outcome":"Charge remains proportional to total liquid uptake.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0280","id":"S6-0280","volume":"900v6","title":"Aqueous electrothermal wave","prediction":"Spatial resistance gradients shift dissipation phase.","test":"Use safe bounded-current salt channels with full thermal/concentration maps.","contrary":"Temperature phase follows only heat diffusion from fixed sources.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0280","title":"Aqueous electrothermal wave","question":"Can a small current modulation produce a traveling temperature pattern opposite to a stationary concentration gradient?","prediction":"Spatial resistance gradients shift dissipation phase.","test":"Use safe bounded-current salt channels with full thermal/concentration maps.","contrary_outcome":"Temperature phase follows only heat diffusion from fixed sources.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0281","id":"S6-0281","volume":"900v6","title":"Separator contact-plane ambiguity","prediction":"Changing only contact pressure separates the two contributions.","test":"Use safe low-voltage reference films with independent thickness calibration.","contrary":"The components remain unidentifiable.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0281","title":"Separator contact-plane ambiguity","question":"Can equal total resistance hide whether the dominant ionic drop is inside the separator or at its surfaces?","prediction":"Changing only contact pressure separates the two contributions.","test":"Use safe low-voltage reference films with independent thickness calibration.","contrary_outcome":"The components remain unidentifiable.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0282","id":"S6-0282","volume":"900v6","title":"Carbon low-frequency loss floor","prediction":"Long-duration guarded charge balance removes the apparent extra capacitance.","test":"Use safe low-voltage carbon standards with independent leakage sensing.","contrary":"Slow capacitance remains robust after leakage correction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0282","title":"Carbon low-frequency loss floor","question":"Can leakage uncertainty dominate inferred slow pore capacitance despite precise impedance amplitude?","prediction":"Long-duration guarded charge balance removes the apparent extra capacitance.","test":"Use safe low-voltage carbon standards with independent leakage sensing.","contrary_outcome":"Slow capacitance remains robust after leakage correction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0283","id":"S6-0283","volume":"900v6","title":"Electrolyte vibration mixing threshold","prediction":"A threshold aligns with imaged mixing rather than electrode motion.","test":"Use safe dilute salt cells with low-power vibration and optical controls.","contrary":"Conductivity changes continuously with vibration regardless of stratification.","layers":[1],"categories":["physical","energy","biology","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0283","title":"Electrolyte vibration mixing threshold","question":"Can weak vibration change conductivity only after a concentration layer becomes unstable?","prediction":"A threshold aligns with imaged mixing rather than electrode motion.","test":"Use safe dilute salt cells with low-power vibration and optical controls.","contrary_outcome":"Conductivity changes continuously with vibration regardless of stratification.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0284","id":"S6-0284","volume":"900v6","title":"Ionic gel dry-crack bypass","prediction":"Current maps route around the crack edge.","test":"Use safe low-voltage gel strips with 3D hydration imaging.","contrary":"Conductance recovery requires bulk crack filling.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0284","title":"Ionic gel dry-crack bypass","question":"Can a thin surface water film restore conductance around a dry crack without healing its interior?","prediction":"Current maps route around the crack edge.","test":"Use safe low-voltage gel strips with 3D hydration imaging.","contrary_outcome":"Conductance recovery requires bulk crack filling.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0285","id":"S6-0285","volume":"900v6","title":"Carbon electrode thermal reset","prediction":"Redistribution accelerates while guarded charge balance closes.","test":"Use safe low-voltage aqueous capacitors with independent leakage calibration.","contrary":"Reset requires charge loss or permanent material change.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0285","title":"Carbon electrode thermal reset","question":"Can a mild thermal cycle erase voltage-relaxation history without changing stored charge?","prediction":"Redistribution accelerates while guarded charge balance closes.","test":"Use safe low-voltage aqueous capacitors with independent leakage calibration.","contrary_outcome":"Reset requires charge loss or permanent material change.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0286","id":"S6-0286","volume":"900v6","title":"Electrolyte wall-flow coupling","prediction":"Wall deformation drives internal recirculation.","test":"Use safe salt-water channels with low-voltage sensing and particle tracking.","contrary":"Concentration changes require net through-flow.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0286","title":"Electrolyte wall-flow coupling","question":"Can a flexible wall move ions laterally enough to alter local concentration while net volume stays fixed?","prediction":"Wall deformation drives internal recirculation.","test":"Use safe salt-water channels with low-voltage sensing and particle tracking.","contrary_outcome":"Concentration changes require net through-flow.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0287","id":"S6-0287","volume":"900v6","title":"Separator pore-pressure back-action","prediction":"Drainage time increases with probe dead volume.","test":"Use safe electrolyte-soaked films with optical and pressure-based comparisons.","contrary":"Drainage is probe-volume independent.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0287","title":"Separator pore-pressure back-action","question":"Can the pressure probe used during compression slow separator drainage measurably?","prediction":"Drainage time increases with probe dead volume.","test":"Use safe electrolyte-soaked films with optical and pressure-based comparisons.","contrary_outcome":"Drainage is probe-volume independent.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0288","id":"S6-0288","volume":"900v6","title":"Carbon charge-state acoustics","prediction":"Damping follows imaged liquid placement.","test":"Use safe aqueous carbon cells with weak sound and mass balance.","contrary":"Damping depends only on total charge.","layers":[1,2],"categories":["physical","energy","biology","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0288","title":"Carbon charge-state acoustics","question":"Can a low-voltage charged state change an electrode's weak acoustic damping through electrolyte redistribution rather than intrinsic carbon stiffness?","prediction":"Damping follows imaged liquid placement.","test":"Use safe aqueous carbon cells with weak sound and mass balance.","contrary_outcome":"Damping depends only on total charge.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0288","title":"Carbon charge-state acoustics","question":"Can a low-voltage charged state change an electrode's weak acoustic damping through electrolyte redistribution rather than intrinsic carbon stiffness?","prediction":"Damping follows imaged liquid placement.","test":"Use safe aqueous carbon cells with weak sound and mass balance.","contrary_outcome":"Damping depends only on total charge.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0289","id":"S6-0289","volume":"900v6","title":"Thermal dome circulation","prediction":"Circulation direction follows dome curvature and reverses under inverted heating.","test":"Use safe water cells with thermal and particle-velocity mapping.","contrary":"Flow depends only on total heat input.","layers":[1],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0289","title":"Thermal dome circulation","question":"Can a shallow dome redirect a cooling plume into a persistent toroidal cell without external flow?","prediction":"Circulation direction follows dome curvature and reverses under inverted heating.","test":"Use safe water cells with thermal and particle-velocity mapping.","contrary_outcome":"Flow depends only on total heat input.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0290","id":"S6-0290","volume":"900v6","title":"Optical pore-angle archive","prediction":"Angular scattering anisotropy follows front direction after mass stabilizes.","test":"Use safe benign films with matched final porosity and low-power optics.","contrary":"Scattering depends only on final density.","layers":[1],"categories":["physical","data"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0290","title":"Optical pore-angle archive","question":"Can a dried transparent porous film retain the direction of the last wetting front in its scattering pattern?","prediction":"Angular scattering anisotropy follows front direction after mass stabilizes.","test":"Use safe benign films with matched final porosity and low-power optics.","contrary_outcome":"Scattering depends only on final density.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0291","id":"S6-0291","volume":"900v6","title":"Acoustic bridge rupture ledger","prediction":"Contact-line speed controls acoustic conversion efficiency.","test":"Use safe water bridges with full surface/work and sound-energy accounting.","contrary":"Acoustic energy depends only on lost interface area.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0291","title":"Acoustic bridge rupture ledger","question":"Can a rupturing capillary bridge radiate different sound fractions at equal released surface energy?","prediction":"Contact-line speed controls acoustic conversion efficiency.","test":"Use safe water bridges with full surface/work and sound-energy accounting.","contrary_outcome":"Acoustic energy depends only on lost interface area.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0292","id":"S6-0292","volume":"900v6","title":"Crystal surface wetting asymmetry","prediction":"Elastic strain shifts local wetting thresholds.","test":"Use benign transparent crystals under small loads with contact-angle imaging.","contrary":"Wetting order is load-independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0292","title":"Crystal surface wetting asymmetry","question":"Can a reversible load change alter which face of a crystal first wets without changing chemistry?","prediction":"Elastic strain shifts local wetting thresholds.","test":"Use benign transparent crystals under small loads with contact-angle imaging.","contrary_outcome":"Wetting order is load-independent.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0293","id":"S6-0293","volume":"900v6","title":"Granular shadow contact cooling","prediction":"Thermal arrival follows imaged contact connectivity.","test":"Use safe inert packs with localized low-power heating and thermometry.","contrary":"Arrival ranks by physical distance alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0293","title":"Granular shadow contact cooling","question":"Can shading one grain cool a remote neighbor faster than an adjacent grain through a sparse contact chain?","prediction":"Thermal arrival follows imaged contact connectivity.","test":"Use safe inert packs with localized low-power heating and thermometry.","contrary_outcome":"Arrival ranks by physical distance alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0294","id":"S6-0294","volume":"900v6","title":"Liquid front elastic echo","prediction":"Wall recoil returns stored elastic energy to the liquid.","test":"Use safe transparent soft channels with simultaneous wall and interface imaging.","contrary":"The second motion requires another pressure input.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0294","title":"Liquid front elastic echo","question":"Can one capillary jump produce a delayed second meniscus motion through a deformable wall?","prediction":"Wall recoil returns stored elastic energy to the liquid.","test":"Use safe transparent soft channels with simultaneous wall and interface imaging.","contrary_outcome":"The second motion requires another pressure input.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0295","id":"S6-0295","volume":"900v6","title":"Thermal film strain compensation","prediction":"Area loss accounts for gravimetric drying despite fixed thickness.","test":"Use safe benign films with 3D shape and mass measurements.","contrary":"Constant thickness implies negligible water loss.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0295","title":"Thermal film strain compensation","question":"Can a mechanically constrained wet film maintain constant thickness while losing water through lateral contraction?","prediction":"Area loss accounts for gravimetric drying despite fixed thickness.","test":"Use safe benign films with 3D shape and mass measurements.","contrary_outcome":"Constant thickness implies negligible water loss.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0296","id":"S6-0296","volume":"900v6","title":"Optical bubble shell detection","prediction":"Optical sensitivity precedes measurable mechanical stiffening.","test":"Use safe air-water bubbles with benign surfactant and weak probes.","contrary":"Both signatures appear at the same calibrated coverage.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0296","title":"Optical bubble shell detection","question":"Can a thin adsorbed shell change polarized scattering before changing bubble resonance?","prediction":"Optical sensitivity precedes measurable mechanical stiffening.","test":"Use safe air-water bubbles with benign surfactant and weak probes.","contrary_outcome":"Both signatures appear at the same calibrated coverage.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0297","id":"S6-0297","volume":"900v6","title":"Acoustic stress-neutral insertion","prediction":"Local stiffness redistribution rotates nearly degenerate modes.","test":"Use safe calibrated beam networks with full-field vibrometry.","contrary":"Mode shape is fixed by frequency and mass.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0297","title":"Acoustic stress-neutral insertion","question":"Can a tiny insert alter a mode shape while leaving both resonance frequency and total mass unchanged?","prediction":"Local stiffness redistribution rotates nearly degenerate modes.","test":"Use safe calibrated beam networks with full-field vibrometry.","contrary_outcome":"Mode shape is fixed by frequency and mass.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0298","id":"S6-0298","volume":"900v6","title":"Crystal growth water-pressure pulse","prediction":"Growth changes track newly formed bubbles and vanish after degassing.","test":"Use benign salt cells with modest safe pressure steps.","contrary":"Growth responds identically in gas-free controls.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0298","title":"Crystal growth water-pressure pulse","question":"Can a sudden drop in external pressure change growth through degassing even when supersaturation is held fixed?","prediction":"Growth changes track newly formed bubbles and vanish after degassing.","test":"Use benign salt cells with modest safe pressure steps.","contrary_outcome":"Growth responds identically in gas-free controls.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0299","id":"S6-0299","volume":"900v6","title":"Granular liquid-rim tensile gate","prediction":"Capillary rim forces support an otherwise unbonded interior.","test":"Use safe inert particle rafts with imaged water and calibrated force.","contrary":"Tensile support requires wetting throughout the island.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0299","title":"Granular liquid-rim tensile gate","question":"Can a thin wet perimeter hold a dry grain island together under tension?","prediction":"Capillary rim forces support an otherwise unbonded interior.","test":"Use safe inert particle rafts with imaged water and calibrated force.","contrary_outcome":"Tensile support requires wetting throughout the island.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0299","title":"Granular liquid-rim tensile gate","question":"Can a thin wet perimeter hold a dry grain island together under tension?","prediction":"Capillary rim forces support an otherwise unbonded interior.","test":"Use safe inert particle rafts with imaged water and calibrated force.","contrary_outcome":"Tensile support requires wetting throughout the island.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0300","id":"S6-0300","volume":"900v6","title":"Thermal capillary geometry clock","prediction":"Off-center necks create asymmetric temperature-phase delays.","test":"Use safe water bridges with independent 3D geometry and thermometry.","contrary":"Cooling depends only on total volume and exposed area.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0300","title":"Thermal capillary geometry clock","question":"Can an evaporating bridge's cooling trajectory identify neck position when total liquid volume is known?","prediction":"Off-center necks create asymmetric temperature-phase delays.","test":"Use safe water bridges with independent 3D geometry and thermometry.","contrary_outcome":"Cooling depends only on total volume and exposed area.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0301","id":"S6-0301","volume":"900v6","title":"Blind cavity pressure memory","prediction":"Meniscus pinning preserves a pressure offset that disappears when the contact line is released.","test":"Cycle a compliant slit in a transparent water cell; measure cavity pressure and meniscus position against an unpinned control.","contrary":"Pressure returns to baseline regardless of contact-line release.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0301","title":"Blind cavity pressure memory","question":"Can a water-filled blind cavity retain a measurable pressure offset after its connecting slit returns to its original width?","prediction":"Meniscus pinning preserves a pressure offset that disappears when the contact line is released.","test":"Cycle a compliant slit in a transparent water cell; measure cavity pressure and meniscus position against an unpinned control.","contrary_outcome":"Pressure returns to baseline regardless of contact-line release.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0302","id":"S6-0302","volume":"900v6","title":"Folded strip drainage inversion","prediction":"A concave fold traps a connected liquid ridge whose retained mass exceeds the flat-strip value.","test":"Weigh identical wet strips while varying curvature and imaging the ridge; control inclination and surface treatment.","contrary":"Retained mass decreases monotonically with the lower edge height.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0302","title":"Folded strip drainage inversion","question":"Can bending a draining strip increase residual water even as its lowest edge moves downward?","prediction":"A concave fold traps a connected liquid ridge whose retained mass exceeds the flat-strip value.","test":"Weigh identical wet strips while varying curvature and imaging the ridge; control inclination and surface treatment.","contrary_outcome":"Retained mass decreases monotonically with the lower edge height.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0303","id":"S6-0303","volume":"900v6","title":"Intermittent vent bubble metering","prediction":"Separated vent pulses produce narrower bubble-volume distributions than continuous venting at matched throughput.","test":"Use low-pressure air and water with synchronized valve records and high-speed volume measurements.","contrary":"Bubble distributions depend only on mean flow and vent resistance.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0303","title":"Intermittent vent bubble metering","question":"Can the timing of vent openings set bubble volume independently of mean gas flow in a water channel?","prediction":"Separated vent pulses produce narrower bubble-volume distributions than continuous venting at matched throughput.","test":"Use low-pressure air and water with synchronized valve records and high-speed volume measurements.","contrary_outcome":"Bubble distributions depend only on mean flow and vent resistance.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0304","id":"S6-0304","volume":"900v6","title":"Eccentric roller wetting torque","prediction":"The roller settles at a reproducible wetting-dependent angle that reverses when the liquid contact changes sides.","test":"Measure torque and contact-line position on a small roller with matched dry and immersed controls.","contrary":"Measured capillary torque cannot account for any angular shift.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0304","title":"Eccentric roller wetting torque","question":"Can a wet contact line shift the angular equilibrium of an eccentric roller beyond its dry gravitational equilibrium?","prediction":"The roller settles at a reproducible wetting-dependent angle that reverses when the liquid contact changes sides.","test":"Measure torque and contact-line position on a small roller with matched dry and immersed controls.","contrary_outcome":"Measured capillary torque cannot account for any angular shift.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0305","id":"S6-0305","volume":"900v6","title":"Dead-end channel solute release","prediction":"Reversals exchange fluid near the mouth and reduce the late-time solute tail without entering the branch mechanically.","test":"Track food-dye concentration in a transparent branching channel under matched absolute pumped volume and peak shear.","contrary":"Concentration tails collapse after normalization by total pumped volume.","layers":[1,2,3],"categories":["physical","anomalies"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0305","title":"Dead-end channel solute release","question":"Can periodic flow reversals empty a diffusion-limited dead-end channel faster than steady flow with the same pumped volume?","prediction":"Reversals exchange fluid near the mouth and reduce the late-time solute tail without entering the branch mechanically.","test":"Track food-dye concentration in a transparent branching channel under matched absolute pumped volume and peak shear.","contrary_outcome":"Concentration tails collapse after normalization by total pumped volume.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0305","title":"Dead-end channel solute release","question":"Can periodic flow reversals empty a diffusion-limited dead-end channel faster than steady flow with the same pumped volume?","prediction":"Reversals exchange fluid near the mouth and reduce the late-time solute tail without entering the branch mechanically.","test":"Track food-dye concentration in a transparent branching channel under matched absolute pumped volume and peak shear.","contrary_outcome":"Concentration tails collapse after normalization by total pumped volume.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":{"id":"S6-0305","title":"Dead-end channel solute release","question":"Can periodic flow reversals empty a diffusion-limited dead-end channel faster than steady flow with the same pumped volume?","prediction":"Reversals exchange fluid near the mouth and reduce the late-time solute tail without entering the branch mechanically.","test":"Track food-dye concentration in a transparent branching channel under matched absolute pumped volume and peak shear.","contrary_outcome":"Concentration tails collapse after normalization by total pumped volume.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0306","id":"S6-0306","volume":"900v6","title":"Floating membrane leak localization","prediction":"Local wrinkle flattening begins nearest the leak and predicts its position above a predefined localization accuracy.","test":"Introduce concealed calibrated leaks beneath a floating membrane and compare image-based estimates with withheld locations.","contrary":"Wrinkle changes are spatially uniform or fail blinded localization.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0306","title":"Floating membrane leak localization","question":"Can the spatial pattern of wrinkle relaxation locate a leak before its cumulative loss is detectable gravimetrically?","prediction":"Local wrinkle flattening begins nearest the leak and predicts its position above a predefined localization accuracy.","test":"Introduce concealed calibrated leaks beneath a floating membrane and compare image-based estimates with withheld locations.","contrary_outcome":"Wrinkle changes are spatially uniform or fail blinded localization.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0307","id":"S6-0307","volume":"900v6","title":"Capillary bridge rotation delay","prediction":"Bridge orientation lags support rotation and releases in discrete angular slips at contact-line depinning.","test":"Rotate one bridge support while recording torque and interface geometry; repeat with freely sliding contact lines.","contrary":"Lag is explained entirely by viscous drag and vanishes in the quasistatic limit.","layers":[1,2,3],"categories":["physical"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0307","title":"Capillary bridge rotation delay","question":"Can a slowly rotating support store torsional stress in a water bridge through pinned contact lines?","prediction":"Bridge orientation lags support rotation and releases in discrete angular slips at contact-line depinning.","test":"Rotate one bridge support while recording torque and interface geometry; repeat with freely sliding contact lines.","contrary_outcome":"Lag is explained entirely by viscous drag and vanishes in the quasistatic limit.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0307","title":"Capillary bridge rotation delay","question":"Can a slowly rotating support store torsional stress in a water bridge through pinned contact lines?","prediction":"Bridge orientation lags support rotation and releases in discrete angular slips at contact-line depinning.","test":"Rotate one bridge support while recording torque and interface geometry; repeat with freely sliding contact lines.","contrary_outcome":"Lag is explained entirely by viscous drag and vanishes in the quasistatic limit.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":{"id":"S6-0307","title":"Capillary bridge rotation delay","question":"Can a slowly rotating support store torsional stress in a water bridge through pinned contact lines?","prediction":"Bridge orientation lags support rotation and releases in discrete angular slips at contact-line depinning.","test":"Rotate one bridge support while recording torque and interface geometry; repeat with freely sliding contact lines.","contrary_outcome":"Lag is explained entirely by viscous drag and vanishes in the quasistatic limit.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0308","id":"S6-0308","volume":"900v6","title":"Porous plug vapor short circuit","prediction":"The bypass redistributes vapor removal so mass loss rises while local evaporative cooling becomes more uniform.","test":"Compare water-saturated plugs with open and blocked bypasses using mass balance, thermal imaging, and humidity measurements.","contrary":"Greater drying always coincides with increased temperature nonuniformity.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0308","title":"Porous plug vapor short circuit","question":"Can a narrow gas-filled bypass accelerate drying of a porous plug while reducing its surface temperature contrast?","prediction":"The bypass redistributes vapor removal so mass loss rises while local evaporative cooling becomes more uniform.","test":"Compare water-saturated plugs with open and blocked bypasses using mass balance, thermal imaging, and humidity measurements.","contrary_outcome":"Greater drying always coincides with increased temperature nonuniformity.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0309","id":"S6-0309","volume":"900v6","title":"Droplet coalescence timing gate","prediction":"Aging-induced contact-line arrest changes retention at matched precontact droplet geometry.","test":"Bring clean water droplets together after controlled waiting periods; measure geometry, support forces, and retained volumes.","contrary":"Retention is independent of waiting time once geometry is matched.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0309","title":"Droplet coalescence timing gate","question":"Can delaying contact between two pendant droplets change the fraction of merged liquid retained by their supports?","prediction":"Aging-induced contact-line arrest changes retention at matched precontact droplet geometry.","test":"Bring clean water droplets together after controlled waiting periods; measure geometry, support forces, and retained volumes.","contrary_outcome":"Retention is independent of waiting time once geometry is matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0310","id":"S6-0310","volume":"900v6","title":"Liquid sheet edge braking","prediction":"The arrested segment generates a bowed front and delayed release localized to that edge.","test":"Image retracting water sheets over patterned frames and compare rough segments with equal-width smooth segments.","contrary":"The whole rim slows uniformly or local arrest follows frame deformation alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0310","title":"Liquid sheet edge braking","question":"Can a short rough edge segment stop a retracting water-sheet rim without stopping neighboring rim sections?","prediction":"The arrested segment generates a bowed front and delayed release localized to that edge.","test":"Image retracting water sheets over patterned frames and compare rough segments with equal-width smooth segments.","contrary_outcome":"The whole rim slows uniformly or local arrest follows frame deformation alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0311","id":"S6-0311","volume":"900v6","title":"Granular arch acoustic precursor","prediction":"Probe phase difference changes at arch formation before bulk packing fraction changes measurably.","test":"Use a transparent small hopper with force sensors and imaging; compare arches with mechanically supported nonarching beds.","contrary":"Phase differences are determined by packing fraction and cannot distinguish the states.","layers":[1,2,3],"categories":["physical","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0311","title":"Granular arch acoustic precursor","question":"Can the relative phase of two weak acoustic probes distinguish a load-bearing arch from a compacted nonarching grain bed?","prediction":"Probe phase difference changes at arch formation before bulk packing fraction changes measurably.","test":"Use a transparent small hopper with force sensors and imaging; compare arches with mechanically supported nonarching beds.","contrary_outcome":"Phase differences are determined by packing fraction and cannot distinguish the states.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0311","title":"Granular arch acoustic precursor","question":"Can the relative phase of two weak acoustic probes distinguish a load-bearing arch from a compacted nonarching grain bed?","prediction":"Probe phase difference changes at arch formation before bulk packing fraction changes measurably.","test":"Use a transparent small hopper with force sensors and imaging; compare arches with mechanically supported nonarching beds.","contrary_outcome":"Phase differences are determined by packing fraction and cannot distinguish the states.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":{"id":"S6-0311","title":"Granular arch acoustic precursor","question":"Can the relative phase of two weak acoustic probes distinguish a load-bearing arch from a compacted nonarching grain bed?","prediction":"Probe phase difference changes at arch formation before bulk packing fraction changes measurably.","test":"Use a transparent small hopper with force sensors and imaging; compare arches with mechanically supported nonarching beds.","contrary_outcome":"Phase differences are determined by packing fraction and cannot distinguish the states.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0312","id":"S6-0312","volume":"900v6","title":"Split base packing asymmetry","prediction":"Frictional rearrangement preserves a lateral packing gradient through a complete support cycle.","test":"Use inert beads above two independently moved base plates; reconstruct packing and compare reversed withdrawal order.","contrary":"The restored bed recovers its initial density profile within measurement uncertainty.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0312","title":"Split base packing asymmetry","question":"Can withdrawing one half of a granular support leave a stable density asymmetry after the support is restored?","prediction":"Frictional rearrangement preserves a lateral packing gradient through a complete support cycle.","test":"Use inert beads above two independently moved base plates; reconstruct packing and compare reversed withdrawal order.","contrary_outcome":"The restored bed recovers its initial density profile within measurement uncertainty.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0313","id":"S6-0313","volume":"900v6","title":"Buried vane stress orientation","prediction":"The vane aligns reproducibly with an independently measured stress direction after small preparation perturbations.","test":"Embed a miniature vane in a shallow bead bed and compare orientation with boundary-force-derived stress estimates.","contrary":"Orientation follows insertion history or local voids rather than the measured stress direction.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0313","title":"Buried vane stress orientation","question":"Can a freely pivoting buried vane identify the principal direction of granular stress without sustained grain circulation?","prediction":"The vane aligns reproducibly with an independently measured stress direction after small preparation perturbations.","test":"Embed a miniature vane in a shallow bead bed and compare orientation with boundary-force-derived stress estimates.","contrary_outcome":"Orientation follows insertion history or local voids rather than the measured stress direction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0314","id":"S6-0314","volume":"900v6","title":"Rolling bead contact aging","prediction":"Longer dwell increases the escape force through slow support deformation measurable below the bead.","test":"Use a rigid bead on a viscoelastic sheet; record dwell-dependent indentation and quasistatic escape forces.","contrary":"Escape force has no dwell dependence after instantaneous indentation is matched.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0314","title":"Rolling bead contact aging","question":"Can a bead's dwell time at a shallow indentation control its subsequent escape threshold without adhesion?","prediction":"Longer dwell increases the escape force through slow support deformation measurable below the bead.","test":"Use a rigid bead on a viscoelastic sheet; record dwell-dependent indentation and quasistatic escape forces.","contrary_outcome":"Escape force has no dwell dependence after instantaneous indentation is matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0315","id":"S6-0315","volume":"900v6","title":"Oscillating sieve return capture","prediction":"A restricted phase interval produces upward return crossings and changes net sorting at fixed vibration amplitudes.","test":"Track inert beads in three dimensions above a guarded sieve while sweeping motion phase.","contrary":"Return crossings are absent or unaffected by the phase relationship.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0315","title":"Oscillating sieve return capture","question":"Can a sieve with phased vertical and lateral motion recapture particles that already crossed its plane?","prediction":"A restricted phase interval produces upward return crossings and changes net sorting at fixed vibration amplitudes.","test":"Track inert beads in three dimensions above a guarded sieve while sweeping motion phase.","contrary_outcome":"Return crossings are absent or unaffected by the phase relationship.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0316","id":"S6-0316","volume":"900v6","title":"Force chain interruption memory","prediction":"A persistent alternate load path survives restoration despite identical boundary positions.","test":"Use photoelastic disks and a retractable side contact; measure repeated contact removal cycles and force networks.","contrary":"Force networks return to their initial distributions once boundaries are restored.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0316","title":"Force chain interruption memory","question":"Can temporarily removing a lateral contact redirect a granular force chain after that contact is restored?","prediction":"A persistent alternate load path survives restoration despite identical boundary positions.","test":"Use photoelastic disks and a retractable side contact; measure repeated contact removal cycles and force networks.","contrary_outcome":"Force networks return to their initial distributions once boundaries are restored.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0317","id":"S6-0317","volume":"900v6","title":"Inclined bed humidity front","prediction":"Creep begins near the humidity transition and precedes the balance-resolved mass increase under a declared detection limit.","test":"Image an inert inclined powder bed while mapping local humidity and total mass; include stationary-humidity controls.","contrary":"Creep begins only after measurable mass uptake and has no relation to front location.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0317","title":"Inclined bed humidity front","question":"Can a moving humidity front trigger grain creep ahead of detectable bulk water uptake?","prediction":"Creep begins near the humidity transition and precedes the balance-resolved mass increase under a declared detection limit.","test":"Image an inert inclined powder bed while mapping local humidity and total mass; include stationary-humidity controls.","contrary_outcome":"Creep begins only after measurable mass uptake and has no relation to front location.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0318","id":"S6-0318","volume":"900v6","title":"Particle raft seam healing","prediction":"Particles interlock across the seam and raise its tensile failure force more than equivalent static compression.","test":"Join inert floating particle layers; compare cyclic and static histories with matched peak compression and imaging.","contrary":"Strength is controlled solely by final area fraction.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0318","title":"Particle raft seam healing","question":"Can repeated gentle compression strengthen a seam between two floating particle rafts without adding particles?","prediction":"Particles interlock across the seam and raise its tensile failure force more than equivalent static compression.","test":"Join inert floating particle layers; compare cyclic and static histories with matched peak compression and imaging.","contrary_outcome":"Strength is controlled solely by final area fraction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0319","id":"S6-0319","volume":"900v6","title":"Bidisperse outlet pulse separation","prediction":"The first discharged fraction differs in size distribution from both the initial mixture and steady-flow discharge.","test":"Apply modest water-pressure pulses to a transparent bead column and count particle sizes in timed outlet fractions.","contrary":"Discharged fractions match the bulk composition within sampling uncertainty.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0319","title":"Bidisperse outlet pulse separation","question":"Can a single outlet-pressure pulse separate particle sizes in a water-filled granular column without sustained fluidization?","prediction":"The first discharged fraction differs in size distribution from both the initial mixture and steady-flow discharge.","test":"Apply modest water-pressure pulses to a transparent bead column and count particle sizes in timed outlet fractions.","contrary_outcome":"Discharged fractions match the bulk composition within sampling uncertainty.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0320","id":"S6-0320","volume":"900v6","title":"Flexible wall avalanche partition","prediction":"Wall deflection temporarily stabilizes the opposite compartment, producing negative event-time correlation.","test":"Fill two shallow bead compartments at controlled rates and compare flexible and rigid dividers with synchronized video.","contrary":"Event correlations are unchanged or fully explained by shared feed fluctuations.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0320","title":"Flexible wall avalanche partition","question":"Can a compliant divider cause neighboring granular avalanches to alternate rather than synchronize?","prediction":"Wall deflection temporarily stabilizes the opposite compartment, producing negative event-time correlation.","test":"Fill two shallow bead compartments at controlled rates and compare flexible and rigid dividers with synchronized video.","contrary_outcome":"Event correlations are unchanged or fully explained by shared feed fluctuations.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0321","id":"S6-0321","volume":"900v6","title":"Tethered beam thermal ratchet","prediction":"Directional slip accumulated during rapid heating is not recovered during slower cooling at the same endpoint temperature.","test":"Use modest temperature cycles on a guarded beam with measured tether forces; reverse ramp asymmetry.","contrary":"Net displacement is zero or insensitive to reversal of ramp asymmetry.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0321","title":"Tethered beam thermal ratchet","question":"Can unequal heating and cooling rates leave a friction-tethered beam at a shifted position after a temperature cycle?","prediction":"Directional slip accumulated during rapid heating is not recovered during slower cooling at the same endpoint temperature.","test":"Use modest temperature cycles on a guarded beam with measured tether forces; reverse ramp asymmetry.","contrary_outcome":"Net displacement is zero or insensitive to reversal of ramp asymmetry.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0322","id":"S6-0322","volume":"900v6","title":"Hollow panel thermal echo","prediction":"The ridge arrival time shifts systematically with baffle depth after surface emissivity is calibrated.","test":"Use low-temperature hollow panels with movable baffles and blinded depth estimation from thermal image sequences.","contrary":"Depth estimates perform no better than a surface-only reference model.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0322","title":"Hollow panel thermal echo","question":"Can a short heat pulse reveal internal baffle position through a delayed surface-temperature ridge?","prediction":"The ridge arrival time shifts systematically with baffle depth after surface emissivity is calibrated.","test":"Use low-temperature hollow panels with movable baffles and blinded depth estimation from thermal image sequences.","contrary_outcome":"Depth estimates perform no better than a surface-only reference model.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0323","id":"S6-0323","volume":"900v6","title":"Contact patch heat localization","prediction":"Different microcontact networks produce distinct surface hot spots despite similar integrated heat flux.","test":"Slide matched clamped plates by small increments; record pressure, heat flux, and calibrated thermal maps.","contrary":"Spatial maps collapse whenever total conductance and boundary temperatures are matched.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0323","title":"Contact patch heat localization","question":"Can tangentially shifting a clamped thermal contact change heat-flow localization while keeping total conductance nearly constant?","prediction":"Different microcontact networks produce distinct surface hot spots despite similar integrated heat flux.","test":"Slide matched clamped plates by small increments; record pressure, heat flux, and calibrated thermal maps.","contrary_outcome":"Spatial maps collapse whenever total conductance and boundary temperatures are matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0324","id":"S6-0324","volume":"900v6","title":"Suspended fin convection switch","prediction":"A critical fin angle changes circulation topology with a corresponding reversal in tracer motion.","test":"Use low-power heating, a flexible fin, and particle-tracking airflow measurements; compare fixed-angle controls.","contrary":"Flow topology varies smoothly without the predicted directional switch.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0324","title":"Suspended fin convection switch","question":"Can a thermally bending fin switch the preferred circulation direction in a shallow air enclosure?","prediction":"A critical fin angle changes circulation topology with a corresponding reversal in tracer motion.","test":"Use low-power heating, a flexible fin, and particle-tracking airflow measurements; compare fixed-angle controls.","contrary_outcome":"Flow topology varies smoothly without the predicted directional switch.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0325","id":"S6-0325","volume":"900v6","title":"Thermal ballast contact ordering","prediction":"Sequential contact creates a lower peak for one ordering when thermal interfaces have unequal resistance.","test":"Measure plate and ballast temperatures with independently calibrated interfaces; swap ballast identities and contact order.","contrary":"Peak temperature is invariant to order after interface and initial-temperature controls.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0325","title":"Thermal ballast contact ordering","question":"Can changing which of two identical thermal masses contacts a cooling plate first alter its peak temperature under a fixed heat pulse?","prediction":"Sequential contact creates a lower peak for one ordering when thermal interfaces have unequal resistance.","test":"Measure plate and ballast temperatures with independently calibrated interfaces; swap ballast identities and contact order.","contrary_outcome":"Peak temperature is invariant to order after interface and initial-temperature controls.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0326","id":"S6-0326","volume":"900v6","title":"Evaporative screen wake","prediction":"The mesh produces a cool humid wake whose temperature benefit exceeds the reduction in local evaporation.","test":"Measure object heat loss, wake temperature, humidity, and velocity at matched evaporated water mass.","contrary":"Downstream placement provides no benefit after airflow resistance is controlled.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0326","title":"Evaporative screen wake","question":"Can a wetted mesh cool an object downstream more than an equal evaporating area positioned beside the object?","prediction":"The mesh produces a cool humid wake whose temperature benefit exceeds the reduction in local evaporation.","test":"Measure object heat loss, wake temperature, humidity, and velocity at matched evaporated water mass.","contrary_outcome":"Downstream placement provides no benefit after airflow resistance is controlled.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0327","id":"S6-0327","volume":"900v6","title":"Insulation gap breathing","prediction":"Gap motion exchanges trapped air and adds a frequency-dependent advective contribution.","test":"Move a gap between warm plates at modest temperatures; compare dynamic heat loss with measured static conductance curves.","contrary":"Cycle-averaged heat loss equals the quasistatic prediction within uncertainty.","layers":[1,2,3],"categories":["energy","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0327","title":"Insulation gap breathing","question":"Can slow periodic opening of a narrow insulation gap increase average heat loss beyond the prediction from instantaneous static conductance?","prediction":"Gap motion exchanges trapped air and adds a frequency-dependent advective contribution.","test":"Move a gap between warm plates at modest temperatures; compare dynamic heat loss with measured static conductance curves.","contrary_outcome":"Cycle-averaged heat loss equals the quasistatic prediction within uncertainty.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0327","title":"Insulation gap breathing","question":"Can slow periodic opening of a narrow insulation gap increase average heat loss beyond the prediction from instantaneous static conductance?","prediction":"Gap motion exchanges trapped air and adds a frequency-dependent advective contribution.","test":"Move a gap between warm plates at modest temperatures; compare dynamic heat loss with measured static conductance curves.","contrary_outcome":"Cycle-averaged heat loss equals the quasistatic prediction within uncertainty.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":{"id":"S6-0327","title":"Insulation gap breathing","question":"Can slow periodic opening of a narrow insulation gap increase average heat loss beyond the prediction from instantaneous static conductance?","prediction":"Gap motion exchanges trapped air and adds a frequency-dependent advective contribution.","test":"Move a gap between warm plates at modest temperatures; compare dynamic heat loss with measured static conductance curves.","contrary_outcome":"Cycle-averaged heat loss equals the quasistatic prediction within uncertainty.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0328","id":"S6-0328","volume":"900v6","title":"Phase front corner rounding","prediction":"Curvature changes front interaction so the final liquid pocket moves away from the sharp-corner prediction.","test":"Freeze small sealed cells slowly; image fronts and map wall temperatures for matched sharp and rounded geometries.","contrary":"Last-liquid location is explained entirely by measured temperature-field differences.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0328","title":"Phase front corner rounding","question":"Can rounding one corner of a water-freezing cell change the last-liquid location without changing the imposed temperature field?","prediction":"Curvature changes front interaction so the final liquid pocket moves away from the sharp-corner prediction.","test":"Freeze small sealed cells slowly; image fronts and map wall temperatures for matched sharp and rounded geometries.","contrary_outcome":"Last-liquid location is explained entirely by measured temperature-field differences.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0329","id":"S6-0329","volume":"900v6","title":"Heat pipe orientation pause","prediction":"The pause redistributes liquid and reduces post-reversal temperature overshoot relative to uninterrupted reversal.","test":"Use a commercial low-power water device within its rating; compare tilt histories at matched elapsed time and input heat.","contrary":"The pause has no effect once elapsed time and initial liquid distribution are controlled.","layers":[1],"categories":["physical","energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0329","title":"Heat pipe orientation pause","question":"Can briefly leveling a water-based capillary heat-transfer device during tilt reversal shorten its thermal recovery time?","prediction":"The pause redistributes liquid and reduces post-reversal temperature overshoot relative to uninterrupted reversal.","test":"Use a commercial low-power water device within its rating; compare tilt histories at matched elapsed time and input heat.","contrary_outcome":"The pause has no effect once elapsed time and initial liquid distribution are controlled.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0330","id":"S6-0330","volume":"900v6","title":"Thermal expansion cable selector","prediction":"Network compatibility produces a nonlocal branch-force increase larger than that in the nearest branch.","test":"Measure all branch tensions in a tabletop network during mild localized heating; compare with measured-geometry predictions.","contrary":"Force changes decay strictly with geometric proximity or arise only from anchor motion.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0330","title":"Thermal expansion cable selector","question":"Can heating one branch of a prestressed cable network transfer load to a branch that is not geometrically adjacent?","prediction":"Network compatibility produces a nonlocal branch-force increase larger than that in the nearest branch.","test":"Measure all branch tensions in a tabletop network during mild localized heating; compare with measured-geometry predictions.","contrary_outcome":"Force changes decay strictly with geometric proximity or arise only from anchor motion.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0331","id":"S6-0331","volume":"900v6","title":"Acoustic side pocket saturation","prediction":"Coupled air compliance and liquid inertia create a maximum in attenuation at an intermediate fill level.","test":"Measure low-level speaker transmission through a duct while varying pocket fill and recording pressure phases.","contrary":"Attenuation varies monotonically or is accounted for by leakage alone.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0331","title":"Acoustic side pocket saturation","question":"Can changing the liquid level in a sealed acoustic side pocket alter sound attenuation nonmonotonically at a fixed tone?","prediction":"Coupled air compliance and liquid inertia create a maximum in attenuation at an intermediate fill level.","test":"Measure low-level speaker transmission through a duct while varying pocket fill and recording pressure phases.","contrary_outcome":"Attenuation varies monotonically or is accounted for by leakage alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0332","id":"S6-0332","volume":"900v6","title":"Membrane wrinkle mode splitting","prediction":"Mode axes follow the wrinkle when its direction is rotated while boundary tension remains matched.","test":"Use optical vibration measurements on membranes with controlled shallow wrinkles and independent tension estimates.","contrary":"Mode axes remain fixed to clamp imperfections.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0332","title":"Membrane wrinkle mode splitting","question":"Can a single wrinkle orient the splitting of two nearly degenerate membrane modes independently of the clamp orientation?","prediction":"Mode axes follow the wrinkle when its direction is rotated while boundary tension remains matched.","test":"Use optical vibration measurements on membranes with controlled shallow wrinkles and independent tension estimates.","contrary_outcome":"Mode axes remain fixed to clamp imperfections.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0333","id":"S6-0333","volume":"900v6","title":"Acoustic porous backing delay","prediction":"A narrow spacing range produces a phase swing while amplitude remains within a prespecified tolerance.","test":"Measure complex acoustic reflection at low sound levels over controlled backing distances and frequencies.","contrary":"Large phase changes always accompany amplitude changes beyond the tolerance.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0333","title":"Acoustic porous backing delay","question":"Can moving a rigid backing behind a porous sheet change reflection phase substantially without comparable change in reflected amplitude?","prediction":"A narrow spacing range produces a phase swing while amplitude remains within a prespecified tolerance.","test":"Measure complex acoustic reflection at low sound levels over controlled backing distances and frequencies.","contrary_outcome":"Large phase changes always accompany amplitude changes beyond the tolerance.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0334","id":"S6-0334","volume":"900v6","title":"Mechanical echo missing joint","prediction":"Normalized echo timing identifies the joint more reliably than peak amplitude across excitation strengths.","test":"Loosen one concealed joint in a small frame; use blinded pulse records and held-out excitation positions.","contrary":"Localization fails when source amplitude or position changes.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0334","title":"Mechanical echo missing joint","question":"Can the arrival order of reflected pulses locate a loosened joint in a branched frame with unknown excitation strength?","prediction":"Normalized echo timing identifies the joint more reliably than peak amplitude across excitation strengths.","test":"Loosen one concealed joint in a small frame; use blinded pulse records and held-out excitation positions.","contrary_outcome":"Localization fails when source amplitude or position changes.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0335","id":"S6-0335","volume":"900v6","title":"Tension sweep contact census","prediction":"Each verified contact release introduces a resolvable transition in the resonance spectrum.","test":"Use a string resting on independently imaged supports; sweep tension with a low-amplitude acoustic probe.","contrary":"Spectral transitions do not correspond consistently to the number of released contacts.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0335","title":"Tension sweep contact census","question":"Can a slow tension sweep reveal how many intermediate supports a string touches through discrete mode changes?","prediction":"Each verified contact release introduces a resolvable transition in the resonance spectrum.","test":"Use a string resting on independently imaged supports; sweep tension with a low-amplitude acoustic probe.","contrary_outcome":"Spectral transitions do not correspond consistently to the number of released contacts.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0336","id":"S6-0336","volume":"900v6","title":"Fluid-loaded plate nodal drift","prediction":"Fluid redistribution during oscillation changes effective inertia and produces an additional nodal displacement.","test":"Compare puddles and bonded masses with matched weight and footprint; map vibration at low amplitudes.","contrary":"Nodal positions agree after static mass distribution and damping are matched.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0336","title":"Fluid-loaded plate nodal drift","question":"Can a localized water puddle move a plate's nodal line farther than an equal rigid attached mass?","prediction":"Fluid redistribution during oscillation changes effective inertia and produces an additional nodal displacement.","test":"Compare puddles and bonded masses with matched weight and footprint; map vibration at low amplitudes.","contrary_outcome":"Nodal positions agree after static mass distribution and damping are matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0337","id":"S6-0337","volume":"900v6","title":"Acoustic leak directional ambiguity","prediction":"Phase relationships between sensors distinguish leak positions despite matched decay times.","test":"Open concealed apertures in a tabletop cavity and assess blinded identification across source positions.","contrary":"Two-sensor identification is no better than single-sensor identification on held-out trials.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0337","title":"Acoustic leak directional ambiguity","question":"Can two cavity microphones resolve which of two equal-area leaks is open when one microphone cannot?","prediction":"Phase relationships between sensors distinguish leak positions despite matched decay times.","test":"Open concealed apertures in a tabletop cavity and assess blinded identification across source positions.","contrary_outcome":"Two-sensor identification is no better than single-sensor identification on held-out trials.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0338","id":"S6-0338","volume":"900v6","title":"Impact sequence buckle release","prediction":"Release probability peaks at specific tap separations and shifts when the strip's modal period changes.","test":"Use a guarded low-energy strip with measured force impulses; vary separation and add a small calibrated mass.","contrary":"Release depends only on cumulative impulse and not on tap separation.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0338","title":"Impact sequence buckle release","question":"Can two individually subthreshold taps release a buckled strip only when their separation matches its damped oscillation period?","prediction":"Release probability peaks at specific tap separations and shifts when the strip's modal period changes.","test":"Use a guarded low-energy strip with measured force impulses; vary separation and add a small calibrated mass.","contrary_outcome":"Release depends only on cumulative impulse and not on tap separation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0339","id":"S6-0339","volume":"900v6","title":"Soft stop vibration asymmetry","prediction":"Large-amplitude transmission becomes directional while low-amplitude frequency response stays nearly unchanged.","test":"Measure a tabletop oscillator with a removable soft stop under matched positive and negative force pulses.","contrary":"Directionality is explained solely by unequal input pulses or altered small-signal stiffness.","layers":[1,2,3],"categories":["physical","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0339","title":"Soft stop vibration asymmetry","question":"Can a soft unilateral stop reduce transmission of alternating shocks more in one direction without changing small-signal resonance?","prediction":"Large-amplitude transmission becomes directional while low-amplitude frequency response stays nearly unchanged.","test":"Measure a tabletop oscillator with a removable soft stop under matched positive and negative force pulses.","contrary_outcome":"Directionality is explained solely by unequal input pulses or altered small-signal stiffness.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0339","title":"Soft stop vibration asymmetry","question":"Can a soft unilateral stop reduce transmission of alternating shocks more in one direction without changing small-signal resonance?","prediction":"Large-amplitude transmission becomes directional while low-amplitude frequency response stays nearly unchanged.","test":"Measure a tabletop oscillator with a removable soft stop under matched positive and negative force pulses.","contrary_outcome":"Directionality is explained solely by unequal input pulses or altered small-signal stiffness.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":{"id":"S6-0339","title":"Soft stop vibration asymmetry","question":"Can a soft unilateral stop reduce transmission of alternating shocks more in one direction without changing small-signal resonance?","prediction":"Large-amplitude transmission becomes directional while low-amplitude frequency response stays nearly unchanged.","test":"Measure a tabletop oscillator with a removable soft stop under matched positive and negative force pulses.","contrary_outcome":"Directionality is explained solely by unequal input pulses or altered small-signal stiffness.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0340","id":"S6-0340","volume":"900v6","title":"Coupled pendulum slack window","prediction":"Reconnection phase controls the sign of net cycle energy transfer.","test":"Track two low-energy pendulums with a controllably slack link; compare energy balances and matched taut-link cycles.","contrary":"Transfer sign follows initial energy difference regardless of reconnection phase.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0340","title":"Coupled pendulum slack window","question":"Can a briefly slack connector transfer energy between pendulums in the opposite direction from an always-taut connector?","prediction":"Reconnection phase controls the sign of net cycle energy transfer.","test":"Track two low-energy pendulums with a controllably slack link; compare energy balances and matched taut-link cycles.","contrary_outcome":"Transfer sign follows initial energy difference regardless of reconnection phase.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0341","id":"S6-0341","volume":"900v6","title":"Polarization crack closure map","prediction":"A localized stress-optic discontinuity persists after the crack faces recontact under compression.","test":"Image precharacterized transparent coupons during gentle load cycles; classify concealed cracked and intact regions.","contrary":"Closed cracks cannot be distinguished from matched intact stress concentrations.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0341","title":"Polarization crack closure map","question":"Can crossed-polarizer images distinguish a closed crack from an uncracked stressed region in a transparent polymer?","prediction":"A localized stress-optic discontinuity persists after the crack faces recontact under compression.","test":"Image precharacterized transparent coupons during gentle load cycles; classify concealed cracked and intact regions.","contrary_outcome":"Closed cracks cannot be distinguished from matched intact stress concentrations.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0342","id":"S6-0342","volume":"900v6","title":"Defocused droplet depth ambiguity","prediction":"Joint intensity profiles recover droplet depth with lower error than either image alone.","test":"Translate calibrated water droplets through known depths and validate reconstruction on withheld sizes and positions.","contrary":"The second image does not improve depth error after photon budget is matched.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0342","title":"Defocused droplet depth ambiguity","question":"Can a second deliberately defocused image resolve the depth ambiguity of droplets that have equal sharp-image diameter?","prediction":"Joint intensity profiles recover droplet depth with lower error than either image alone.","test":"Translate calibrated water droplets through known depths and validate reconstruction on withheld sizes and positions.","contrary_outcome":"The second image does not improve depth error after photon budget is matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0343","id":"S6-0343","volume":"900v6","title":"Reflective wrinkle strain sign","prediction":"The signed difference between two lighting images predicts strain sign despite similar single-image contrast.","test":"Stretch and compress a thin film with independently measured strain and use blinded image classification.","contrary":"Difference images track surface reflectance changes rather than strain sign.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0343","title":"Reflective wrinkle strain sign","question":"Can reversing illumination direction distinguish tensile flattening from compressive wrinkling in a reflective film?","prediction":"The signed difference between two lighting images predicts strain sign despite similar single-image contrast.","test":"Stretch and compress a thin film with independently measured strain and use blinded image classification.","contrary_outcome":"Difference images track surface reflectance changes rather than strain sign.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0344","id":"S6-0344","volume":"900v6","title":"Scattering path blockage localization","prediction":"Removing dominant shallow paths increases depth discrimination at a matched acquisition time.","test":"Use a scattering phantom with benign absorbers; compare masked and unmasked measurements with photon-counting uncertainty.","contrary":"Any localization gain vanishes after accounting for the reduced photon count.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0344","title":"Scattering path blockage localization","question":"Can partial blocking of a diffuse optical path improve localization of a buried absorber despite reducing total detected light?","prediction":"Removing dominant shallow paths increases depth discrimination at a matched acquisition time.","test":"Use a scattering phantom with benign absorbers; compare masked and unmasked measurements with photon-counting uncertainty.","contrary_outcome":"Any localization gain vanishes after accounting for the reduced photon count.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0345","id":"S6-0345","volume":"900v6","title":"Moving shadow thickness estimate","prediction":"The temporal separation scales with independently measured thickness and changes predictably with viewing angle.","test":"Sweep a narrow light edge over clear films of known thickness using a fixed camera and calibrated geometry.","contrary":"Edge delays depend only on illumination blur and do not resolve thickness.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0345","title":"Moving shadow thickness estimate","question":"Can the delay between two edges of a moving shadow estimate transparent-film thickness through separate front and back reflections?","prediction":"The temporal separation scales with independently measured thickness and changes predictably with viewing angle.","test":"Sweep a narrow light edge over clear films of known thickness using a fixed camera and calibrated geometry.","contrary_outcome":"Edge delays depend only on illumination blur and do not resolve thickness.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0346","id":"S6-0346","volume":"900v6","title":"Optical cavity dust motion","prediction":"Mobile particles add repeatable decorrelation beyond that caused by source modulation and camera noise.","test":"Use low-intensity illumination and inert particles with independent microscopy labels; test held-out cavity positions.","contrary":"Fixed and moving particles have indistinguishable normalized decorrelation statistics.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0346","title":"Optical cavity dust motion","question":"Can the phase of a gently modulated light signal distinguish mobile dust from fixed surface specks in a shallow cavity?","prediction":"Mobile particles add repeatable decorrelation beyond that caused by source modulation and camera noise.","test":"Use low-intensity illumination and inert particles with independent microscopy labels; test held-out cavity positions.","contrary_outcome":"Fixed and moving particles have indistinguishable normalized decorrelation statistics.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0347","id":"S6-0347","volume":"900v6","title":"Liquid lens pinned astigmatism","prediction":"Local depinning changes curvature anisotropy and rotates the measured focal-line orientation.","test":"Image transmitted test patterns through a confined droplet before and after mechanical contact-line release.","contrary":"Optical-axis rotation follows support tilt rather than the released segment.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0347","title":"Liquid lens pinned astigmatism","question":"Can selective release of one contact-line segment rotate the principal axis of a water droplet lens?","prediction":"Local depinning changes curvature anisotropy and rotates the measured focal-line orientation.","test":"Image transmitted test patterns through a confined droplet before and after mechanical contact-line release.","contrary_outcome":"Optical-axis rotation follows support tilt rather than the released segment.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0348","id":"S6-0348","volume":"900v6","title":"Transmission wrinkle wetting front","prediction":"Pattern displacement crosses a predefined detection threshold before average transmitted intensity does.","test":"Advance a water film over a wrinkled transparent sheet with synchronized microscopy and calibrated optical detection thresholds.","contrary":"Mean transmission detects the front at the same time or earlier.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0348","title":"Transmission wrinkle wetting front","question":"Can a thin liquid film become optically detectable earlier through wrinkle-mediated distortion than through mean transmission change?","prediction":"Pattern displacement crosses a predefined detection threshold before average transmitted intensity does.","test":"Advance a water film over a wrinkled transparent sheet with synchronized microscopy and calibrated optical detection thresholds.","contrary_outcome":"Mean transmission detects the front at the same time or earlier.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0349","id":"S6-0349","volume":"900v6","title":"Speckle boundary slip discrimination","prediction":"Slip produces a discontinuity in the displacement correlation field across the interface.","test":"Use benign transparent shear cells with rough and lubricated interfaces and independent fiducial tracking.","contrary":"Correlation discontinuities occur equally in bonded controls.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0349","title":"Speckle boundary slip discrimination","question":"Can spatial speckle correlations distinguish true interface slip from bulk elastic deformation at equal endpoint displacement?","prediction":"Slip produces a discontinuity in the displacement correlation field across the interface.","test":"Use benign transparent shear cells with rough and lubricated interfaces and independent fiducial tracking.","contrary_outcome":"Correlation discontinuities occur equally in bonded controls.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0350","id":"S6-0350","volume":"900v6","title":"Rotating aperture bubble shape","prediction":"Angular modulation harmonics recover aspect ratio while a separate phase term tracks translation.","test":"Move and deform calibrated air bubbles in water; compare reconstructed shape with microscopy under held-out trajectories.","contrary":"Translation and shape remain inseparable at the declared resolution.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0350","title":"Rotating aperture bubble shape","question":"Can a rotating aperture separate bubble shape changes from lateral translation in a low-cost optical measurement?","prediction":"Angular modulation harmonics recover aspect ratio while a separate phase term tracks translation.","test":"Move and deform calibrated air bubbles in water; compare reconstructed shape with microscopy under held-out trajectories.","contrary_outcome":"Translation and shape remain inseparable at the declared resolution.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0351","id":"S6-0351","volume":"900v6","title":"Hydrogel notch swelling direction","prediction":"Fast swelling near the notch produces an early curvature opposite to the equilibrated curvature.","test":"Hydrate food-grade hydrogel strips with mapped notch geometry; measure curvature and local swelling over time.","contrary":"Curvature retains one sign or early reversal is explained by uneven external wetting.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0351","title":"Hydrogel notch swelling direction","question":"Can an off-center dry notch reverse the initial bending direction of a swelling strip relative to its long-time bend?","prediction":"Fast swelling near the notch produces an early curvature opposite to the equilibrated curvature.","test":"Hydrate food-grade hydrogel strips with mapped notch geometry; measure curvature and local swelling over time.","contrary_outcome":"Curvature retains one sign or early reversal is explained by uneven external wetting.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0352","id":"S6-0352","volume":"900v6","title":"Viscoelastic clamp release ordering","prediction":"The first release redistributes stress during recovery and leaves an order-dependent residual curvature.","test":"Use modest strains in polymer strips; match hold durations and image full recovery with swapped clamp order.","contrary":"Residual shapes coincide after elapsed free-recovery time is matched.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0352","title":"Viscoelastic clamp release ordering","question":"Can releasing two clamps in opposite orders change a polymer strip's recovered shape after the same total hold time?","prediction":"The first release redistributes stress during recovery and leaves an order-dependent residual curvature.","test":"Use modest strains in polymer strips; match hold durations and image full recovery with swapped clamp order.","contrary_outcome":"Residual shapes coincide after elapsed free-recovery time is matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0353","id":"S6-0353","volume":"900v6","title":"Porous elastomer trapped-air stiffening","prediction":"Trapped air raises the initial force while slow pressure equilibration restores the same relaxed response.","test":"Compare sealed and vented specimens under displacement holds; measure pore pressure and coating stiffness controls.","contrary":"Relaxed stiffness changes equally or the coating alone explains the force increase.","layers":[1,2,3],"categories":["physical","energy","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0353","title":"Porous elastomer trapped-air stiffening","question":"Can sealing only the side faces of a porous elastomer change its short-time indentation stiffness without changing its long-time stiffness?","prediction":"Trapped air raises the initial force while slow pressure equilibration restores the same relaxed response.","test":"Compare sealed and vented specimens under displacement holds; measure pore pressure and coating stiffness controls.","contrary_outcome":"Relaxed stiffness changes equally or the coating alone explains the force increase.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0353","title":"Porous elastomer trapped-air stiffening","question":"Can sealing only the side faces of a porous elastomer change its short-time indentation stiffness without changing its long-time stiffness?","prediction":"Trapped air raises the initial force while slow pressure equilibration restores the same relaxed response.","test":"Compare sealed and vented specimens under displacement holds; measure pore pressure and coating stiffness controls.","contrary_outcome":"Relaxed stiffness changes equally or the coating alone explains the force increase.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":{"id":"S6-0353","title":"Porous elastomer trapped-air stiffening","question":"Can sealing only the side faces of a porous elastomer change its short-time indentation stiffness without changing its long-time stiffness?","prediction":"Trapped air raises the initial force while slow pressure equilibration restores the same relaxed response.","test":"Compare sealed and vented specimens under displacement holds; measure pore pressure and coating stiffness controls.","contrary_outcome":"Relaxed stiffness changes equally or the coating alone explains the force increase.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0354","id":"S6-0354","volume":"900v6","title":"Sliding adhesive perimeter release","prediction":"Edge pre-release suppresses tensile force concentration without changing the undisturbed shear contact.","test":"Use removable household adhesive pads with measured contact area; compare controlled edge release and intact pads.","contrary":"Peak removal force scales only with remaining bonded area.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0354","title":"Sliding adhesive perimeter release","question":"Can peeling a narrow perimeter before pulling an adhesive pad reduce peak removal force while retaining its initial shear strength?","prediction":"Edge pre-release suppresses tensile force concentration without changing the undisturbed shear contact.","test":"Use removable household adhesive pads with measured contact area; compare controlled edge release and intact pads.","contrary_outcome":"Peak removal force scales only with remaining bonded area.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0355","id":"S6-0355","volume":"900v6","title":"Hydrogel inclusion drainage bypass","prediction":"Deformation opens an interfacial drainage path that shortens relaxation relative to a bonded inclusion control.","test":"Compress benign gels with bonded and unbonded inclusions; image interface gaps and measure relaxation and fluid loss.","contrary":"Unbonded samples relax no faster once bulk stiffness differences are accounted for.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0355","title":"Hydrogel inclusion drainage bypass","question":"Can a soft inclusion speed pressure relaxation in a porous gel even when its own permeability is lower than the matrix?","prediction":"Deformation opens an interfacial drainage path that shortens relaxation relative to a bonded inclusion control.","test":"Compress benign gels with bonded and unbonded inclusions; image interface gaps and measure relaxation and fluid loss.","contrary_outcome":"Unbonded samples relax no faster once bulk stiffness differences are accounted for.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0356","id":"S6-0356","volume":"900v6","title":"Foam compression stop memory","prediction":"Cell-wall rearrangement during the dwell persists and changes the next loading curve.","test":"Cycle a polymer foam below damage thresholds with matched total dwell time allocated at different strains.","contrary":"Subsequent loading depends only on peak strain and total recovery time.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0356","title":"Foam compression stop memory","question":"Can a brief dwell at an intermediate strain reduce the next compression peak after complete unloading?","prediction":"Cell-wall rearrangement during the dwell persists and changes the next loading curve.","test":"Cycle a polymer foam below damage thresholds with matched total dwell time allocated at different strains.","contrary_outcome":"Subsequent loading depends only on peak strain and total recovery time.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0357","id":"S6-0357","volume":"900v6","title":"Bilayer slit humidity steering","prediction":"The slit redistributes strain constraints so twist grows while mass uptake remains matched to an intact control.","test":"Use paper-polymer strips in controlled humidity; record mass and three-dimensional shape for slit and intact samples.","contrary":"Twist changes are explained entirely by unequal uptake or accidental initial curvature.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0357","title":"Bilayer slit humidity steering","question":"Can a slit in one layer of a humidity-responsive bilayer steer bending into twist without changing average moisture uptake?","prediction":"The slit redistributes strain constraints so twist grows while mass uptake remains matched to an intact control.","test":"Use paper-polymer strips in controlled humidity; record mass and three-dimensional shape for slit and intact samples.","contrary_outcome":"Twist changes are explained entirely by unequal uptake or accidental initial curvature.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0358","id":"S6-0358","volume":"900v6","title":"Soft bearing drainage frequency","prediction":"Oscillations replenish the film at moderate frequencies but lose effectiveness when fluid cannot follow the motion.","test":"Use a low-load transparent bearing with film imaging; compare friction at matched oscillation amplitude and sliding speed.","contrary":"Friction changes monotonically with frequency or follows support heating alone.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0358","title":"Soft bearing drainage frequency","question":"Can small transverse oscillations reduce friction in a water-lubricated soft bearing only within an intermediate frequency range?","prediction":"Oscillations replenish the film at moderate frequencies but lose effectiveness when fluid cannot follow the motion.","test":"Use a low-load transparent bearing with film imaging; compare friction at matched oscillation amplitude and sliding speed.","contrary_outcome":"Friction changes monotonically with frequency or follows support heating alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0359","id":"S6-0359","volume":"900v6","title":"Gel surface skin puncture","prediction":"A local water pathway produces a growing subsurface wet region before the bulk surface rehydrates.","test":"Use food-grade gels with controlled drying; map dye-labeled water penetration and measure mass uptake against sham punctures.","contrary":"Rehydration rates are unchanged or entirely proportional to exposed puncture area.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0359","title":"Gel surface skin puncture","question":"Can puncturing a dehydrated gel skin accelerate interior rehydration without visibly enlarging the puncture?","prediction":"A local water pathway produces a growing subsurface wet region before the bulk surface rehydrates.","test":"Use food-grade gels with controlled drying; map dye-labeled water penetration and measure mass uptake against sham punctures.","contrary_outcome":"Rehydration rates are unchanged or entirely proportional to exposed puncture area.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0360","id":"S6-0360","volume":"900v6","title":"Elastomer ridge directional recovery","prediction":"Ridge folding creates different transient contact areas for opposite shear histories at equal final compression.","test":"Measure force recovery and contact images in patterned elastomer blocks after matched opposite shear cycles.","contrary":"Recovery curves coincide after final contact area and strain are matched.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0360","title":"Elastomer ridge directional recovery","question":"Can an inclined surface ridge make the recovery time after compression depend on the direction of prior shear?","prediction":"Ridge folding creates different transient contact areas for opposite shear histories at equal final compression.","test":"Measure force recovery and contact images in patterned elastomer blocks after matched opposite shear cycles.","contrary_outcome":"Recovery curves coincide after final contact area and strain are matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0361","id":"S6-0361","volume":"900v6","title":"Ion exchange front trapping","prediction":"Unequal binding kinetics leave a transient interfacial concentration maximum.","test":"Image a benign food-dye binding pair in layered gels while independently measuring bath concentration and gel diffusion.","contrary":"Concentration relaxes monotonically without an interface maximum.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0361","title":"Ion exchange front trapping","question":"Can a concentration pulse remain localized at the interface between two ion-exchange gels after the external solution returns to baseline?","prediction":"Unequal binding kinetics leave a transient interfacial concentration maximum.","test":"Image a benign food-dye binding pair in layered gels while independently measuring bath concentration and gel diffusion.","contrary_outcome":"Concentration relaxes monotonically without an interface maximum.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0362","id":"S6-0362","volume":"900v6","title":"Carbonate growth shelter","prediction":"Recess circulation creates a persistent sheltered region and enhanced lip retreat.","test":"Map chalk topography during exposure to dilute food-grade acid at controlled flow; compare smooth and recessed samples.","contrary":"Retreat differences follow initial roughness alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0362","title":"Carbonate growth shelter","question":"Can a shallow recess protect a dissolving chalk surface while accelerating dissolution immediately outside its lip?","prediction":"Recess circulation creates a persistent sheltered region and enhanced lip retreat.","test":"Map chalk topography during exposure to dilute food-grade acid at controlled flow; compare smooth and recessed samples.","contrary_outcome":"Retreat differences follow initial roughness alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0363","id":"S6-0363","volume":"900v6","title":"Starch hydration acoustic lag","prediction":"Attenuation changes precede swelling under independently calibrated detection limits.","test":"Hydrate food-grade starch pellets while measuring transmitted sound, mass, and dimensions; include temperature-matched dry controls.","contrary":"Attenuation follows temperature or measurable swelling rather than internal hydration.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0363","title":"Starch hydration acoustic lag","question":"Can acoustic attenuation detect water penetration into a starch pellet before its external dimensions change?","prediction":"Attenuation changes precede swelling under independently calibrated detection limits.","test":"Hydrate food-grade starch pellets while measuring transmitted sound, mass, and dimensions; include temperature-matched dry controls.","contrary_outcome":"Attenuation follows temperature or measurable swelling rather than internal hydration.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0364","id":"S6-0364","volume":"900v6","title":"Salt crust buried bypass","prediction":"A liquid connection through the groove prolongs evaporation after a smooth control dries out.","test":"Dry benign saline porous blocks with concealed grooves; measure mass loss and inspect crust integrity.","contrary":"Restored evaporation requires visible fractures or extra exposed area.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0364","title":"Salt crust buried bypass","question":"Can a subsurface groove restore evaporation beneath a salt crust without visibly fracturing the crust?","prediction":"A liquid connection through the groove prolongs evaporation after a smooth control dries out.","test":"Dry benign saline porous blocks with concealed grooves; measure mass loss and inspect crust integrity.","contrary_outcome":"Restored evaporation requires visible fractures or extra exposed area.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0365","id":"S6-0365","volume":"900v6","title":"Crystal dissolution wake switching","prediction":"A persistent concentration boundary layer delays the face-rate reversal.","test":"Image benign salt crystals under matched reversed water flows and measure local concentration and tracer replacement time.","contrary":"Face-rate changes follow fluid replacement without additional delay.","layers":[1,2],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0365","title":"Crystal dissolution wake switching","question":"Can reversing flow past a dissolving crystal switch which downstream face dissolves fastest only after a delay longer than fluid replacement time?","prediction":"A persistent concentration boundary layer delays the face-rate reversal.","test":"Image benign salt crystals under matched reversed water flows and measure local concentration and tracer replacement time.","contrary_outcome":"Face-rate changes follow fluid replacement without additional delay.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0365","title":"Crystal dissolution wake switching","question":"Can reversing flow past a dissolving crystal switch which downstream face dissolves fastest only after a delay longer than fluid replacement time?","prediction":"A persistent concentration boundary layer delays the face-rate reversal.","test":"Image benign salt crystals under matched reversed water flows and measure local concentration and tracer replacement time.","contrary_outcome":"Face-rate changes follow fluid replacement without additional delay.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0366","id":"S6-0366","volume":"900v6","title":"Gel adsorption displacement ring","prediction":"Competitive binding displaces previously bound dye into a leading concentration band.","test":"Use food-safe dyes in a precharacterized benign adsorbing gel; measure both dyes separately with calibrated spectra.","contrary":"Released dye never forms a distinct leading maximum.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0366","title":"Gel adsorption displacement ring","question":"Can a later solute pulse create a moving ring of released dye ahead of its own adsorption front?","prediction":"Competitive binding displaces previously bound dye into a leading concentration band.","test":"Use food-safe dyes in a precharacterized benign adsorbing gel; measure both dyes separately with calibrated spectra.","contrary_outcome":"Released dye never forms a distinct leading maximum.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0367","id":"S6-0367","volume":"900v6","title":"Precipitate permeability recovery","prediction":"Redistribution of deposits restores permeability more than the measured mass loss predicts.","test":"Use calcium-carbonate-coated filters; measure pressure-flow curves, effluent solids, and microscopy before and after reversal.","contrary":"Permeability recovery scales entirely with removed deposit mass.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0367","title":"Precipitate permeability recovery","question":"Can gentle flow reversal reopen a filter partly blocked by a benign mineral precipitate without removing much solid mass?","prediction":"Redistribution of deposits restores permeability more than the measured mass loss predicts.","test":"Use calcium-carbonate-coated filters; measure pressure-flow curves, effluent solids, and microscopy before and after reversal.","contrary_outcome":"Permeability recovery scales entirely with removed deposit mass.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0368","id":"S6-0368","volume":"900v6","title":"Dissolving tablet support torque","prediction":"A small off-axis material loss shifts buoyancy enough to produce measurable rotation.","test":"Suspend molded sugar objects in still water; image dissolution and orientation while controlling support torsion.","contrary":"Rotation occurs only after large mass loss or follows ambient convection.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0368","title":"Dissolving tablet support torque","question":"Can asymmetric dissolution rotate a suspended soluble object before appreciable total mass loss?","prediction":"A small off-axis material loss shifts buoyancy enough to produce measurable rotation.","test":"Suspend molded sugar objects in still water; image dissolution and orientation while controlling support torsion.","contrary_outcome":"Rotation occurs only after large mass loss or follows ambient convection.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0369","id":"S6-0369","volume":"900v6","title":"Drying dye depth reversal","prediction":"Surface immobilization diverts later solute accumulation into a subsurface band.","test":"Measure depth-resolved color in benign thin gels with independently measured water profiles.","contrary":"Maximum concentration remains at the surface throughout drying.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0369","title":"Drying dye depth reversal","question":"Can a drying gel develop a dye-concentration maximum below its surface rather than at the evaporating boundary?","prediction":"Surface immobilization diverts later solute accumulation into a subsurface band.","test":"Measure depth-resolved color in benign thin gels with independently measured water profiles.","contrary_outcome":"Maximum concentration remains at the surface throughout drying.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0370","id":"S6-0370","volume":"900v6","title":"Layered buffer transport delay","prediction":"Local reversible uptake introduces an additional delay beyond transport resistance.","test":"Use dilute food-grade acid, benign buffers, and calibrated indicator gels; compare matched tracer diffusion.","contrary":"Indicator delay is fully explained by diffusivity and optical response time.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0370","title":"Layered buffer transport delay","question":"Can a thin buffering layer delay a color-indicator front more than a thicker nonbuffering layer with the same diffusion time?","prediction":"Local reversible uptake introduces an additional delay beyond transport resistance.","test":"Use dilute food-grade acid, benign buffers, and calibrated indicator gels; compare matched tracer diffusion.","contrary_outcome":"Indicator delay is fully explained by diffusivity and optical response time.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0371","id":"S6-0371","volume":"900v6","title":"Osmotic blister migration","prediction":"Sequential adhesion release and resealing translate the blister under an imposed solute gradient.","test":"Use water-based polymer films and benign sugar solutions; image footprint, volume, and local adhesion.","contrary":"The blister only expands in place or translation requires external leakage.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0371","title":"Osmotic blister migration","question":"Can an osmotic blister move laterally beneath a weakly adhered film while its volume stays nearly constant?","prediction":"Sequential adhesion release and resealing translate the blister under an imposed solute gradient.","test":"Use water-based polymer films and benign sugar solutions; image footprint, volume, and local adhesion.","contrary_outcome":"The blister only expands in place or translation requires external leakage.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0372","id":"S6-0372","volume":"900v6","title":"Porous electrode drying signature","prediction":"A frequency-dependent feature shifts abruptly when independently imaged liquid bridges disconnect.","test":"Measure low-voltage impedance in benign saline porous samples while imaging liquid pathways and tracking mass.","contrary":"The spectrum follows concentration continuously without a connectivity-specific change.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0372","title":"Porous electrode drying signature","question":"Can a weak electrical impedance measurement distinguish loss of liquid connectivity from uniform concentration increase during drying?","prediction":"A frequency-dependent feature shifts abruptly when independently imaged liquid bridges disconnect.","test":"Measure low-voltage impedance in benign saline porous samples while imaging liquid pathways and tracking mass.","contrary_outcome":"The spectrum follows concentration continuously without a connectivity-specific change.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0373","id":"S6-0373","volume":"900v6","title":"Conductive thread knot humidity","prediction":"A knotted segment changes resistance more than a straight segment with equal mass and length.","test":"Use low-current four-terminal measurements, humidity steps, and optical strain tracking with controlled knot tension.","contrary":"Response is accounted for by bulk resistivity and geometric strain.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0373","title":"Conductive thread knot humidity","question":"Can a knot amplify the humidity sensitivity of a carbon-coated thread through contact resistance rather than bulk swelling?","prediction":"A knotted segment changes resistance more than a straight segment with equal mass and length.","test":"Use low-current four-terminal measurements, humidity steps, and optical strain tracking with controlled knot tension.","contrary_outcome":"Response is accounted for by bulk resistivity and geometric strain.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0374","id":"S6-0374","volume":"900v6","title":"Liquid junction gravity bias","prediction":"An unstable density orientation shortens voltage lifetime compared with a stable orientation.","test":"Record open-circuit voltage and concentration images in dilute saline junctions with matched electrodes and reversed gravity orientation.","contrary":"Voltage decay is independent of orientation once electrode offsets are removed.","layers":[1,2,3],"categories":["energy"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0374","title":"Liquid junction gravity bias","question":"Can the orientation of a benign concentration junction alter its voltage decay through buoyancy-driven mixing?","prediction":"An unstable density orientation shortens voltage lifetime compared with a stable orientation.","test":"Record open-circuit voltage and concentration images in dilute saline junctions with matched electrodes and reversed gravity orientation.","contrary_outcome":"Voltage decay is independent of orientation once electrode offsets are removed.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0374","title":"Liquid junction gravity bias","question":"Can the orientation of a benign concentration junction alter its voltage decay through buoyancy-driven mixing?","prediction":"An unstable density orientation shortens voltage lifetime compared with a stable orientation.","test":"Record open-circuit voltage and concentration images in dilute saline junctions with matched electrodes and reversed gravity orientation.","contrary_outcome":"Voltage decay is independent of orientation once electrode offsets are removed.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":{"id":"S6-0374","title":"Liquid junction gravity bias","question":"Can the orientation of a benign concentration junction alter its voltage decay through buoyancy-driven mixing?","prediction":"An unstable density orientation shortens voltage lifetime compared with a stable orientation.","test":"Record open-circuit voltage and concentration images in dilute saline junctions with matched electrodes and reversed gravity orientation.","contrary_outcome":"Voltage decay is independent of orientation once electrode offsets are removed.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0375","id":"S6-0375","volume":"900v6","title":"Capacitive sediment orientation","prediction":"The ratio of orthogonal capacitances changes with layer orientation while total water mass stays fixed.","test":"Use inert layered bead-water cells with guarded low-voltage electrodes; rotate the sealed cell and compare homogeneous controls.","contrary":"The ratio is independent of layer orientation or follows electrode wetting artifacts.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0375","title":"Capacitive sediment orientation","question":"Can two orthogonal electrode pairs distinguish rotated layers in wet sediment at equal overall water content?","prediction":"The ratio of orthogonal capacitances changes with layer orientation while total water mass stays fixed.","test":"Use inert layered bead-water cells with guarded low-voltage electrodes; rotate the sealed cell and compare homogeneous controls.","contrary_outcome":"The ratio is independent of layer orientation or follows electrode wetting artifacts.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0376","id":"S6-0376","volume":"900v6","title":"Electrostatic dust release sequence","prediction":"Dust detachment advances from the contacted edge with a measurable charge-relaxation delay.","test":"Use small static charges, enclosed inert dust, surface-potential mapping, and matched mechanical-contact controls.","contrary":"Detachment is immediate everywhere or caused solely by sheet vibration.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0376","title":"Electrostatic dust release sequence","question":"Can grounded contact at one edge release charged inert dust from an insulating sheet in a propagating spatial sequence?","prediction":"Dust detachment advances from the contacted edge with a measurable charge-relaxation delay.","test":"Use small static charges, enclosed inert dust, surface-potential mapping, and matched mechanical-contact controls.","contrary_outcome":"Detachment is immediate everywhere or caused solely by sheet vibration.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0377","id":"S6-0377","volume":"900v6","title":"Graphite trace crack contact","prediction":"Shear aligns opposing asperities and lowers contact resistance more efficiently.","test":"Measure low-current resistance and microscope gap geometry during controlled biaxial loading of pencil traces.","contrary":"Resistance depends only on minimum gap regardless of loading direction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0377","title":"Graphite trace crack contact","question":"Can a cracked graphite trace recover conduction under slight shear while remaining open under equal normal compression?","prediction":"Shear aligns opposing asperities and lowers contact resistance more efficiently.","test":"Measure low-current resistance and microscope gap geometry during controlled biaxial loading of pencil traces.","contrary_outcome":"Resistance depends only on minimum gap regardless of loading direction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0378","id":"S6-0378","volume":"900v6","title":"Magnetic chain torsional lag","prediction":"Frictional contacts preserve chirality until a field-amplitude threshold is crossed.","test":"Use enclosed small magnets with video reconstruction and measured field cycles; compare lubricated contacts.","contrary":"Twist follows field angle reversibly or relaxes without a threshold.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0378","title":"Magnetic chain torsional lag","question":"Can a chain of weak magnetic beads retain a twist after the external field returns to its starting direction?","prediction":"Frictional contacts preserve chirality until a field-amplitude threshold is crossed.","test":"Use enclosed small magnets with video reconstruction and measured field cycles; compare lubricated contacts.","contrary_outcome":"Twist follows field angle reversibly or relaxes without a threshold.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0379","id":"S6-0379","volume":"900v6","title":"Inductive gap wetting detection","prediction":"Wetting changes foil spacing or conductivity enough to alter the complex coil response reproducibly.","test":"Measure coil response with independently controlled seam thickness, temperature, and water volume.","contrary":"Coil changes are fully explained by temperature drift or mechanical displacement alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0379","title":"Inductive gap wetting detection","question":"Can a low-power coil distinguish a water-filled seam from a dry seam through the response of an adjacent conductive foil?","prediction":"Wetting changes foil spacing or conductivity enough to alter the complex coil response reproducibly.","test":"Measure coil response with independently controlled seam thickness, temperature, and water volume.","contrary_outcome":"Coil changes are fully explained by temperature drift or mechanical displacement alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0380","id":"S6-0380","volume":"900v6","title":"Resistive film cooling localization","prediction":"Local resistance changes identify droplet position across withheld placements.","test":"Use a low-power safe film with calibrated temperature coefficient and simultaneous thermal imaging.","contrary":"Position estimates fail outside calibration locations or track electrical contact drift.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0380","title":"Resistive film cooling localization","question":"Can distributed voltage taps locate a cool water droplet on a uniformly warmed resistive film without an infrared camera?","prediction":"Local resistance changes identify droplet position across withheld placements.","test":"Use a low-power safe film with calibrated temperature coefficient and simultaneous thermal imaging.","contrary_outcome":"Position estimates fail outside calibration locations or track electrical contact drift.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0381","id":"S6-0381","volume":"900v6","title":"Moisture antenna bending ambiguity","prediction":"Differential resonance shifts estimate water uptake more accurately than either resonator alone.","test":"Measure benign paper resonators across independently controlled curvature and humidity; validate held-out combinations.","contrary":"Moisture estimates remain confounded by curvature after pairing.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0381","title":"Moisture antenna bending ambiguity","question":"Can paired passive resonators separate moisture uptake from bending in a thin flexible strip?","prediction":"Differential resonance shifts estimate water uptake more accurately than either resonator alone.","test":"Measure benign paper resonators across independently controlled curvature and humidity; validate held-out combinations.","contrary_outcome":"Moisture estimates remain confounded by curvature after pairing.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0382","id":"S6-0382","volume":"900v6","title":"Static charge fold memory","prediction":"Contact and separation move charge into bands aligned with prior folds.","test":"Map surface potential and total charge before and after gentle controlled folds with no-fold handling controls.","contrary":"Spatial changes match handling noise or require a large net charge change.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0382","title":"Static charge fold memory","question":"Can folding an insulating film change the location of retained static charge after unfolding without changing total charge substantially?","prediction":"Contact and separation move charge into bands aligned with prior folds.","test":"Map surface potential and total charge before and after gentle controlled folds with no-fold handling controls.","contrary_outcome":"Spatial changes match handling noise or require a large net charge change.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0383","id":"S6-0383","volume":"900v6","title":"Capacitive meniscus direction","prediction":"Contact-angle hysteresis creates a reproducible differential signal at equal meniscus position.","test":"Record electrode signals and microscope contact angles during syringe-driven water cycles in an insulating channel.","contrary":"Signals depend only on meniscus position and bulk temperature.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0383","title":"Capacitive meniscus direction","question":"Can a pair of offset capacitive electrodes distinguish an advancing from a retreating water meniscus at the same axial position?","prediction":"Contact-angle hysteresis creates a reproducible differential signal at equal meniscus position.","test":"Record electrode signals and microscope contact angles during syringe-driven water cycles in an insulating channel.","contrary_outcome":"Signals depend only on meniscus position and bulk temperature.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0384","id":"S6-0384","volume":"900v6","title":"Magnetic inclusion buckle location","prediction":"A weak local field biases buckle initiation toward the inclusion while small-signal stiffness remains matched.","test":"Test guarded soft beams with movable weak magnets and independently measured stiffness and field gradients.","contrary":"Buckle locations reflect fixed fabrication defects regardless of field position.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0384","title":"Magnetic inclusion buckle location","question":"Can a small embedded magnetic inclusion select a buckle location without appreciably changing the unloaded beam stiffness?","prediction":"A weak local field biases buckle initiation toward the inclusion while small-signal stiffness remains matched.","test":"Test guarded soft beams with movable weak magnets and independently measured stiffness and field gradients.","contrary_outcome":"Buckle locations reflect fixed fabrication defects regardless of field position.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0385","id":"S6-0385","volume":"900v6","title":"Conductive gel dilution skin","prediction":"Fresh water first creates a dilute surface layer followed by delayed salt replenishment.","test":"Measure shallow and deep low-voltage impedance during controlled rewetting with depth-resolved concentration sampling.","contrary":"Surface conductivity rises monotonically or follows probe wetting alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0385","title":"Conductive gel dilution skin","question":"Can rewetting a dried saline gel reduce surface conductivity before increasing it as ions diffuse outward?","prediction":"Fresh water first creates a dilute surface layer followed by delayed salt replenishment.","test":"Measure shallow and deep low-voltage impedance during controlled rewetting with depth-resolved concentration sampling.","contrary_outcome":"Surface conductivity rises monotonically or follows probe wetting alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0386","id":"S6-0386","volume":"900v6","title":"Water jet obstacle memory","prediction":"Viscoelastic recovery creates a finite interval in which the weaker jet is routed differently.","test":"Use a soft strip in a recirculating water rig; vary delay between strong and weak pulses and measure strip shape.","contrary":"Routing depends only on current jet momentum and instantaneous support position.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0386","title":"Water jet obstacle memory","question":"Can a flexible obstacle retain a deflection that changes the path of a later weaker water jet after the strong jet stops?","prediction":"Viscoelastic recovery creates a finite interval in which the weaker jet is routed differently.","test":"Use a soft strip in a recirculating water rig; vary delay between strong and weak pulses and measure strip shape.","contrary_outcome":"Routing depends only on current jet momentum and instantaneous support position.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0387","id":"S6-0387","volume":"900v6","title":"Vortex ring porous passage","prediction":"Downstream momentum remains aligned even when vorticity imaging shows core breakup.","test":"Generate small water vortex rings and compare particle-image velocity fields before and after interchangeable screens.","contrary":"Loss of core coherence eliminates directional momentum beyond measurement uncertainty.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0387","title":"Vortex ring porous passage","question":"Can a porous screen preserve the impulse direction of a weak vortex ring while destroying its coherent core?","prediction":"Downstream momentum remains aligned even when vorticity imaging shows core breakup.","test":"Generate small water vortex rings and compare particle-image velocity fields before and after interchangeable screens.","contrary_outcome":"Loss of core coherence eliminates directional momentum beyond measurement uncertainty.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0388","id":"S6-0388","volume":"900v6","title":"Sidewall slip wave focusing","prediction":"The altered wall condition shifts transverse phase enough to concentrate wave amplitude downstream.","test":"Use low-amplitude waves with mapped wall condition and identical depth; image full surface displacement.","contrary":"Any focusing is explained by depth variation or source asymmetry.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0388","title":"Sidewall slip wave focusing","question":"Can a short lubricated wall patch focus surface waves in a narrow water channel without a change in channel depth?","prediction":"The altered wall condition shifts transverse phase enough to concentrate wave amplitude downstream.","test":"Use low-amplitude waves with mapped wall condition and identical depth; image full surface displacement.","contrary_outcome":"Any focusing is explained by depth variation or source asymmetry.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0388","title":"Sidewall slip wave focusing","question":"Can a short lubricated wall patch focus surface waves in a narrow water channel without a change in channel depth?","prediction":"The altered wall condition shifts transverse phase enough to concentrate wave amplitude downstream.","test":"Use low-amplitude waves with mapped wall condition and identical depth; image full surface displacement.","contrary_outcome":"Any focusing is explained by depth variation or source asymmetry.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0389","id":"S6-0389","volume":"900v6","title":"Oscillatory dead-leg mixing","prediction":"Vortex penetration and diffusion compete to produce a minimum in concentration equilibration time.","test":"Measure food-dye washout in a transparent junction over frequency sweeps with matched stroke volume.","contrary":"Mixing time changes monotonically or depends only on total transported volume.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0389","title":"Oscillatory dead-leg mixing","question":"Can oscillatory main-channel flow mix a dead leg most efficiently at an intermediate frequency despite fixed stroke volume?","prediction":"Vortex penetration and diffusion compete to produce a minimum in concentration equilibration time.","test":"Measure food-dye washout in a transparent junction over frequency sweeps with matched stroke volume.","contrary_outcome":"Mixing time changes monotonically or depends only on total transported volume.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0390","id":"S6-0390","volume":"900v6","title":"Compliant nozzle pulse shaping","prediction":"Elastic storage produces a timing shift larger than in an equal-volume rigid nozzle.","test":"Record nozzle deformation, inlet pressure, and outlet flow for matched pulse volumes.","contrary":"Peak delay is entirely explained by upstream tubing compliance.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0390","title":"Compliant nozzle pulse shaping","question":"Can a flexible nozzle delay the peak of a water-flow pulse relative to the pressure peak without substantial change in discharged volume?","prediction":"Elastic storage produces a timing shift larger than in an equal-volume rigid nozzle.","test":"Record nozzle deformation, inlet pressure, and outlet flow for matched pulse volumes.","contrary_outcome":"Peak delay is entirely explained by upstream tubing compliance.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0391","id":"S6-0391","volume":"900v6","title":"Floating gate wave rectification","prediction":"Asymmetric opening and closing transfers net water until hydrostatic head balances transport.","test":"Use a closed recirculating wave tank with matched bilateral forcing and reversed hinge geometry.","contrary":"The level difference vanishes after accounting for wave-maker drift and leakage.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0391","title":"Floating gate wave rectification","question":"Can a freely hinged floating gate convert symmetric shallow waves into a mean water-level difference?","prediction":"Asymmetric opening and closing transfers net water until hydrostatic head balances transport.","test":"Use a closed recirculating wave tank with matched bilateral forcing and reversed hinge geometry.","contrary_outcome":"The level difference vanishes after accounting for wave-maker drift and leakage.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0392","id":"S6-0392","volume":"900v6","title":"Bubble curtain particle shelter","prediction":"Return circulation supports particles outside the bubble region while direct bubble wakes disperse them.","test":"Track inert particles and water velocities across a shallow transparent column at modest air flow.","contrary":"Settling reduction peaks only where bubbles directly contact particles.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0392","title":"Bubble curtain particle shelter","question":"Can sparse rising bubbles reduce particle settling in a nearby bubble-free corridor more than directly inside the curtain?","prediction":"Return circulation supports particles outside the bubble region while direct bubble wakes disperse them.","test":"Track inert particles and water velocities across a shallow transparent column at modest air flow.","contrary_outcome":"Settling reduction peaks only where bubbles directly contact particles.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0393","id":"S6-0393","volume":"900v6","title":"Siphon crest trapped pocket","prediction":"Compressible storage damps pressure oscillations over a bounded pocket-volume range.","test":"Measure pressure and discharge in a low-head transparent siphon with controlled pocket volumes.","contrary":"Added air monotonically increases fluctuation amplitude or only reduces mean flow.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0393","title":"Siphon crest trapped pocket","question":"Can a small trapped air pocket reduce fluctuations in a water siphon before it becomes large enough to break flow?","prediction":"Compressible storage damps pressure oscillations over a bounded pocket-volume range.","test":"Measure pressure and discharge in a low-head transparent siphon with controlled pocket volumes.","contrary_outcome":"Added air monotonically increases fluctuation amplitude or only reduces mean flow.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0394","id":"S6-0394","volume":"900v6","title":"Fluid bridge lateral resonance","prediction":"Contact-line hysteresis and reservoir asymmetry create a directional cycle-volume transfer.","test":"Use low-amplitude bridge motion, reservoir weighing, and reversed geometric asymmetry controls.","contrary":"Net transfer is explained entirely by hydrostatic head or evaporation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0394","title":"Fluid bridge lateral resonance","question":"Can lateral oscillation of a water bridge pump liquid between unequal reservoirs with zero mean support displacement?","prediction":"Contact-line hysteresis and reservoir asymmetry create a directional cycle-volume transfer.","test":"Use low-amplitude bridge motion, reservoir weighing, and reversed geometric asymmetry controls.","contrary_outcome":"Net transfer is explained entirely by hydrostatic head or evaporation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0395","id":"S6-0395","volume":"900v6","title":"Branch channel sediment return","prediction":"Branch ejection vortices entrain settled grains while the main stream remains unidirectional.","test":"Use inert sediment in a transparent water junction with synchronized local velocity and particle tracking.","contrary":"Resuspension requires main-channel reversal or direct mechanical disturbance.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0395","title":"Branch channel sediment return","question":"Can a slowly oscillating side branch return deposited particles to the main channel without reversing main-channel flow?","prediction":"Branch ejection vortices entrain settled grains while the main stream remains unidirectional.","test":"Use inert sediment in a transparent water junction with synchronized local velocity and particle tracking.","contrary_outcome":"Resuspension requires main-channel reversal or direct mechanical disturbance.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0396","id":"S6-0396","volume":"900v6","title":"Viscous layer wave cutoff","prediction":"Damping separates strongly by wavelength at a layer thickness smaller than either wavelength.","test":"Use benign immiscible liquids in a small tank; measure wave amplitude and flux across several wavelengths.","contrary":"Long and short waves show comparable normalized attenuation.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0396","title":"Viscous layer wave cutoff","question":"Can a thin viscous surface layer suppress short water waves while leaving long-wave energy flux nearly unchanged?","prediction":"Damping separates strongly by wavelength at a layer thickness smaller than either wavelength.","test":"Use benign immiscible liquids in a small tank; measure wave amplitude and flux across several wavelengths.","contrary_outcome":"Long and short waves show comparable normalized attenuation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0397","id":"S6-0397","volume":"900v6","title":"Flexible reed bubble release","prediction":"Bubble intervals track reed relaxation more closely than constant air-feed rate over a limited regime.","test":"Measure reed shape, bubble timing, and low-pressure air delivery with stiff-reed controls.","contrary":"Intervals depend solely on gas accumulation and nozzle surface tension.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0397","title":"Flexible reed bubble release","question":"Can a submerged soft reed set the spacing of released air bubbles through its own bending recovery time?","prediction":"Bubble intervals track reed relaxation more closely than constant air-feed rate over a limited regime.","test":"Measure reed shape, bubble timing, and low-pressure air delivery with stiff-reed controls.","contrary_outcome":"Intervals depend solely on gas accumulation and nozzle surface tension.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0398","id":"S6-0398","volume":"900v6","title":"Droplet collision wall distance","prediction":"Wall-mediated air drainage shifts the coalescence probability at fixed speed and droplet size.","test":"Use low-speed controlled droplets near a clean transparent wall; image collision trajectories and intervening air-film behavior.","contrary":"Coalescence probability is independent of wall distance after trajectory matching.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0398","title":"Droplet collision wall distance","question":"Can a nearby wall change whether two water droplets coalesce even when their measured collision speed is unchanged?","prediction":"Wall-mediated air drainage shifts the coalescence probability at fixed speed and droplet size.","test":"Use low-speed controlled droplets near a clean transparent wall; image collision trajectories and intervening air-film behavior.","contrary_outcome":"Coalescence probability is independent of wall distance after trajectory matching.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0399","id":"S6-0399","volume":"900v6","title":"Inclined channel corner exchange","prediction":"Contact-line hysteresis leaves a changed corner-volume partition at restored channel orientation.","test":"Image dyed water in a closed shallow channel during reciprocal tilt cycles and measure three-dimensional volume distribution.","contrary":"Restored orientation restores the original corner partition.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0399","title":"Inclined channel corner exchange","question":"Can alternating tilt direction exchange liquid between channel corners without translating its bulk center of mass over a full cycle?","prediction":"Contact-line hysteresis leaves a changed corner-volume partition at restored channel orientation.","test":"Image dyed water in a closed shallow channel during reciprocal tilt cycles and measure three-dimensional volume distribution.","contrary_outcome":"Restored orientation restores the original corner partition.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0399","title":"Inclined channel corner exchange","question":"Can alternating tilt direction exchange liquid between channel corners without translating its bulk center of mass over a full cycle?","prediction":"Contact-line hysteresis leaves a changed corner-volume partition at restored channel orientation.","test":"Image dyed water in a closed shallow channel during reciprocal tilt cycles and measure three-dimensional volume distribution.","contrary_outcome":"Restored orientation restores the original corner partition.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0400","id":"S6-0400","volume":"900v6","title":"Elbow flow thermal tracer bias","prediction":"Secondary circulation changes tracer residence time enough to bias a single-sensor estimate.","test":"Use a modestly warmed water pulse, multiple thermistors, and independent gravimetric flow calibration around a transparent elbow.","contrary":"All heater positions recover the same flow within calibrated uncertainty.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0400","title":"Elbow flow thermal tracer bias","question":"Can the inferred mean flow from a heat pulse depend on heater position around an elbow at identical true discharge?","prediction":"Secondary circulation changes tracer residence time enough to bias a single-sensor estimate.","test":"Use a modestly warmed water pulse, multiple thermistors, and independent gravimetric flow calibration around a transparent elbow.","contrary_outcome":"All heater positions recover the same flow within calibrated uncertainty.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0401","id":"S6-0401","volume":"900v6","title":"Lattice hinge wear localization","prediction":"Damage concentrates at the soft hinge but the network's cycles to first neighboring failure increase.","test":"Cycle low-energy polymer lattices with mapped hinge stiffness and microscopic damage scoring.","contrary":"Neighboring failure timing is unchanged or worsens after the soft hinge is introduced.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0401","title":"Lattice hinge wear localization","question":"Can a slightly softer hinge protect its neighbors from cyclic wear while becoming the dominant deformation site?","prediction":"Damage concentrates at the soft hinge but the network's cycles to first neighboring failure increase.","test":"Cycle low-energy polymer lattices with mapped hinge stiffness and microscopic damage scoring.","contrary_outcome":"Neighboring failure timing is unchanged or worsens after the soft hinge is introduced.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0402","id":"S6-0402","volume":"900v6","title":"Perforated sheet tear deflection","prediction":"The hole rotates the local tear path while the score guides it toward the edge.","test":"Use paper sheets with matched ligament width; image tear paths under controlled displacement and compare force-work curves.","contrary":"Tear trajectories are set solely by minimum ligament width.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0402","title":"Perforated sheet tear deflection","question":"Can one isolated round perforation redirect a tear away from a nearby edge more effectively than a continuous score?","prediction":"The hole rotates the local tear path while the score guides it toward the edge.","test":"Use paper sheets with matched ligament width; image tear paths under controlled displacement and compare force-work curves.","contrary_outcome":"Tear trajectories are set solely by minimum ligament width.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0403","id":"S6-0403","volume":"900v6","title":"Tiled surface shear delay","prediction":"A slip front must change path between rows and crosses the specimen more slowly.","test":"Track contact markers on benign tiled elastomer under quasistatic shear with matched adhesion and coverage.","contrary":"Slip-front speed depends only on overall stiffness and loading rate.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0403","title":"Tiled surface shear delay","question":"Can staggered tiles delay slip propagation across a compliant backing compared with aligned tiles at equal tile coverage?","prediction":"A slip front must change path between rows and crosses the specimen more slowly.","test":"Track contact markers on benign tiled elastomer under quasistatic shear with matched adhesion and coverage.","contrary_outcome":"Slip-front speed depends only on overall stiffness and loading rate.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0404","id":"S6-0404","volume":"900v6","title":"Cable crossing load shielding","prediction":"Transient slip at the crossing dissipates pulse energy without altering final equilibrium tension.","test":"Measure all anchor tensions in a low-energy crossed-cable rig and compare locked and sliding crossings.","contrary":"Pulse attenuation is explained entirely by lower static transmitted load.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0404","title":"Cable crossing load shielding","question":"Can a frictional cable crossing shield one anchor from a brief tensile pulse while transmitting the same static load?","prediction":"Transient slip at the crossing dissipates pulse energy without altering final equilibrium tension.","test":"Measure all anchor tensions in a low-energy crossed-cable rig and compare locked and sliding crossings.","contrary_outcome":"Pulse attenuation is explained entirely by lower static transmitted load.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0404","title":"Cable crossing load shielding","question":"Can a frictional cable crossing shield one anchor from a brief tensile pulse while transmitting the same static load?","prediction":"Transient slip at the crossing dissipates pulse energy without altering final equilibrium tension.","test":"Measure all anchor tensions in a low-energy crossed-cable rig and compare locked and sliding crossings.","contrary_outcome":"Pulse attenuation is explained entirely by lower static transmitted load.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0405","id":"S6-0405","volume":"900v6","title":"Domed shell crease placement","prediction":"The crease confines the initial deformation to an interior ring at a reproducible load.","test":"Compress small flexible domes slowly with full-field imaging and matched uncreased controls.","contrary":"Failure remains rim-dominated or follows uncontrolled thickness defects.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0405","title":"Domed shell crease placement","question":"Can a shallow circumferential crease move a dome's first buckle inward rather than weakening its rim?","prediction":"The crease confines the initial deformation to an interior ring at a reproducible load.","test":"Compress small flexible domes slowly with full-field imaging and matched uncreased controls.","contrary_outcome":"Failure remains rim-dominated or follows uncontrolled thickness defects.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0406","id":"S6-0406","volume":"900v6","title":"Paper tube seam rotation","prediction":"Staggered seams spread twist and delay a single localized seam opening.","test":"Test matched paper tubes under low-energy torsion and axial loading while imaging seam motion.","contrary":"Failure is independent of seam arrangement after adhesive mass is matched.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0406","title":"Paper tube seam rotation","question":"Can rotating the seam between layers change the torsional failure mode of a rolled paper tube without changing its axial stiffness substantially?","prediction":"Staggered seams spread twist and delay a single localized seam opening.","test":"Test matched paper tubes under low-energy torsion and axial loading while imaging seam motion.","contrary_outcome":"Failure is independent of seam arrangement after adhesive mass is matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0407","id":"S6-0407","volume":"900v6","title":"Snap frame asymmetric damping","prediction":"Transient displacement follows the less-damped branch although the equilibrium force curve remains matched.","test":"Use guarded small frames with removable damping pads and high-speed motion tracking.","contrary":"Transition path remains fixed or quasistatic load changes account for it.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0407","title":"Snap frame asymmetric damping","question":"Can damping one leg of a bistable frame change its transition path while preserving the quasistatic snap load?","prediction":"Transient displacement follows the less-damped branch although the equilibrium force curve remains matched.","test":"Use guarded small frames with removable damping pads and high-speed motion tracking.","contrary_outcome":"Transition path remains fixed or quasistatic load changes account for it.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0408","id":"S6-0408","volume":"900v6","title":"Slack net impact spreading","prediction":"Sequential recruitment expands the load-bearing area and lowers the later peak anchor force.","test":"Drop a small soft mass into enclosed nets; compare matched slack patterns and total material with anchor load cells.","contrary":"Slack only delays the same concentrated peak or increases it.","layers":[1],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0408","title":"Slack net impact spreading","question":"Can deliberate local slack increase the number of strands sharing an impact after the initial contact interval?","prediction":"Sequential recruitment expands the load-bearing area and lowers the later peak anchor force.","test":"Drop a small soft mass into enclosed nets; compare matched slack patterns and total material with anchor load cells.","contrary_outcome":"Slack only delays the same concentrated peak or increases it.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0409","id":"S6-0409","volume":"900v6","title":"Friction pad unloading route","prediction":"Partial slip during normal unloading preserves a route-dependent shear stress field.","test":"Use low-load transparent contact pads with shear imaging and controlled normal-shear trajectories.","contrary":"Residual shear is a unique function of final normal load and displacement.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0409","title":"Friction pad unloading route","question":"Can a friction pad retain different residual shear forces after equal final normal loads reached by different unloading routes?","prediction":"Partial slip during normal unloading preserves a route-dependent shear stress field.","test":"Use low-load transparent contact pads with shear imaging and controlled normal-shear trajectories.","contrary_outcome":"Residual shear is a unique function of final normal load and displacement.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0410","id":"S6-0410","volume":"900v6","title":"Corrugated strip torsion neutral point","prediction":"Opposed local coupling produces a reproducible minimum in transverse displacement.","test":"Apply small torques to patterned paper or polymer strips and map deformation with markers.","contrary":"The apparent neutral point moves with clamp misalignment or disappears in repeated samples.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0410","title":"Corrugated strip torsion neutral point","question":"Can a local reversal in corrugation direction create a point that translates little while neighboring regions twist strongly?","prediction":"Opposed local coupling produces a reproducible minimum in transverse displacement.","test":"Apply small torques to patterned paper or polymer strips and map deformation with markers.","contrary_outcome":"The apparent neutral point moves with clamp misalignment or disappears in repeated samples.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0411","id":"S6-0411","volume":"900v6","title":"Laminated edge delamination arrest","prediction":"The band redistributes opening stress and raises the load needed for continued propagation.","test":"Peel benign laminated coupons with and without equal-area edge compliance changes; measure crack front and force.","contrary":"Arrest is explained only by extra adhesive or reduced peel angle.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0411","title":"Laminated edge delamination arrest","question":"Can a compliant edge band arrest a slowly advancing delamination without increasing total bonded area?","prediction":"The band redistributes opening stress and raises the load needed for continued propagation.","test":"Peel benign laminated coupons with and without equal-area edge compliance changes; measure crack front and force.","contrary_outcome":"Arrest is explained only by extra adhesive or reduced peel angle.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0412","id":"S6-0412","volume":"900v6","title":"Elastic foundation buckle migration","prediction":"The buckle follows the support continuously within a limited support-speed range.","test":"Use a guarded compressed polymer strip above a movable foam support and track curvature peaks.","contrary":"Buckles remain pinned or migrate only through abrupt new-buckle formation.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0412","title":"Elastic foundation buckle migration","question":"Can moving a soft support beneath a compressed strip move an existing buckle without nucleating a new one?","prediction":"The buckle follows the support continuously within a limited support-speed range.","test":"Use a guarded compressed polymer strip above a movable foam support and track curvature peaks.","contrary_outcome":"Buckles remain pinned or migrate only through abrupt new-buckle formation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0413","id":"S6-0413","volume":"900v6","title":"Ring stack force redirection","prediction":"Ring bending reroutes compression through a nonlocal contact chain.","test":"Instrument contacts in a small polymer ring stack under slow load and compare aligned and offset geometries.","contrary":"Contact forces are explained by nearest-contact compression alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0413","title":"Ring stack force redirection","question":"Can offsetting one ring in a compressible stack send more load to a distant contact than to its nearest contact?","prediction":"Ring bending reroutes compression through a nonlocal contact chain.","test":"Instrument contacts in a small polymer ring stack under slow load and compare aligned and offset geometries.","contrary_outcome":"Contact forces are explained by nearest-contact compression alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0414","id":"S6-0414","volume":"900v6","title":"Auxetic patch boundary strain","prediction":"Compatibility creates an adjacent band whose transverse strain has the opposite sign to the far field.","test":"Use low-strain cut-sheet lattices with full-field displacement measurements and homogeneous controls.","contrary":"Strain sign changes remain confined to the embedded patch.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0414","title":"Auxetic patch boundary strain","question":"Can embedding a small contracting lattice patch inside an expanding lattice produce a local strain reversal outside the patch?","prediction":"Compatibility creates an adjacent band whose transverse strain has the opposite sign to the far field.","test":"Use low-strain cut-sheet lattices with full-field displacement measurements and homogeneous controls.","contrary_outcome":"Strain sign changes remain confined to the embedded patch.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0415","id":"S6-0415","volume":"900v6","title":"Sliding clamp oscillation drift","prediction":"Phase differences in contact loading yield cumulative displacement that reverses when pads are swapped.","test":"Use a low-energy beam rig with optical clamp tracking and matched total normal force.","contrary":"Drift has no reproducible direction or follows fixture inclination alone.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0415","title":"Sliding clamp oscillation drift","question":"Can symmetric low-amplitude bending make a friction clamp drift along a beam when its two contact pads have unequal compliance?","prediction":"Phase differences in contact loading yield cumulative displacement that reverses when pads are swapped.","test":"Use a low-energy beam rig with optical clamp tracking and matched total normal force.","contrary_outcome":"Drift has no reproducible direction or follows fixture inclination alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0416","id":"S6-0416","volume":"900v6","title":"Interlocking panel gap tolerance","prediction":"The gap permits seating before one contact overloads, reducing peak contact-force variance.","test":"Load tabletop interlocking polymer panels with measured gap sizes and instrumented contact forces.","contrary":"Tighter assembly always provides equal or more uniform load sharing.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0416","title":"Interlocking panel gap tolerance","question":"Can a small intentional gap improve load sharing among interlocking panels compared with nominally tight assembly?","prediction":"The gap permits seating before one contact overloads, reducing peak contact-force variance.","test":"Load tabletop interlocking polymer panels with measured gap sizes and instrumented contact forces.","contrary_outcome":"Tighter assembly always provides equal or more uniform load sharing.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0417","id":"S6-0417","volume":"900v6","title":"Curved beam endpoint friction","prediction":"Early slip changes the effective constraint so later cycles bend the beam in the opposite direction.","test":"Track beam shape and endpoint forces during modest thermal cycles; compare lubricated and fixed supports.","contrary":"Displacement sign remains constant or reversal comes from permanent material damage.","layers":[1,2],"categories":["physical","energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0417","title":"Curved beam endpoint friction","question":"Can endpoint friction make a curved beam's thermal displacement change sign over repeated mild temperature cycles?","prediction":"Early slip changes the effective constraint so later cycles bend the beam in the opposite direction.","test":"Track beam shape and endpoint forces during modest thermal cycles; compare lubricated and fixed supports.","contrary_outcome":"Displacement sign remains constant or reversal comes from permanent material damage.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0417","title":"Curved beam endpoint friction","question":"Can endpoint friction make a curved beam's thermal displacement change sign over repeated mild temperature cycles?","prediction":"Early slip changes the effective constraint so later cycles bend the beam in the opposite direction.","test":"Track beam shape and endpoint forces during modest thermal cycles; compare lubricated and fixed supports.","contrary_outcome":"Displacement sign remains constant or reversal comes from permanent material damage.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0418","id":"S6-0418","volume":"900v6","title":"Fold junction recovery hierarchy","prediction":"Unequal hinge relaxation produces a reproducible nonreciprocal recovery order.","test":"Record fold angles and local moments in gently cycled polymer junctions; exchange hinge stiffness locations.","contrary":"Recovery always reverses the loading order once initial angles are matched.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0418","title":"Fold junction recovery hierarchy","question":"Can a three-fold junction recover its original shape in a different fold order than the reverse of its loading sequence?","prediction":"Unequal hinge relaxation produces a reproducible nonreciprocal recovery order.","test":"Record fold angles and local moments in gently cycled polymer junctions; exchange hinge stiffness locations.","contrary_outcome":"Recovery always reverses the loading order once initial angles are matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0419","id":"S6-0419","volume":"900v6","title":"Hollow strut vent arrest","prediction":"Local pressure release changes where the next wall contact occurs and temporarily halts front motion.","test":"Compress small air-filled polymer struts slowly with pressure sensors and imaged fronts; compare sealed sham vents.","contrary":"Front motion depends only on external displacement and is unaffected by pressure release.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0419","title":"Hollow strut vent arrest","question":"Can venting one cell in a compressed hollow strut arrest a propagating flattening front?","prediction":"Local pressure release changes where the next wall contact occurs and temporarily halts front motion.","test":"Compress small air-filled polymer struts slowly with pressure sensors and imaged fronts; compare sealed sham vents.","contrary_outcome":"Front motion depends only on external displacement and is unaffected by pressure release.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0420","id":"S6-0420","volume":"900v6","title":"Elastic loop crossing exchange","prediction":"Contact ordering selects different out-of-plane branches despite nearly matched initial stiffness.","test":"Use soft polymer loops with controlled crossings and three-dimensional shape tracking during quasistatic compression.","contrary":"Buckling modes are independent of crossing order after initial geometry is matched.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0420","title":"Elastic loop crossing exchange","question":"Can changing which strand passes above at one loop crossing alter the first buckling mode under equal end shortening?","prediction":"Contact ordering selects different out-of-plane branches despite nearly matched initial stiffness.","test":"Use soft polymer loops with controlled crossings and three-dimensional shape tracking during quasistatic compression.","contrary_outcome":"Buckling modes are independent of crossing order after initial geometry is matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0421","id":"S6-0421","volume":"900v6","title":"Rivulet tributary shutdown","prediction":"Loss of lateral momentum releases a pinned contact line and shifts the main stream toward the dry branch.","test":"Image a shallow water junction during controlled branch closure; measure contact angles and reverse the junction geometry.","contrary":"The rivulet always shifts away from the closed branch or follows substrate tilt.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0421","title":"Rivulet tributary shutdown","question":"Can closing a small tributary make a water rivulet move toward that tributary rather than away from it?","prediction":"Loss of lateral momentum releases a pinned contact line and shifts the main stream toward the dry branch.","test":"Image a shallow water junction during controlled branch closure; measure contact angles and reverse the junction geometry.","contrary_outcome":"The rivulet always shifts away from the closed branch or follows substrate tilt.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0422","id":"S6-0422","volume":"900v6","title":"Draining cavity last drop","prediction":"A bridging meniscus pins to the shelf and isolates a higher liquid pocket.","test":"Use transparent cavities with removable shelves; reconstruct retained water volume and compare quasistatic drainage histories.","contrary":"All retained liquid collects at the lowest point independent of shelf geometry.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0422","title":"Draining cavity last drop","question":"Can an internal shelf move the final retained drop away from the lowest point of a drained cavity?","prediction":"A bridging meniscus pins to the shelf and isolates a higher liquid pocket.","test":"Use transparent cavities with removable shelves; reconstruct retained water volume and compare quasistatic drainage histories.","contrary_outcome":"All retained liquid collects at the lowest point independent of shelf geometry.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0423","id":"S6-0423","volume":"900v6","title":"Porous roof condensation delay","prediction":"Lateral imbibition enlarges storage before the first drop detaches.","test":"Condense water at modest temperature differences beneath porous and nonporous roofs; measure collected mass, first-drop time, and surface temperature.","contrary":"Delayed dripping is accounted for only by reduced condensation rate.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0423","title":"Porous roof condensation delay","question":"Can a porous overhead surface postpone dripping while increasing the rate of condensation beneath it?","prediction":"Lateral imbibition enlarges storage before the first drop detaches.","test":"Condense water at modest temperature differences beneath porous and nonporous roofs; measure collected mass, first-drop time, and surface temperature.","contrary_outcome":"Delayed dripping is accounted for only by reduced condensation rate.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0424","id":"S6-0424","volume":"900v6","title":"Contact angle corner exchange","prediction":"Unequal pinned menisci sustain pressure-driven redistribution until one contact line releases.","test":"Stop flow in a sealed transparent corner channel; track local volumes and pressure with evaporation suppressed.","contrary":"Corner volumes remain fixed immediately after flow stops.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0424","title":"Contact angle corner exchange","question":"Can liquid exchange between two corners continue after total flow through their connecting channel stops?","prediction":"Unequal pinned menisci sustain pressure-driven redistribution until one contact line releases.","test":"Stop flow in a sealed transparent corner channel; track local volumes and pressure with evaporation suppressed.","contrary_outcome":"Corner volumes remain fixed immediately after flow stops.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0425","id":"S6-0425","volume":"900v6","title":"Wetted spring force plateau","prediction":"Successive bridge rupture compensates rising elastic tension over a finite extension range.","test":"Measure a soft spring partly wetted with water using synchronized force and bridge imaging; compare dry controls.","contrary":"Force variations add monotonically to the dry spring curve without a plateau.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0425","title":"Wetted spring force plateau","question":"Can sequential wetting of spring turns create a force plateau during extension rather than a smooth capillary force increase?","prediction":"Successive bridge rupture compensates rising elastic tension over a finite extension range.","test":"Measure a soft spring partly wetted with water using synchronized force and bridge imaging; compare dry controls.","contrary_outcome":"Force variations add monotonically to the dry spring curve without a plateau.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0426","id":"S6-0426","volume":"900v6","title":"Perforated cup drainage halt","prediction":"The disk traps a low-pressure air region that supports remaining water.","test":"Use transparent low-head water cups with disk clearance controls, pressure sensors, and vented-disk comparisons.","contrary":"Flow interruption requires direct hole sealing or occurs equally with pressure venting.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0426","title":"Perforated cup drainage halt","question":"Can a freely moving internal disk interrupt drainage before a perforated cup empties without sealing every hole?","prediction":"The disk traps a low-pressure air region that supports remaining water.","test":"Use transparent low-head water cups with disk clearance controls, pressure sensors, and vented-disk comparisons.","contrary_outcome":"Flow interruption requires direct hole sealing or occurs equally with pressure venting.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0427","id":"S6-0427","volume":"900v6","title":"Liquid collar axial locking","prediction":"Rotation relocates the contact line into roughness features and raises subsequent axial depinning force.","test":"Measure low-force rod motion with imaged collars; compare rotated and unrotated states at matched liquid volume.","contrary":"Axial force depends only on collar volume and rod position.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0427","title":"Liquid collar axial locking","question":"Can a water collar hold a sliding rod axially more strongly after a brief rotation than before it?","prediction":"Rotation relocates the contact line into roughness features and raises subsequent axial depinning force.","test":"Measure low-force rod motion with imaged collars; compare rotated and unrotated states at matched liquid volume.","contrary_outcome":"Axial force depends only on collar volume and rod position.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0428","id":"S6-0428","volume":"900v6","title":"Alternating wick reservoir priority","prediction":"Interrupted wetting suppresses a competing route by changing its pressure boundary condition.","test":"Weigh two wick-fed collectors while switching one contact; compare continuous routes and swapped branch identities.","contrary":"The interrupted route always collects proportionally less water.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0428","title":"Alternating wick reservoir priority","question":"Can periodic interruption of one wick route increase its long-time share of water uptake from a common reservoir?","prediction":"Interrupted wetting suppresses a competing route by changing its pressure boundary condition.","test":"Weigh two wick-fed collectors while switching one contact; compare continuous routes and swapped branch identities.","contrary_outcome":"The interrupted route always collects proportionally less water.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0429","id":"S6-0429","volume":"900v6","title":"Capillary stair descent pause","prediction":"A geometric contact-line barrier dominates the suction difference at the narrow step.","test":"Image water menisci in transparent stepped channels with equal surface treatment and measured pressure.","contrary":"Pause duration follows suction monotonically without an additional geometric barrier.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0429","title":"Capillary stair descent pause","question":"Can a descending meniscus pause longer on a narrower step than a wider one despite higher capillary suction?","prediction":"A geometric contact-line barrier dominates the suction difference at the narrow step.","test":"Image water menisci in transparent stepped channels with equal surface treatment and measured pressure.","contrary_outcome":"Pause duration follows suction monotonically without an additional geometric barrier.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0429","title":"Capillary stair descent pause","question":"Can a descending meniscus pause longer on a narrower step than a wider one despite higher capillary suction?","prediction":"A geometric contact-line barrier dominates the suction difference at the narrow step.","test":"Image water menisci in transparent stepped channels with equal surface treatment and measured pressure.","contrary_outcome":"Pause duration follows suction monotonically without an additional geometric barrier.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0430","id":"S6-0430","volume":"900v6","title":"Droplet perimeter vibration census","prediction":"Pinned arcs have suppressed low-frequency displacement and predict subsequent depinning locations.","test":"Apply weak substrate motion to water droplets; compare perimeter-mode estimates with independently imaged release events.","contrary":"Mode-based pinned-arc estimates fail on withheld droplets.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0430","title":"Droplet perimeter vibration census","question":"Can the angular pattern of droplet perimeter motion reveal which contact-line arcs are pinned without directly resolving microscopic defects?","prediction":"Pinned arcs have suppressed low-frequency displacement and predict subsequent depinning locations.","test":"Apply weak substrate motion to water droplets; compare perimeter-mode estimates with independently imaged release events.","contrary_outcome":"Mode-based pinned-arc estimates fail on withheld droplets.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0431","id":"S6-0431","volume":"900v6","title":"Foam border drainage inversion","prediction":"Changed border curvature increases outflow despite reduced local liquid inventory.","test":"Image food-safe aqueous foam with a controlled bubble-volume change and fluorescent-free transmitted-light liquid tracking.","contrary":"Drainage changes are explained solely by the amount of liquid displaced.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0431","title":"Foam border drainage inversion","question":"Can a liquid-fed border in a foam sheet drain faster after one adjacent bubble shrinks?","prediction":"Changed border curvature increases outflow despite reduced local liquid inventory.","test":"Image food-safe aqueous foam with a controlled bubble-volume change and fluorescent-free transmitted-light liquid tracking.","contrary_outcome":"Drainage changes are explained solely by the amount of liquid displaced.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0432","id":"S6-0432","volume":"900v6","title":"Immiscible film split threshold","prediction":"A water meniscus changes the ridge's effective crossing barrier.","test":"Compare food-grade oil spreading on controlled ridges with dry and water-prewetted conditions; measure front geometry and transferred volume.","contrary":"The splitting threshold depends only on ridge height and oil volume.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0432","title":"Immiscible film split threshold","question":"Can a narrow surface ridge split a spreading benign oil film at a lower volume when prewetted with water?","prediction":"A water meniscus changes the ridge's effective crossing barrier.","test":"Compare food-grade oil spreading on controlled ridges with dry and water-prewetted conditions; measure front geometry and transferred volume.","contrary_outcome":"The splitting threshold depends only on ridge height and oil volume.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0433","id":"S6-0433","volume":"900v6","title":"Sponge edge squeeze return","prediction":"Local pore collapse interrupts the outward path and recovery draws from the wetter interior.","test":"Use dyed water in transparent open-cell sponge, local compression, gravimetry, and imaging of the wet boundary.","contrary":"Recovery uptake equals previously expelled water or comes entirely from the exterior.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0433","title":"Sponge edge squeeze return","question":"Can squeezing only a sponge edge draw water inward after release while expelling almost none during compression?","prediction":"Local pore collapse interrupts the outward path and recovery draws from the wetter interior.","test":"Use dyed water in transparent open-cell sponge, local compression, gravimetry, and imaging of the wet boundary.","contrary_outcome":"Recovery uptake equals previously expelled water or comes entirely from the exterior.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0434","id":"S6-0434","volume":"900v6","title":"Hanging drop support phase","prediction":"Opposite support phases redistribute neck strain and postpone rupture.","test":"Use low-amplitude support oscillations with high-speed neck imaging and matched bridge volume and mean length.","contrary":"Rupture thresholds depend only on maximum instantaneous support separation.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0434","title":"Hanging drop support phase","question":"Can out-of-phase vertical motion of two supports stabilize a hanging water bridge more than in-phase motion at equal acceleration?","prediction":"Opposite support phases redistribute neck strain and postpone rupture.","test":"Use low-amplitude support oscillations with high-speed neck imaging and matched bridge volume and mean length.","contrary_outcome":"Rupture thresholds depend only on maximum instantaneous support separation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0435","id":"S6-0435","volume":"900v6","title":"Water ring gap closure","prediction":"Pressure equilibration causes remote thinning before local contact-line motion.","test":"Create interrupted water rings on patterned transparent supports and measure thickness and front position around the full circumference.","contrary":"Thinning occurs only next to the gap or after end advance.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0435","title":"Water ring gap closure","question":"Can a small gap in a water ring close by drawing liquid from the opposite side before neighboring ends advance visibly?","prediction":"Pressure equilibration causes remote thinning before local contact-line motion.","test":"Create interrupted water rings on patterned transparent supports and measure thickness and front position around the full circumference.","contrary_outcome":"Thinning occurs only next to the gap or after end advance.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0436","id":"S6-0436","volume":"900v6","title":"Granular roller orientation memory","prediction":"Its orientation distribution remains anisotropic even when bulk density returns to the initial value.","test":"Use inert elongated particles with tracked orientations; compare sheared and unsheared beds at matched density.","contrary":"Compaction removes the directional signature within sampling uncertainty.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0436","title":"Granular roller orientation memory","question":"Can an elongated grain retain information about the direction of an earlier shear cycle after the bulk bed is isotropically compacted?","prediction":"Its orientation distribution remains anisotropic even when bulk density returns to the initial value.","test":"Use inert elongated particles with tracked orientations; compare sheared and unsheared beds at matched density.","contrary_outcome":"Compaction removes the directional signature within sampling uncertainty.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0437","id":"S6-0437","volume":"900v6","title":"Buried arch vent discrimination","prediction":"Pressure relaxation is slower over the enclosed cavity while optical arch shape remains unchanged.","test":"Use small transparent bead models with known supports and modest pressure pulses; classify concealed support conditions.","contrary":"Pressure traces are governed only by surface packing and cannot identify the cavity.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0437","title":"Buried arch vent discrimination","question":"Can a brief harmless air puff distinguish an empty cavity under a bead arch from a solid-supported arch without collapsing either?","prediction":"Pressure relaxation is slower over the enclosed cavity while optical arch shape remains unchanged.","test":"Use small transparent bead models with known supports and modest pressure pulses; classify concealed support conditions.","contrary_outcome":"Pressure traces are governed only by surface packing and cannot identify the cavity.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0438","id":"S6-0438","volume":"900v6","title":"Rotating drum wall seam","prediction":"Event timing locks to drum phase while the angle distribution remains nearly unchanged.","test":"Track inert beads in transparent drums with removable seams and matched wall roughness.","contrary":"Any phase locking is accompanied by a corresponding shift in mean avalanche angle.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0438","title":"Rotating drum wall seam","question":"Can a single axial wall seam synchronize avalanches in a slowly rotating bead drum without changing average avalanche angle?","prediction":"Event timing locks to drum phase while the angle distribution remains nearly unchanged.","test":"Track inert beads in transparent drums with removable seams and matched wall roughness.","contrary_outcome":"Any phase locking is accompanied by a corresponding shift in mean avalanche angle.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0438","title":"Rotating drum wall seam","question":"Can a single axial wall seam synchronize avalanches in a slowly rotating bead drum without changing average avalanche angle?","prediction":"Event timing locks to drum phase while the angle distribution remains nearly unchanged.","test":"Track inert beads in transparent drums with removable seams and matched wall roughness.","contrary_outcome":"Any phase locking is accompanied by a corresponding shift in mean avalanche angle.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0439","id":"S6-0439","volume":"900v6","title":"Sparse fiber grain bridge","prediction":"Fibers recruit only after crack opening and carry tensile load across the gap.","test":"Test small inert bead packs with sparse benign fibers under compression and controlled crack opening.","contrary":"Tensile gains require comparable changes in compression stiffness or dense fiber networks.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0439","title":"Sparse fiber grain bridge","question":"Can a few flexible fibers increase tensile cohesion across a granular crack without measurably increasing bulk compressive stiffness?","prediction":"Fibers recruit only after crack opening and carry tensile load across the gap.","test":"Test small inert bead packs with sparse benign fibers under compression and controlled crack opening.","contrary_outcome":"Tensile gains require comparable changes in compression stiffness or dense fiber networks.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0440","id":"S6-0440","volume":"900v6","title":"Segmented hopper outlet order","prediction":"Transient flow channels preserve outlet-opening history in the discharged sequence.","test":"Use colored inert bead layers and independently gated outlets with matched final aperture area and timing.","contrary":"Exit order depends only on final outlet geometry and initial depth.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0440","title":"Segmented hopper outlet order","question":"Can opening equal-area outlet segments in a different order alter which initial layers exit first?","prediction":"Transient flow channels preserve outlet-opening history in the discharged sequence.","test":"Use colored inert bead layers and independently gated outlets with matched final aperture area and timing.","contrary_outcome":"Exit order depends only on final outlet geometry and initial depth.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0441","id":"S6-0441","volume":"900v6","title":"Base ripple migration stop","prediction":"The patch disrupts bedform feedback without eliminating particle flux.","test":"Run a small water flume with inert sediment, replaceable bed patches, and measured grain trajectories.","contrary":"Ripples traverse the patch whenever mean grain transport remains nonzero.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0441","title":"Base ripple migration stop","question":"Can a short smooth patch stop traveling granular ripples while grains continue moving across it?","prediction":"The patch disrupts bedform feedback without eliminating particle flux.","test":"Run a small water flume with inert sediment, replaceable bed patches, and measured grain trajectories.","contrary_outcome":"Ripples traverse the patch whenever mean grain transport remains nonzero.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0442","id":"S6-0442","volume":"900v6","title":"Grain contact humidity cycling","prediction":"Repeated weak capillary contact renewal narrows the distribution of unstable preparations.","test":"Measure many small inert bead piles under controlled humidity histories and blinded angle extraction.","contrary":"Variance changes are accounted for by mean-angle shifts or sample preparation drift.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0442","title":"Grain contact humidity cycling","question":"Can humidity cycling reduce the variability of a bead pile's collapse angle without substantially changing its mean angle?","prediction":"Repeated weak capillary contact renewal narrows the distribution of unstable preparations.","test":"Measure many small inert bead piles under controlled humidity histories and blinded angle extraction.","contrary_outcome":"Variance changes are accounted for by mean-angle shifts or sample preparation drift.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0443","id":"S6-0443","volume":"900v6","title":"Edge restraint compaction shadow","prediction":"Stress shielding diverts rearrangements and leaves a spatial compaction shadow.","test":"Track packing fraction in a transparent disk assembly with a fixed internal strip and matched mobile-strip controls.","contrary":"Density becomes uniform or follows only the strip's excluded volume.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0443","title":"Edge restraint compaction shadow","question":"Can a narrow restrained strip create a persistent low-density region behind it during cyclic compaction?","prediction":"Stress shielding diverts rearrangements and leaves a spatial compaction shadow.","test":"Track packing fraction in a transparent disk assembly with a fixed internal strip and matched mobile-strip controls.","contrary_outcome":"Density becomes uniform or follows only the strip's excluded volume.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0444","id":"S6-0444","volume":"900v6","title":"Ellipsoid exit rotational gate","prediction":"A locally deepened pocket enables alignment at the bottleneck.","test":"Compare transparent channels with equal added volume placed near or far from the outlet; track particle rotations and flow.","contrary":"Discharge depends only on minimum aperture and total free volume.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0444","title":"Ellipsoid exit rotational gate","question":"Can permitting rotation only near an outlet increase discharge of elongated grains more than widening the upstream channel?","prediction":"A locally deepened pocket enables alignment at the bottleneck.","test":"Compare transparent channels with equal added volume placed near or far from the outlet; track particle rotations and flow.","contrary_outcome":"Discharge depends only on minimum aperture and total free volume.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0445","id":"S6-0445","volume":"900v6","title":"Wet grain bridge persistence","prediction":"Rolling preserves a contact-line attachment path that postpones bridge rupture.","test":"Move two smooth inert spheres through prescribed rolling and normal trajectories while imaging bridge geometry.","contrary":"Rupture occurs at the same distance and volume regardless of trajectory.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0445","title":"Wet grain bridge persistence","question":"Can a capillary bridge survive rolling separation farther than direct normal separation at matched center distance history?","prediction":"Rolling preserves a contact-line attachment path that postpones bridge rupture.","test":"Move two smooth inert spheres through prescribed rolling and normal trajectories while imaging bridge geometry.","contrary_outcome":"Rupture occurs at the same distance and volume regardless of trajectory.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0446","id":"S6-0446","volume":"900v6","title":"Particle bed tapping reversal","prediction":"Early strong taps create migration paths that later weak taps preserve.","test":"Use benign bidisperse beads, measured tap accelerations, and image-based vertical composition profiles.","contrary":"Final segregation is determined only by cumulative impulse or final packing density.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0446","title":"Particle bed tapping reversal","question":"Can reversing the sequence of weak and strong taps produce different final stratification at equal total impulse?","prediction":"Early strong taps create migration paths that later weak taps preserve.","test":"Use benign bidisperse beads, measured tap accelerations, and image-based vertical composition profiles.","contrary_outcome":"Final segregation is determined only by cumulative impulse or final packing density.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0447","id":"S6-0447","volume":"900v6","title":"Retaining wall gap warning","prediction":"Contact-force fluctuations rise near the gap while mean load and packing remain nearly constant.","test":"Use a shallow transparent bead bed with wall force sensors and independently controlled gap width.","contrary":"Grain escape begins without a preceding reproducible fluctuation change.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0447","title":"Retaining wall gap warning","question":"Can a small wall gap predict local granular failure through increased force intermittency before visible grain escape?","prediction":"Contact-force fluctuations rise near the gap while mean load and packing remain nearly constant.","test":"Use a shallow transparent bead bed with wall force sensors and independently controlled gap width.","contrary_outcome":"Grain escape begins without a preceding reproducible fluctuation change.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0448","id":"S6-0448","volume":"900v6","title":"Pinned bead wake release","prediction":"A localized force chain unloads into a downstream rearrangement cascade.","test":"Track photoelastic disks with one retractable pin and synchronized contact-force imaging.","contrary":"Rearrangements always begin upstream or are explained by direct pin displacement.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0448","title":"Pinned bead wake release","question":"Can removing one pinned bead in a slow dense flow release a downstream cluster before neighboring upstream grains move?","prediction":"A localized force chain unloads into a downstream rearrangement cascade.","test":"Track photoelastic disks with one retractable pin and synchronized contact-force imaging.","contrary_outcome":"Rearrangements always begin upstream or are explained by direct pin displacement.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0449","id":"S6-0449","volume":"900v6","title":"Grain raft curvature sorting","prediction":"Out-of-plane bending rotates long axes toward the direction of lower curvature.","test":"Image inert floating rods on a slowly deformed interface and reconstruct their positions and orientations.","contrary":"Orientation changes require substantial particle translation or follow imposed flow only.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0449","title":"Grain raft curvature sorting","question":"Can gentle curvature of a floating particle raft sort elongated particles by orientation without changing their centers substantially?","prediction":"Out-of-plane bending rotates long axes toward the direction of lower curvature.","test":"Image inert floating rods on a slowly deformed interface and reconstruct their positions and orientations.","contrary_outcome":"Orientation changes require substantial particle translation or follow imposed flow only.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0449","title":"Grain raft curvature sorting","question":"Can gentle curvature of a floating particle raft sort elongated particles by orientation without changing their centers substantially?","prediction":"Out-of-plane bending rotates long axes toward the direction of lower curvature.","test":"Image inert floating rods on a slowly deformed interface and reconstruct their positions and orientations.","contrary_outcome":"Orientation changes require substantial particle translation or follow imposed flow only.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0450","id":"S6-0450","volume":"900v6","title":"Shallow bed pressure echo","prediction":"The reflected transient changes arrival time with independently measured boundary position.","test":"Use low-pressure air pulses through enclosed inert grain columns and multiple pressure sensors; include uniform-density controls.","contrary":"Reflections are dominated by tube ends and cannot resolve the internal interface.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0450","title":"Shallow bed pressure echo","question":"Can a pressure pulse reflect from the boundary between loose and dense grains strongly enough to locate that boundary without mean flow?","prediction":"The reflected transient changes arrival time with independently measured boundary position.","test":"Use low-pressure air pulses through enclosed inert grain columns and multiple pressure sensors; include uniform-density controls.","contrary_outcome":"Reflections are dominated by tube ends and cannot resolve the internal interface.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0451","id":"S6-0451","volume":"900v6","title":"Thermal contact vent timing","prediction":"Gas removal during contraction increases real contact area on subsequent heating.","test":"Use modestly heated clamped plates with synchronized venting, contact-pressure maps, and sealed timing controls.","contrary":"Thermal resistance is independent of vent timing after mean pressure is matched.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0451","title":"Thermal contact vent timing","question":"Can opening a contact's peripheral air vent only during cooling reduce cycle-averaged thermal resistance?","prediction":"Gas removal during contraction increases real contact area on subsequent heating.","test":"Use modestly heated clamped plates with synchronized venting, contact-pressure maps, and sealed timing controls.","contrary_outcome":"Thermal resistance is independent of vent timing after mean pressure is matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0452","id":"S6-0452","volume":"900v6","title":"Double wall radiation shadow","prediction":"Shield position redistributes radiative exchange between walls without much changing integrated flux.","test":"Use mildly warm enclosures with controlled emissivity, wall thermometry, and total calorimetry.","contrary":"Wall cooling order is determined solely by conductive supports and exposed area.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0452","title":"Double wall radiation shadow","question":"Can sliding an internal radiation shield change which exterior wall cools first despite nearly unchanged total enclosure heat loss?","prediction":"Shield position redistributes radiative exchange between walls without much changing integrated flux.","test":"Use mildly warm enclosures with controlled emissivity, wall thermometry, and total calorimetry.","contrary_outcome":"Wall cooling order is determined solely by conductive supports and exposed area.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0453","id":"S6-0453","volume":"900v6","title":"Thermal strip lateral release","prediction":"Constraint release leaves a redistributed frictional stress state with residual twist.","test":"Measure low-temperature strip geometry and support forces with fully frictionless and fully clamped controls.","contrary":"Twist disappears on temperature recovery or requires permanent material damage.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0453","title":"Thermal strip lateral release","question":"Can releasing one lateral constraint on a warm strip produce cooling-induced twist that persists after the strip returns to ambient temperature?","prediction":"Constraint release leaves a redistributed frictional stress state with residual twist.","test":"Measure low-temperature strip geometry and support forces with fully frictionless and fully clamped controls.","contrary_outcome":"Twist disappears on temperature recovery or requires permanent material damage.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0454","id":"S6-0454","volume":"900v6","title":"Heated pore condensation refuge","prediction":"Vapor transport and capillary retention locally replenish the warmer pocket despite higher evaporation tendency.","test":"Image water occupancy and temperature in connected pores while closing the vapor path in controls.","contrary":"The warmed pocket always dries first after local heat input is accounted for.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0454","title":"Heated pore condensation refuge","question":"Can a locally warmed porous surface retain a wet pocket longer than an adjacent cooler pocket by drawing vapor from elsewhere?","prediction":"Vapor transport and capillary retention locally replenish the warmer pocket despite higher evaporation tendency.","test":"Image water occupancy and temperature in connected pores while closing the vapor path in controls.","contrary_outcome":"The warmed pocket always dries first after local heat input is accounted for.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0455","id":"S6-0455","volume":"900v6","title":"Thermal sensor adhesive drift","prediction":"Adhesive relaxation changes interface thickness and transient thermal resistance.","test":"Apply mild temperature steps to identical sensors under controlled clamping histories; compare independent optical thermometry.","contrary":"Time constants are history-independent after final pressure and temperature are matched.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0455","title":"Thermal sensor adhesive drift","question":"Can the order of heating and clamping change a bonded sensor's apparent time constant without changing its steady reading?","prediction":"Adhesive relaxation changes interface thickness and transient thermal resistance.","test":"Apply mild temperature steps to identical sensors under controlled clamping histories; compare independent optical thermometry.","contrary_outcome":"Time constants are history-independent after final pressure and temperature are matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0456","id":"S6-0456","volume":"900v6","title":"Convection cell lid hinge","prediction":"The opening selects one persistent circulation orientation above a finite heat-input threshold.","test":"Use low-power heating and tracer airflow imaging; alternate opening sides and run sealed controls.","contrary":"Circulation direction remains random or follows uncontrolled room drafts.","layers":[1],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0456","title":"Convection cell lid hinge","question":"Can a narrow lid opening determine the circulation direction in an otherwise symmetric shallow warm-air cell?","prediction":"The opening selects one persistent circulation orientation above a finite heat-input threshold.","test":"Use low-power heating and tracer airflow imaging; alternate opening sides and run sealed controls.","contrary_outcome":"Circulation direction remains random or follows uncontrolled room drafts.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0457","id":"S6-0457","volume":"900v6","title":"Ice melt support release","prediction":"Loss of a conductive path changes the heat budget and delays local thinning.","test":"Measure bridge geometry, support heat flux, and ambient conditions with matched-area insulating-support controls.","contrary":"Melting-rate changes are explained entirely by exposed surface area.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0457","title":"Ice melt support release","question":"Can withdrawing one support change the melting rate of a small ice bridge more than its exposed-area change predicts?","prediction":"Loss of a conductive path changes the heat budget and delays local thinning.","test":"Measure bridge geometry, support heat flux, and ambient conditions with matched-area insulating-support controls.","contrary_outcome":"Melting-rate changes are explained entirely by exposed surface area.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0458","id":"S6-0458","volume":"900v6","title":"Thermal ribbon self shading","prediction":"Curling changes absorbed power enough to sustain a bounded shape-temperature oscillation.","test":"Use a low-intensity lamp, calibrated ribbon absorption, and synchronized temperature-shape records; compare diffuse illumination.","contrary":"The ribbon reaches a static shape or oscillations follow lamp fluctuations.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0458","title":"Thermal ribbon self shading","question":"Can a thermally curling ribbon settle into alternating light-exposed and shaded states under constant gentle illumination?","prediction":"Curling changes absorbed power enough to sustain a bounded shape-temperature oscillation.","test":"Use a low-intensity lamp, calibrated ribbon absorption, and synchronized temperature-shape records; compare diffuse illumination.","contrary_outcome":"The ribbon reaches a static shape or oscillations follow lamp fluctuations.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0458","title":"Thermal ribbon self shading","question":"Can a thermally curling ribbon settle into alternating light-exposed and shaded states under constant gentle illumination?","prediction":"Curling changes absorbed power enough to sustain a bounded shape-temperature oscillation.","test":"Use a low-intensity lamp, calibrated ribbon absorption, and synchronized temperature-shape records; compare diffuse illumination.","contrary_outcome":"The ribbon reaches a static shape or oscillations follow lamp fluctuations.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0459","id":"S6-0459","volume":"900v6","title":"Thermal mass bypass pulse","prediction":"The pulse changes internal temperature gradients and increases subsequent outward heat flux.","test":"Measure internal and surface temperatures in a benign solid with matched-energy gradual-cooling controls.","contrary":"Later cooling follows mean temperature alone without a gradient-history effect.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0459","title":"Thermal mass bypass pulse","question":"Can briefly coupling a warm object to a colder small mass accelerate its later cooling even after the small mass is removed?","prediction":"The pulse changes internal temperature gradients and increases subsequent outward heat flux.","test":"Measure internal and surface temperatures in a benign solid with matched-energy gradual-cooling controls.","contrary_outcome":"Later cooling follows mean temperature alone without a gradient-history effect.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0460","id":"S6-0460","volume":"900v6","title":"Porous roof heat inversion","prediction":"Air-filled pores delay heat penetration enough to outweigh early evaporation cooling.","test":"Compare matched wet and dry porous roofs under modest heat pulses with full moisture and temperature records.","contrary":"The wet roof remains cooler at all times after emissivity correction.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0460","title":"Porous roof heat inversion","question":"Can a dry porous roof become cooler underneath than a wet roof during an initial heating pulse despite lower evaporative loss?","prediction":"Air-filled pores delay heat penetration enough to outweigh early evaporation cooling.","test":"Compare matched wet and dry porous roofs under modest heat pulses with full moisture and temperature records.","contrary_outcome":"The wet roof remains cooler at all times after emissivity correction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0461","id":"S6-0461","volume":"900v6","title":"Cooling bead contact chronology","prediction":"Early equilibration changes the gradients available during later contacts.","test":"Use sensor-equipped metal spheres at safe temperatures; compare reversed contact sequences and calibrated conductances.","contrary":"Final temperature distributions are invariant to contact order within uncertainty.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0461","title":"Cooling bead contact chronology","question":"Can the order of contacts between three warm beads alter their final temperature spread at equal total pairwise contact duration?","prediction":"Early equilibration changes the gradients available during later contacts.","test":"Use sensor-equipped metal spheres at safe temperatures; compare reversed contact sequences and calibrated conductances.","contrary_outcome":"Final temperature distributions are invariant to contact order within uncertainty.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0462","id":"S6-0462","volume":"900v6","title":"Thermal hinge airflow throttle","prediction":"Vent opening increases heat removal over a temperature interval where supplied power continues rising.","test":"Use a low-power warm enclosure with measured hinge angle, airflow, and heat input; compare locked vent positions.","contrary":"The apparent plateau is explained by changing heater power or room temperature.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0462","title":"Thermal hinge airflow throttle","question":"Can a passively bending hinge hold an enclosure near a temperature plateau by partially opening a vent?","prediction":"Vent opening increases heat removal over a temperature interval where supplied power continues rising.","test":"Use a low-power warm enclosure with measured hinge angle, airflow, and heat input; compare locked vent positions.","contrary_outcome":"The apparent plateau is explained by changing heater power or room temperature.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0463","id":"S6-0463","volume":"900v6","title":"Water reservoir night reversal","prediction":"Different thermal time constants create a measurable interval with opposing local fluxes.","test":"Apply controlled modest cooling to a coupled plate-reservoir system and measure both interface heat fluxes.","contrary":"Fluxes always reverse together once sensor delay is corrected.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0463","title":"Water reservoir night reversal","question":"Can a thin insulated surface reverse its heat-flow direction earlier than an attached water reservoir after external cooling begins?","prediction":"Different thermal time constants create a measurable interval with opposing local fluxes.","test":"Apply controlled modest cooling to a coupled plate-reservoir system and measure both interface heat fluxes.","contrary_outcome":"Fluxes always reverse together once sensor delay is corrected.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0464","id":"S6-0464","volume":"900v6","title":"Thermal pore neck asymmetry","prediction":"Temperature-dependent convection inside the pore produces directional flux asymmetry over a defined orientation range.","test":"Use large transparent air-pore models at safe temperature differences; compare reversed gradients and inverted gravity.","contrary":"Flux magnitude is unchanged on reversal or asymmetry follows sensor offsets.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0464","title":"Thermal pore neck asymmetry","question":"Can reversing a temperature gradient across an asymmetric air pore change heat flux at matched endpoint temperatures?","prediction":"Temperature-dependent convection inside the pore produces directional flux asymmetry over a defined orientation range.","test":"Use large transparent air-pore models at safe temperature differences; compare reversed gradients and inverted gravity.","contrary_outcome":"Flux magnitude is unchanged on reversal or asymmetry follows sensor offsets.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0465","id":"S6-0465","volume":"900v6","title":"Frozen film crack warming","prediction":"Localized melt redistribution bridges cracks before substantial grain-boundary motion.","test":"Image thin water-ice films during controlled warming with independently measured thickness and transmitted-light grain maps.","contrary":"Crack closure occurs only alongside broad melting or major grain-pattern change.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0465","title":"Frozen film crack warming","question":"Can a brief mild warming pulse close small cracks in an ice film without erasing its larger-scale grain pattern?","prediction":"Localized melt redistribution bridges cracks before substantial grain-boundary motion.","test":"Image thin water-ice films during controlled warming with independently measured thickness and transmitted-light grain maps.","contrary_outcome":"Crack closure occurs only alongside broad melting or major grain-pattern change.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0466","id":"S6-0466","volume":"900v6","title":"Acoustic hinge oil redistribution","prediction":"Frequency-dependent damping shifts before quasistatic hinge torque changes measurably.","test":"Apply a tiny water-compatible lubricant volume to a tabletop hinge; measure spectra, torque, and visible film coverage.","contrary":"Spectral changes occur only after friction or temperature changes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0466","title":"Acoustic hinge oil redistribution","question":"Can low-amplitude hinge vibration reveal redistribution of a benign lubricant before its mean friction changes?","prediction":"Frequency-dependent damping shifts before quasistatic hinge torque changes measurably.","test":"Apply a tiny water-compatible lubricant volume to a tabletop hinge; measure spectra, torque, and visible film coverage.","contrary_outcome":"Spectral changes occur only after friction or temperature changes.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0467","id":"S6-0467","volume":"900v6","title":"Staggered cavity mode exchange","prediction":"Mode shapes exchange localization near a coupling transition while the tracked frequency varies little.","test":"Use quiet speaker excitation, movable partitions, and multiple microphones with leakage controls.","contrary":"Antinode exchange always requires a large frequency change or mode misidentification.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0467","title":"Staggered cavity mode exchange","question":"Can moving a partition between two coupled air cavities swap the locations of their dominant pressure antinodes without a large resonance shift?","prediction":"Mode shapes exchange localization near a coupling transition while the tracked frequency varies little.","test":"Use quiet speaker excitation, movable partitions, and multiple microphones with leakage controls.","contrary_outcome":"Antinode exchange always requires a large frequency change or mode misidentification.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0468","id":"S6-0468","volume":"900v6","title":"Waterlogged wood tap recovery","prediction":"The ratio retains sensitivity to moisture while rejecting modest clamp-force variations.","test":"Measure small wood samples over gravimetrically verified drying and deliberately varied supports; test withheld specimens.","contrary":"The ratio is no more transferable across supports than either individual decay time.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0468","title":"Waterlogged wood tap recovery","question":"Can the ratio of two tap-response decay times track drying in a wood strip more robustly than either decay time alone?","prediction":"The ratio retains sensitivity to moisture while rejecting modest clamp-force variations.","test":"Measure small wood samples over gravimetrically verified drying and deliberately varied supports; test withheld specimens.","contrary_outcome":"The ratio is no more transferable across supports than either individual decay time.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0469","id":"S6-0469","volume":"900v6","title":"String bridge contact order","prediction":"Nonlinear mode coupling preserves a short-lived order-dependent energy distribution.","test":"Use a low-energy string oscillator with controlled soft contacts and full-spectrum recordings.","contrary":"Postrelease spectra depend only on contact durations and total removed energy.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0469","title":"String bridge contact order","question":"Can touching a vibrating string at two points in opposite orders leave different sustained vibration patterns after both contacts are removed?","prediction":"Nonlinear mode coupling preserves a short-lived order-dependent energy distribution.","test":"Use a low-energy string oscillator with controlled soft contacts and full-spectrum recordings.","contrary_outcome":"Postrelease spectra depend only on contact durations and total removed energy.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0469","title":"String bridge contact order","question":"Can touching a vibrating string at two points in opposite orders leave different sustained vibration patterns after both contacts are removed?","prediction":"Nonlinear mode coupling preserves a short-lived order-dependent energy distribution.","test":"Use a low-energy string oscillator with controlled soft contacts and full-spectrum recordings.","contrary_outcome":"Postrelease spectra depend only on contact durations and total removed energy.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0470","id":"S6-0470","volume":"900v6","title":"Porous baffle acoustic wake","prediction":"Bend-generated velocity structure changes dissipation in the baffle.","test":"Measure low-level acoustic transmission, mean airflow, and baffle pressure drop in interchangeable duct sections.","contrary":"Position effects disappear after accounting for standing-wave nodes and pressure drop.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0470","title":"Porous baffle acoustic wake","question":"Can a porous baffle reduce transmitted sound more when placed just behind a duct bend than at an equal straight-duct distance?","prediction":"Bend-generated velocity structure changes dissipation in the baffle.","test":"Measure low-level acoustic transmission, mean airflow, and baffle pressure drop in interchangeable duct sections.","contrary_outcome":"Position effects disappear after accounting for standing-wave nodes and pressure drop.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0471","id":"S6-0471","volume":"900v6","title":"Membrane liquid island splitting","prediction":"Load placement redistributes modal participation rather than only shifting all frequencies.","test":"Map low-amplitude membrane motion with controlled water island positions and bonded-mass comparisons.","contrary":"Responses depend only on total added mass and mean load radius.","layers":[1],"categories":["biology","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0471","title":"Membrane liquid island splitting","question":"Can dividing one water load into two equal islands suppress one membrane mode while enhancing a neighboring mode at fixed total mass?","prediction":"Load placement redistributes modal participation rather than only shifting all frequencies.","test":"Map low-amplitude membrane motion with controlled water island positions and bonded-mass comparisons.","contrary_outcome":"Responses depend only on total added mass and mean load radius.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0472","id":"S6-0472","volume":"900v6","title":"Acoustic seam tension map","prediction":"The stitch produces a localized decay anomaly that predicts independently measured thread tension.","test":"Use sewn benign fabric panels, low-pressure pulses, and blinded stitch-tension labels.","contrary":"Decay anomalies track fabric thickness or seam geometry rather than stitch tension.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0472","title":"Acoustic seam tension map","question":"Can scanning gentle air pulses along a fabric seam identify a locally over-tensioned stitch through its vibration decay?","prediction":"The stitch produces a localized decay anomaly that predicts independently measured thread tension.","test":"Use sewn benign fabric panels, low-pressure pulses, and blinded stitch-tension labels.","contrary_outcome":"Decay anomalies track fabric thickness or seam geometry rather than stitch tension.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0473","id":"S6-0473","volume":"900v6","title":"Beam stop recovery chirp","prediction":"Stop recovery modulates the early chirp according to the prior contact deformation.","test":"Use a small guarded beam with optical motion tracking and independently measured stop indentation.","contrary":"The chirp depends only on release velocity and free-beam frequency.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0473","title":"Beam stop recovery chirp","question":"Can the instantaneous frequency after a beam leaves a soft stop identify its maximum prior indentation?","prediction":"Stop recovery modulates the early chirp according to the prior contact deformation.","test":"Use a small guarded beam with optical motion tracking and independently measured stop indentation.","contrary_outcome":"The chirp depends only on release velocity and free-beam frequency.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0474","id":"S6-0474","volume":"900v6","title":"Coupled cavity humidity decoupling","prediction":"Humidity-sensitive damping changes differently in the cavities while temperature shifts remain common-mode.","test":"Measure low-level sound in matched-volume cavities with different inert lining areas and calibrated temperature-humidity histories.","contrary":"Differential signals cannot separate humidity from temperature on held-out histories.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0474","title":"Coupled cavity humidity decoupling","question":"Can differential acoustic measurements in two cavities distinguish humidity changes from common temperature drift?","prediction":"Humidity-sensitive damping changes differently in the cavities while temperature shifts remain common-mode.","test":"Measure low-level sound in matched-volume cavities with different inert lining areas and calibrated temperature-humidity histories.","contrary_outcome":"Differential signals cannot separate humidity from temperature on held-out histories.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0475","id":"S6-0475","volume":"900v6","title":"Rolling contact vibration polarity","prediction":"A repeatable bipolar signature survives changes in rolling speed after time normalization.","test":"Roll a small instrumented wheel over calibrated benign dents and bumps; validate blinded defect classification.","contrary":"Signature polarity changes unpredictably with speed or bearing noise.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0475","title":"Rolling contact vibration polarity","question":"Can the sign of a transient angular acceleration distinguish entry into and exit from a shallow surface dent more reliably than vibration amplitude?","prediction":"A repeatable bipolar signature survives changes in rolling speed after time normalization.","test":"Roll a small instrumented wheel over calibrated benign dents and bumps; validate blinded defect classification.","contrary_outcome":"Signature polarity changes unpredictably with speed or bearing noise.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0476","id":"S6-0476","volume":"900v6","title":"Acoustic bubble pair separation","prediction":"Coupled bubble resonances create a spectral feature absent from the single-bubble control.","test":"Use low-intensity sound and water cells with independently verified bubble configurations; compare held-out total volumes.","contrary":"Spectra are explained entirely by total gas volume and cell resonance.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0476","title":"Acoustic bubble pair separation","question":"Can a weak acoustic sweep distinguish two nearby air bubbles from one equal-volume bubble when static images cannot resolve them?","prediction":"Coupled bubble resonances create a spectral feature absent from the single-bubble control.","test":"Use low-intensity sound and water cells with independently verified bubble configurations; compare held-out total volumes.","contrary_outcome":"Spectra are explained entirely by total gas volume and cell resonance.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0477","id":"S6-0477","volume":"900v6","title":"Membrane clamp release front","prediction":"Release timing reinforces edge motion while suppressing a central mode.","test":"Measure low-amplitude membrane velocity fields during controlled clamp releases and compare simultaneous release at matched stored energy.","contrary":"Energy distribution is independent of release sequence after total energy is matched.","layers":[1],"categories":["physical","energy","biology","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0477","title":"Membrane clamp release front","question":"Can sequential clamp release direct an acoustic wave packet along a membrane edge rather than across its center?","prediction":"Release timing reinforces edge motion while suppressing a central mode.","test":"Measure low-amplitude membrane velocity fields during controlled clamp releases and compare simultaneous release at matched stored energy.","contrary_outcome":"Energy distribution is independent of release sequence after total energy is matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0478","id":"S6-0478","volume":"900v6","title":"Rattle contact occupancy","prediction":"Long quiet intervals correlate with independently imaged wall-contact occupancy.","test":"Use small inert objects, low-amplitude controlled shaking, microphones, and transparent-wall video with blinded occupancy estimation.","contrary":"Quiet intervals reflect sensor threshold rather than contact occupancy.","layers":[1,2],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0478","title":"Rattle contact occupancy","question":"Can the distribution of quiet intervals in a lightly shaken container estimate how often an internal object remains in sustained wall contact?","prediction":"Long quiet intervals correlate with independently imaged wall-contact occupancy.","test":"Use small inert objects, low-amplitude controlled shaking, microphones, and transparent-wall video with blinded occupancy estimation.","contrary_outcome":"Quiet intervals reflect sensor threshold rather than contact occupancy.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0478","title":"Rattle contact occupancy","question":"Can the distribution of quiet intervals in a lightly shaken container estimate how often an internal object remains in sustained wall contact?","prediction":"Long quiet intervals correlate with independently imaged wall-contact occupancy.","test":"Use small inert objects, low-amplitude controlled shaking, microphones, and transparent-wall video with blinded occupancy estimation.","contrary_outcome":"Quiet intervals reflect sensor threshold rather than contact occupancy.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0479","id":"S6-0479","volume":"900v6","title":"Acoustic vent surface wetting","prediction":"Thin water bridges increase resistive loss while leaving the mean cavity resonance nearly fixed.","test":"Measure low-level cavity impulse responses during controlled mesh wetting and drying with microscopic area measurements.","contrary":"Decay changes require macroscopic aperture blockage or follow temperature drift.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0479","title":"Acoustic vent surface wetting","question":"Can a wet vent mesh change a cavity's acoustic decay before its open area changes visibly?","prediction":"Thin water bridges increase resistive loss while leaving the mean cavity resonance nearly fixed.","test":"Measure low-level cavity impulse responses during controlled mesh wetting and drying with microscopic area measurements.","contrary_outcome":"Decay changes require macroscopic aperture blockage or follow temperature drift.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0480","id":"S6-0480","volume":"900v6","title":"Taut fabric crossing pulse","prediction":"A crossing-specific delay remains after individual band wave speeds are matched.","test":"Send gentle mechanical pulses through woven strip crossings with measured tension and independent joint-strength tests.","contrary":"All delays are predicted by band tension and path length alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0480","title":"Taut fabric crossing pulse","question":"Can pulse timing across two intersecting fabric tension bands distinguish a weak crossing from uniformly low tension?","prediction":"A crossing-specific delay remains after individual band wave speeds are matched.","test":"Send gentle mechanical pulses through woven strip crossings with measured tension and independent joint-strength tests.","contrary_outcome":"All delays are predicted by band tension and path length alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0481","id":"S6-0481","volume":"900v6","title":"Transparent wedge pressure fringes","prediction":"Pressure changes fringe curvature while warming primarily shifts the whole pattern.","test":"Image a low-pressure water wedge under independently controlled pressure and temperature steps; test blinded mixed perturbations.","contrary":"Both perturbations produce indistinguishable fringe fields at the declared resolution.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0481","title":"Transparent wedge pressure fringes","question":"Can fringe motion in a thin transparent wedge distinguish a pressure pulse from uniform warming?","prediction":"Pressure changes fringe curvature while warming primarily shifts the whole pattern.","test":"Image a low-pressure water wedge under independently controlled pressure and temperature steps; test blinded mixed perturbations.","contrary_outcome":"Both perturbations produce indistinguishable fringe fields at the declared resolution.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0482","id":"S6-0482","volume":"900v6","title":"Two color turbidity settling","prediction":"Settling changes the ratio as size fractions separate whereas uniform dilution preserves it.","test":"Measure calibrated inert-particle mixtures during settling and controlled dilution with independent particle sizing.","contrary":"The ratio tracks concentration alone and cannot distinguish the histories.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0482","title":"Two color turbidity settling","question":"Can the ratio of two transmitted wavelengths separate particle settling from dilution in a benign suspension?","prediction":"Settling changes the ratio as size fractions separate whereas uniform dilution preserves it.","test":"Measure calibrated inert-particle mixtures during settling and controlled dilution with independent particle sizing.","contrary_outcome":"The ratio tracks concentration alone and cannot distinguish the histories.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0483","id":"S6-0483","volume":"900v6","title":"Reflective seam opening timing","prediction":"A bright edge appears before the projected gap exceeds normal-view resolution.","test":"Peel paper-polymer coupons slowly with synchronized grazing and normal cameras; calibrate both detection thresholds.","contrary":"Grazing illumination offers no lead after matching detection uncertainty.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0483","title":"Reflective seam opening timing","question":"Can grazing illumination detect the first opening of a laminated seam earlier than a normal camera view?","prediction":"A bright edge appears before the projected gap exceeds normal-view resolution.","test":"Peel paper-polymer coupons slowly with synchronized grazing and normal cameras; calibrate both detection thresholds.","contrary_outcome":"Grazing illumination offers no lead after matching detection uncertainty.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0484","id":"S6-0484","volume":"900v6","title":"Optical rib shadow porosity","prediction":"Temporal brightness correlations vary with independently measured connected pore direction.","test":"Scan soft illumination across benign sponge samples; compare intact, surface-textured, and internally blocked controls.","contrary":"Correlations are explained entirely by surface topography.","layers":[1],"categories":["physical","biology","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0484","title":"Optical rib shadow porosity","question":"Can a moving shadow across an open-cell sponge recover directional pore connectivity rather than only surface roughness?","prediction":"Temporal brightness correlations vary with independently measured connected pore direction.","test":"Scan soft illumination across benign sponge samples; compare intact, surface-textured, and internally blocked controls.","contrary_outcome":"Correlations are explained entirely by surface topography.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0485","id":"S6-0485","volume":"900v6","title":"Curved mirror droplet displacement","prediction":"A differential image coordinate is more sensitive to position than volume over a calibrated range.","test":"Translate and resize water droplets above curved and flat mirrors with independent microscope measurements.","contrary":"Position and volume sensitivities remain inseparable after calibration.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0485","title":"Curved mirror droplet displacement","question":"Can a curved reflective backing amplify droplet position shifts without amplifying volume-induced image changes equally?","prediction":"A differential image coordinate is more sensitive to position than volume over a calibrated range.","test":"Translate and resize water droplets above curved and flat mirrors with independent microscope measurements.","contrary_outcome":"Position and volume sensitivities remain inseparable after calibration.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0486","id":"S6-0486","volume":"900v6","title":"Laser-free film vibration mapping","prediction":"Grid distortion provides phase estimates agreeing with an independent displacement probe.","test":"Use low-intensity projection, a camera, and a gently driven clear film; validate withheld frequencies and amplitudes.","contrary":"Recovered phase follows illumination flicker or fails independent displacement comparison.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0486","title":"Laser-free film vibration mapping","question":"Can an ordinary projected grid recover the phase of a transparent film's low-frequency vibration without attached markers?","prediction":"Grid distortion provides phase estimates agreeing with an independent displacement probe.","test":"Use low-intensity projection, a camera, and a gently driven clear film; validate withheld frequencies and amplitudes.","contrary_outcome":"Recovered phase follows illumination flicker or fails independent displacement comparison.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0487","id":"S6-0487","volume":"900v6","title":"Optical contact patch aging","prediction":"Aging fills existing patches while increased force creates a different patch-size distribution.","test":"Image benign transparent elastomer contacts through a prism under independently varied load and dwell time.","contrary":"Patch distributions depend only on total real contact area.","layers":[1,2,3],"categories":["physical"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0487","title":"Optical contact patch aging","question":"Can the spatial growth of real contact area distinguish contact aging from increasing normal force at equal final area?","prediction":"Aging fills existing patches while increased force creates a different patch-size distribution.","test":"Image benign transparent elastomer contacts through a prism under independently varied load and dwell time.","contrary_outcome":"Patch distributions depend only on total real contact area.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0487","title":"Optical contact patch aging","question":"Can the spatial growth of real contact area distinguish contact aging from increasing normal force at equal final area?","prediction":"Aging fills existing patches while increased force creates a different patch-size distribution.","test":"Image benign transparent elastomer contacts through a prism under independently varied load and dwell time.","contrary_outcome":"Patch distributions depend only on total real contact area.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":{"id":"S6-0487","title":"Optical contact patch aging","question":"Can the spatial growth of real contact area distinguish contact aging from increasing normal force at equal final area?","prediction":"Aging fills existing patches while increased force creates a different patch-size distribution.","test":"Image benign transparent elastomer contacts through a prism under independently varied load and dwell time.","contrary_outcome":"Patch distributions depend only on total real contact area.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0488","id":"S6-0488","volume":"900v6","title":"Polarized frost orientation gradient","prediction":"Contrast orientation rotates systematically with independently resolved crystal alignment.","test":"Grow small water-frost films in a controlled cold cell; compare polarized images with microscope orientation labels.","contrary":"Contrast follows thickness rather than crystal orientation.","layers":[1],"categories":["biology","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0488","title":"Polarized frost orientation gradient","question":"Can polarization contrast identify an orientation gradient in frost that is invisible in total brightness?","prediction":"Contrast orientation rotates systematically with independently resolved crystal alignment.","test":"Grow small water-frost films in a controlled cold cell; compare polarized images with microscope orientation labels.","contrary_outcome":"Contrast follows thickness rather than crystal orientation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0489","id":"S6-0489","volume":"900v6","title":"Camera shutter flow ambiguity","prediction":"Moving particles produce exposure-dependent anisotropy that static blur lacks.","test":"Image inert tracers at independently measured speeds using matched light dose and calibrated static diffusers.","contrary":"The exposure response cannot discriminate motion after signal-to-noise is matched.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0489","title":"Camera shutter flow ambiguity","question":"Can changing exposure time distinguish slow particle drift from stationary spatial blur in a turbid water cell?","prediction":"Moving particles produce exposure-dependent anisotropy that static blur lacks.","test":"Image inert tracers at independently measured speeds using matched light dose and calibrated static diffusers.","contrary_outcome":"The exposure response cannot discriminate motion after signal-to-noise is matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0490","id":"S6-0490","volume":"900v6","title":"Backlit bubble neck rupture","prediction":"Joint silhouettes reduce held-out area error before detachment.","test":"Compare paired low-cost cameras with independent high-resolution reference images across bubble shapes.","contrary":"Two-view reconstruction offers no improvement at matched total pixel count.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0490","title":"Backlit bubble neck rupture","question":"Can a two-view silhouette estimate the minimum neck area of an asymmetric bubble more reliably than one view?","prediction":"Joint silhouettes reduce held-out area error before detachment.","test":"Compare paired low-cost cameras with independent high-resolution reference images across bubble shapes.","contrary_outcome":"Two-view reconstruction offers no improvement at matched total pixel count.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0491","id":"S6-0491","volume":"900v6","title":"Oblique grid gel swelling","prediction":"Two viewing angles provide independent constraints on thickness and refractive index.","test":"Hydrate benign clear gels with caliper and refractometer reference measurements; validate mixed temperature-moisture histories.","contrary":"The inferred parameters remain degenerate within measurement uncertainty.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0491","title":"Oblique grid gel swelling","question":"Can the apparent motion of a submerged oblique grid separate gel thickness growth from refractive-index change?","prediction":"Two viewing angles provide independent constraints on thickness and refractive index.","test":"Hydrate benign clear gels with caliper and refractometer reference measurements; validate mixed temperature-moisture histories.","contrary_outcome":"The inferred parameters remain degenerate within measurement uncertainty.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0492","id":"S6-0492","volume":"900v6","title":"Reflectance dry spot topology","prediction":"A topology-sensitive statistic changes before the mean exceeds its detection threshold.","test":"Dry benign paper under controlled conditions; compare reflectance maps with independent moisture microscopy.","contrary":"The statistic responds only when mean reflectance already resolves drying.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0492","title":"Reflectance dry spot topology","question":"Can spatial reflectance correlations identify isolated dry islands before average reflectance detects drying in a porous sheet?","prediction":"A topology-sensitive statistic changes before the mean exceeds its detection threshold.","test":"Dry benign paper under controlled conditions; compare reflectance maps with independent moisture microscopy.","contrary_outcome":"The statistic responds only when mean reflectance already resolves drying.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0493","id":"S6-0493","volume":"900v6","title":"Shadow crossing hinge angle","prediction":"A translation-invariant shadow separation recovers angle across withheld positions.","test":"Use low-intensity lamps and calibrated paper hinges; compare estimates against independent geometric measurements.","contrary":"Angle error grows with translation as much as in a single-shadow method.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0493","title":"Shadow crossing hinge angle","question":"Can two shadows from differently placed lamps estimate a folding hinge angle despite unknown sheet translation?","prediction":"A translation-invariant shadow separation recovers angle across withheld positions.","test":"Use low-intensity lamps and calibrated paper hinges; compare estimates against independent geometric measurements.","contrary_outcome":"Angle error grows with translation as much as in a single-shadow method.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0494","id":"S6-0494","volume":"900v6","title":"Speckle rehydration heterogeneity","prediction":"Regions with greater prewetting fluctuation show shorter water-arrival delay after controlling thickness.","test":"Measure benign gels before a uniform wetting step; evaluate preregistered spatial predictions on withheld samples.","contrary":"Predictions vanish after thickness and illumination differences are controlled.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0494","title":"Speckle rehydration heterogeneity","question":"Can low-intensity speckle fluctuations predict which region of a dried gel rehydrates first?","prediction":"Regions with greater prewetting fluctuation show shorter water-arrival delay after controlling thickness.","test":"Measure benign gels before a uniform wetting step; evaluate preregistered spatial predictions on withheld samples.","contrary_outcome":"Predictions vanish after thickness and illumination differences are controlled.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0495","id":"S6-0495","volume":"900v6","title":"Water surface reflection aliasing","prediction":"Pattern-dependent displacement resolves slope sign on held-out wave profiles.","test":"Image gentle water waves under two synchronized projected patterns and compare independent side-view slopes.","contrary":"Both slope signs fit the data equally well.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0495","title":"Water surface reflection aliasing","question":"Can alternating illumination patterns distinguish a steep water wave from its mirror-symmetric slope ambiguity?","prediction":"Pattern-dependent displacement resolves slope sign on held-out wave profiles.","test":"Image gentle water waves under two synchronized projected patterns and compare independent side-view slopes.","contrary_outcome":"Both slope signs fit the data equally well.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0496","id":"S6-0496","volume":"900v6","title":"Salt island dissolution perimeter","prediction":"Overlapping concentration fields lower inward-facing edge retreat relative to isolated controls.","test":"Image benign salt islands with varied separation in still water and independently measure bath concentration.","contrary":"Retreat rates depend only on exposed perimeter and bulk concentration.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0496","title":"Salt island dissolution perimeter","question":"Can neighboring soluble islands slow one another's dissolution even when their exposed perimeter is unchanged?","prediction":"Overlapping concentration fields lower inward-facing edge retreat relative to isolated controls.","test":"Image benign salt islands with varied separation in still water and independently measure bath concentration.","contrary_outcome":"Retreat rates depend only on exposed perimeter and bulk concentration.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0497","id":"S6-0497","volume":"900v6","title":"Hydrated bead compression pulse","prediction":"Internal pore flow moves the dye centroid while total retained dye remains constant within error.","test":"Compress food-grade dyed gel beads gently; measure three-dimensional color distribution and bath dye concentration.","contrary":"Centroid motion is explained solely by deformation or net dye loss.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0497","title":"Hydrated bead compression pulse","question":"Can a brief compression pulse redistribute dye inside a gel bead without measurable net dye release?","prediction":"Internal pore flow moves the dye centroid while total retained dye remains constant within error.","test":"Compress food-grade dyed gel beads gently; measure three-dimensional color distribution and bath dye concentration.","contrary_outcome":"Centroid motion is explained solely by deformation or net dye loss.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0498","id":"S6-0498","volume":"900v6","title":"Soluble coating undercut arrest","prediction":"The band interrupts the confined liquid path and halts subsurface retreat.","test":"Use benign soluble films on glass; image interface fronts with matched coated-area controls.","contrary":"Undercutting crosses the band without delay or stops only because external wetting ends.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0498","title":"Soluble coating undercut arrest","question":"Can a narrow uncoated band arrest undercutting beneath a water-soluble coating despite continuous external water exposure?","prediction":"The band interrupts the confined liquid path and halts subsurface retreat.","test":"Use benign soluble films on glass; image interface fronts with matched coated-area controls.","contrary_outcome":"Undercutting crosses the band without delay or stops only because external wetting ends.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0499","id":"S6-0499","volume":"900v6","title":"Diffusion staircase release","prediction":"Layer-specific partitioning stores solute in zones that empty at separated times.","test":"Use food-safe tracers in benign layered gels with independently measured partition coefficients and sink renewal.","contrary":"Release remains single-peaked after mixing and sampling artifacts are removed.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0499","title":"Diffusion staircase release","question":"Can a layered gel release a dissolved tracer in separate concentration peaks after a single initial loading?","prediction":"Layer-specific partitioning stores solute in zones that empty at separated times.","test":"Use food-safe tracers in benign layered gels with independently measured partition coefficients and sink renewal.","contrary_outcome":"Release remains single-peaked after mixing and sampling artifacts are removed.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0499","title":"Diffusion staircase release","question":"Can a layered gel release a dissolved tracer in separate concentration peaks after a single initial loading?","prediction":"Layer-specific partitioning stores solute in zones that empty at separated times.","test":"Use food-safe tracers in benign layered gels with independently measured partition coefficients and sink renewal.","contrary_outcome":"Release remains single-peaked after mixing and sampling artifacts are removed.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0500","id":"S6-0500","volume":"900v6","title":"Crystalline seed vibration timing","prediction":"Early motion changes which seeds remain attached without altering later growth rates.","test":"Grow benign salt crystals in transparent cells; compare equal-energy vibration windows and count independently tracked seeds.","contrary":"Final locations depend only on total vibration dose or later convection.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0500","title":"Crystalline seed vibration timing","question":"Can gentle vibration during a brief seeding interval alter final crystal location more than identical vibration after attachment?","prediction":"Early motion changes which seeds remain attached without altering later growth rates.","test":"Grow benign salt crystals in transparent cells; compare equal-energy vibration windows and count independently tracked seeds.","contrary_outcome":"Final locations depend only on total vibration dose or later convection.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0501","id":"S6-0501","volume":"900v6","title":"Dissolved gas optical lag","prediction":"Subresolution gas structures increase scattering above a calibrated baseline before microscopy resolves bubbles.","test":"Use modest pressure changes in rated transparent cells, degassed controls, and synchronized scattering and microscopy.","contrary":"Scattering changes are fully explained by density, temperature, or visible bubbles.","layers":[1,2],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0501","title":"Dissolved gas optical lag","question":"Can a pressure decrease produce an optical scattering change before visible bubbles emerge in water?","prediction":"Subresolution gas structures increase scattering above a calibrated baseline before microscopy resolves bubbles.","test":"Use modest pressure changes in rated transparent cells, degassed controls, and synchronized scattering and microscopy.","contrary_outcome":"Scattering changes are fully explained by density, temperature, or visible bubbles.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0501","title":"Dissolved gas optical lag","question":"Can a pressure decrease produce an optical scattering change before visible bubbles emerge in water?","prediction":"Subresolution gas structures increase scattering above a calibrated baseline before microscopy resolves bubbles.","test":"Use modest pressure changes in rated transparent cells, degassed controls, and synchronized scattering and microscopy.","contrary_outcome":"Scattering changes are fully explained by density, temperature, or visible bubbles.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0502","id":"S6-0502","volume":"900v6","title":"Chalk coating pore protection","prediction":"Coated islands shelter neighboring bare pores by restricting local solution exchange.","test":"Map chalk retreat in dilute food-grade acid with patterned coatings and matched uniformly distributed coverage.","contrary":"Protection scales directly with covered area regardless of pattern.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0502","title":"Chalk coating pore protection","question":"Can a discontinuous benign coating protect chalk from dissolution more than its covered area predicts?","prediction":"Coated islands shelter neighboring bare pores by restricting local solution exchange.","test":"Map chalk retreat in dilute food-grade acid with patterned coatings and matched uniformly distributed coverage.","contrary_outcome":"Protection scales directly with covered area regardless of pattern.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0503","id":"S6-0503","volume":"900v6","title":"Sugar bridge dissolution buckle","prediction":"Geometry change creates instability ahead of crushing failure.","test":"Use small guarded sugar bridges with low loads, optical cross-section measurements, and measured wet material stiffness.","contrary":"Failure is fully predicted by local crushing strength with no preceding instability.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0503","title":"Sugar bridge dissolution buckle","question":"Can a slowly dissolving sugar connector fail by buckling under constant low compression before its minimum cross-section reaches a simple strength limit?","prediction":"Geometry change creates instability ahead of crushing failure.","test":"Use small guarded sugar bridges with low loads, optical cross-section measurements, and measured wet material stiffness.","contrary_outcome":"Failure is fully predicted by local crushing strength with no preceding instability.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0504","id":"S6-0504","volume":"900v6","title":"Gel surface exchange reservoir","prediction":"Renewed boundary conditions liberate a near-surface bound fraction faster than bulk diffusion predicts.","test":"Use benign tracer gels, rapid surface-layer exchange, and independent free-diffusion and binding measurements.","contrary":"Release follows the diffusion model without an additional burst.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0504","title":"Gel surface exchange reservoir","question":"Can replacing only a thin surface liquid layer cause a disproportionate burst of tracer release from a gel?","prediction":"Renewed boundary conditions liberate a near-surface bound fraction faster than bulk diffusion predicts.","test":"Use benign tracer gels, rapid surface-layer exchange, and independent free-diffusion and binding measurements.","contrary_outcome":"Release follows the diffusion model without an additional burst.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0505","id":"S6-0505","volume":"900v6","title":"Mineral deposit flow symmetry","prediction":"Deposit rearrangement creates direction-sensitive constrictions after reciprocal flushing.","test":"Use benign calcium-carbonate deposits; measure bidirectional pressure-flow curves and channel geometry before and after flushing.","contrary":"Resistance remains direction-independent at matched low Reynolds number and geometry.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0505","title":"Mineral deposit flow symmetry","question":"Can equal forward and reverse water throughput leave a mineral-coated channel with asymmetric hydraulic resistance?","prediction":"Deposit rearrangement creates direction-sensitive constrictions after reciprocal flushing.","test":"Use benign calcium-carbonate deposits; measure bidirectional pressure-flow curves and channel geometry before and after flushing.","contrary_outcome":"Resistance remains direction-independent at matched low Reynolds number and geometry.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0506","id":"S6-0506","volume":"900v6","title":"Indicator front mechanical strain","prediction":"Anisotropic pore deformation creates direction-dependent front advance beyond thickness corrections.","test":"Use benign pH indicator gels under modest strain with neutral tracer controls and independent thickness maps.","contrary":"Front speed changes collapse after correcting path length and thickness.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0506","title":"Indicator front mechanical strain","question":"Can stretching an indicator gel change front speed through transport geometry more than through total gel thinning alone?","prediction":"Anisotropic pore deformation creates direction-dependent front advance beyond thickness corrections.","test":"Use benign pH indicator gels under modest strain with neutral tracer controls and independent thickness maps.","contrary_outcome":"Front speed changes collapse after correcting path length and thickness.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0507","id":"S6-0507","volume":"900v6","title":"Adsorbent patch edge loading","prediction":"Upstream saturation and delayed desorption create a late downstream maximum.","test":"Flow a food-safe dye over a precharacterized benign adsorbent patch and map local loading over time.","contrary":"Maximum loading remains upstream throughout the pulse and washout.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0507","title":"Adsorbent patch edge loading","question":"Can an adsorbent patch bind more solute near its downstream edge than its upstream edge during a finite pulse?","prediction":"Upstream saturation and delayed desorption create a late downstream maximum.","test":"Flow a food-safe dye over a precharacterized benign adsorbent patch and map local loading over time.","contrary_outcome":"Maximum loading remains upstream throughout the pulse and washout.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0508","id":"S6-0508","volume":"900v6","title":"Salt hydrate stress release","prediction":"Partial loss of inclusion contact lowers matrix strain ahead of optically resolved cavity growth.","test":"Use dilute-water exposure of salt-containing benign polymer models with strain markers and calibrated void detection.","contrary":"Stress release begins only after a resolvable cavity appears.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0508","title":"Salt hydrate stress release","question":"Can local dissolution of a benign salt inclusion release compressive stress in a surrounding soft matrix before a visible void forms?","prediction":"Partial loss of inclusion contact lowers matrix strain ahead of optically resolved cavity growth.","test":"Use dilute-water exposure of salt-containing benign polymer models with strain markers and calibrated void detection.","contrary_outcome":"Stress release begins only after a resolvable cavity appears.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0509","id":"S6-0509","volume":"900v6","title":"Diffusing dye crossing order","prediction":"Fast free diffusion dominates near arrival while binding delays one tracer farther downstream.","test":"Measure both dyes spectrally in a precharacterized gel; compare independent diffusion and binding estimates.","contrary":"Arrival order is the same at all distances after detection thresholds are matched.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0509","title":"Diffusing dye crossing order","question":"Can two benign dyes with different gel binding strengths reverse their arrival order between two observation distances?","prediction":"Fast free diffusion dominates near arrival while binding delays one tracer farther downstream.","test":"Measure both dyes spectrally in a precharacterized gel; compare independent diffusion and binding estimates.","contrary_outcome":"Arrival order is the same at all distances after detection thresholds are matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0510","id":"S6-0510","volume":"900v6","title":"Dry granule rewetting vent","prediction":"Venting removes trapped-gas resistance and accelerates the internal wetting front.","test":"Use benign porous pellets with controlled vent paths; image water uptake and measure trapped air volume.","contrary":"Rewetting time is controlled entirely by liquid entry area and pore size.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0510","title":"Dry granule rewetting vent","question":"Can opening a microscopic-scale air escape path shorten rewetting of a porous granule without changing its liquid entry area?","prediction":"Venting removes trapped-gas resistance and accelerates the internal wetting front.","test":"Use benign porous pellets with controlled vent paths; image water uptake and measure trapped air volume.","contrary_outcome":"Rewetting time is controlled entirely by liquid entry area and pore size.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0511","id":"S6-0511","volume":"900v6","title":"Low-current contact rinse memory","prediction":"A resistance shift persists in deionized rinses and correlates with imaged contact reorganization.","test":"Use low-current graphite contacts with matched rinse and no-rinse handling, mass, and conductivity controls.","contrary":"The shift vanishes after drying or is explained by residual electrolyte.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0511","title":"Low-current contact rinse memory","question":"Can rinsing a graphite contact change its resistance after complete drying through particle rearrangement rather than residual ions?","prediction":"A resistance shift persists in deionized rinses and correlates with imaged contact reorganization.","test":"Use low-current graphite contacts with matched rinse and no-rinse handling, mass, and conductivity controls.","contrary_outcome":"The shift vanishes after drying or is explained by residual electrolyte.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0512","id":"S6-0512","volume":"900v6","title":"Magnetic washer stack tilt","prediction":"Flux redistribution moves the locally strongest contact while net attraction stays within tolerance.","test":"Use enclosed small magnets and instrumented washer contacts with calibrated tilt and safe force limits.","contrary":"Local-force changes scale uniformly with total pull force.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0512","title":"Magnetic washer stack tilt","question":"Can one tilted washer change the location of maximum attraction in a weak magnet-washer stack without changing total pull force substantially?","prediction":"Flux redistribution moves the locally strongest contact while net attraction stays within tolerance.","test":"Use enclosed small magnets and instrumented washer contacts with calibrated tilt and safe force limits.","contrary_outcome":"Local-force changes scale uniformly with total pull force.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0513","id":"S6-0513","volume":"900v6","title":"Capacitive fabric seam strain","prediction":"Different electric-field filling fractions create distinct differential capacitance signatures.","test":"Use low-voltage guarded electrodes on benign cloth, independent imaging, and held-out loading paths.","contrary":"Signals depend only on electrode separation and ambient humidity.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0513","title":"Capacitive fabric seam strain","question":"Can a pair of stitched electrodes distinguish seam opening from uniform fabric stretch at equal electrode separation?","prediction":"Different electric-field filling fractions create distinct differential capacitance signatures.","test":"Use low-voltage guarded electrodes on benign cloth, independent imaging, and held-out loading paths.","contrary_outcome":"Signals depend only on electrode separation and ambient humidity.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0514","id":"S6-0514","volume":"900v6","title":"Salt water contact electrode offset","prediction":"The gradient contribution reverses with position while electrode-specific offsets follow electrode identity.","test":"Measure dilute saline cells with repeated electrode swaps and independent concentration sampling.","contrary":"Position-reversing signals are no larger than mixing or contact artifacts.","layers":[1,2],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0514","title":"Salt water contact electrode offset","question":"Can exchanging two identical low-voltage sensing electrodes reveal a concentration-gradient signal that is hidden by electrode drift?","prediction":"The gradient contribution reverses with position while electrode-specific offsets follow electrode identity.","test":"Measure dilute saline cells with repeated electrode swaps and independent concentration sampling.","contrary_outcome":"Position-reversing signals are no larger than mixing or contact artifacts.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0514","title":"Salt water contact electrode offset","question":"Can exchanging two identical low-voltage sensing electrodes reveal a concentration-gradient signal that is hidden by electrode drift?","prediction":"The gradient contribution reverses with position while electrode-specific offsets follow electrode identity.","test":"Measure dilute saline cells with repeated electrode swaps and independent concentration sampling.","contrary_outcome":"Position-reversing signals are no larger than mixing or contact artifacts.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0515","id":"S6-0515","volume":"900v6","title":"Magnetic reed submerged damping","prediction":"Phase and resonance shifts jointly recover independently varied damping and stiffness.","test":"Use a soft reed with a small enclosed magnet, low-amplitude drive, calibrated fluid viscosity, and mechanical reference tests.","contrary":"Damping and stiffness estimates remain confounded on held-out combinations.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0515","title":"Magnetic reed submerged damping","question":"Can a weak magnetic readout separate viscous damping from a change in reed stiffness in water?","prediction":"Phase and resonance shifts jointly recover independently varied damping and stiffness.","test":"Use a soft reed with a small enclosed magnet, low-amplitude drive, calibrated fluid viscosity, and mechanical reference tests.","contrary_outcome":"Damping and stiffness estimates remain confounded on held-out combinations.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0516","id":"S6-0516","volume":"900v6","title":"Carbon paper wet edge circuit","prediction":"Edge wetting closes a dominant lateral current path.","test":"Map low-current potential fields during controlled dilute-saline wetting with equal-area center and edge controls.","contrary":"Resistance depends only on total wet area and electrolyte concentration.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0516","title":"Carbon paper wet edge circuit","question":"Can a water front reaching the edge of a carbon-paper strip cause a sharper resistance change than wetting the same area centrally?","prediction":"Edge wetting closes a dominant lateral current path.","test":"Map low-current potential fields during controlled dilute-saline wetting with equal-area center and edge controls.","contrary_outcome":"Resistance depends only on total wet area and electrolyte concentration.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0517","id":"S6-0517","volume":"900v6","title":"Coil proximity soft layer","prediction":"The two spatial responses permit independent estimation of separation and offset.","test":"Use low-power coils with calibrated foam compression and backing position; test withheld trajectories.","contrary":"Estimated compression remains biased by lateral offset beyond calibration uncertainty.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0517","title":"Coil proximity soft layer","question":"Can paired coil measurements identify compression of an insulating foam separately from lateral motion of its metallic backing?","prediction":"The two spatial responses permit independent estimation of separation and offset.","test":"Use low-power coils with calibrated foam compression and backing position; test withheld trajectories.","contrary_outcome":"Estimated compression remains biased by lateral offset beyond calibration uncertainty.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0518","id":"S6-0518","volume":"900v6","title":"Electret paper crease leakage","prediction":"The crease creates a preferred leakage path whose influence remains spatially bounded.","test":"Use small static charges on insulating paper, surface-potential mapping, and humidity-controlled flattened-crease controls.","contrary":"Decay is spatially uniform or follows moisture variations alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0518","title":"Electret paper crease leakage","question":"Can a crease accelerate static-charge decay locally while leaving uncreased regions nearly unchanged?","prediction":"The crease creates a preferred leakage path whose influence remains spatially bounded.","test":"Use small static charges on insulating paper, surface-potential mapping, and humidity-controlled flattened-crease controls.","contrary_outcome":"Decay is spatially uniform or follows moisture variations alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0519","id":"S6-0519","volume":"900v6","title":"Conductive paint strain pause","prediction":"Particle contacts recover during substrate relaxation without macroscopic shortening.","test":"Use low-current measurements on benign commercial coatings with force and microscope strain tracking.","contrary":"Resistance is a unique function of instantaneous strain and temperature.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0519","title":"Conductive paint strain pause","question":"Can pausing a stretched conductive paint trace at fixed strain reduce resistance even while the substrate stress relaxes downward?","prediction":"Particle contacts recover during substrate relaxation without macroscopic shortening.","test":"Use low-current measurements on benign commercial coatings with force and microscope strain tracking.","contrary_outcome":"Resistance is a unique function of instantaneous strain and temperature.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0520","id":"S6-0520","volume":"900v6","title":"Magnetic float surface tension","prediction":"Lateral restoring force changes with controlled contact-line pinning at matched buoyancy.","test":"Use an enclosed small magnetic float, calibrated weak lateral field, and optical depth tracking.","contrary":"Measured stiffness is explained entirely by immersion geometry or wall effects.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0520","title":"Magnetic float surface tension","question":"Can a weak magnetic force probe a floating object's contact-line stiffness without appreciably changing immersion depth?","prediction":"Lateral restoring force changes with controlled contact-line pinning at matched buoyancy.","test":"Use an enclosed small magnetic float, calibrated weak lateral field, and optical depth tracking.","contrary_outcome":"Measured stiffness is explained entirely by immersion geometry or wall effects.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0521","id":"S6-0521","volume":"900v6","title":"Capacitive pore air release","prediction":"A connected liquid pathway creates a rapid electrical geometry change with smooth overall water uptake.","test":"Use low-voltage external electrodes, gravimetry, and transparent pore models with independently imaged air release.","contrary":"Capacitance remains smooth or jumps only because electrodes become directly wet.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0521","title":"Capacitive pore air release","question":"Can a sudden capacitance change mark trapped-air escape from a water-infiltrating porous block before total mass shows a discontinuity?","prediction":"A connected liquid pathway creates a rapid electrical geometry change with smooth overall water uptake.","test":"Use low-voltage external electrodes, gravimetry, and transparent pore models with independently imaged air release.","contrary_outcome":"Capacitance remains smooth or jumps only because electrodes become directly wet.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0522","id":"S6-0522","volume":"900v6","title":"Weak field grain alignment","prediction":"Nonmagnetic neighbors show an orientation bias exceeding that from bulk container motion.","test":"Use enclosed benign mixed grains with particle tracking and nonmagnetic controls at matched mechanical vibration.","contrary":"Only magnetic grains rotate or all apparent alignment follows container motion.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0522","title":"Weak field grain alignment","question":"Can a small fraction of magnetic grains orient a larger nonmagnetic granular cluster through frictional contacts under a weak field?","prediction":"Nonmagnetic neighbors show an orientation bias exceeding that from bulk container motion.","test":"Use enclosed benign mixed grains with particle tracking and nonmagnetic controls at matched mechanical vibration.","contrary_outcome":"Only magnetic grains rotate or all apparent alignment follows container motion.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0523","id":"S6-0523","volume":"900v6","title":"Resistive bridge evaporation break","prediction":"A local potential-gradient maximum identifies the later disconnected neck.","test":"Use low-current distributed sensing and microscope water-neck imaging with held-out bridge geometries.","contrary":"Break positions are no better predicted than the narrowest visible section alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0523","title":"Resistive bridge evaporation break","question":"Can the location of an evaporating saline bridge's electrical break be predicted from its earlier potential distribution?","prediction":"A local potential-gradient maximum identifies the later disconnected neck.","test":"Use low-current distributed sensing and microscope water-neck imaging with held-out bridge geometries.","contrary_outcome":"Break positions are no better predicted than the narrowest visible section alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0524","id":"S6-0524","volume":"900v6","title":"Piezo film clamp position","prediction":"Relative timing and polarity identify clamp location across withheld impact positions.","test":"Tap a benign strip gently with independently movable clamps; compare estimates with optical ground truth.","contrary":"Clamp estimates track impact location rather than boundary position.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0524","title":"Piezo film clamp position","question":"Can two passive piezo-film signals distinguish a moved clamp from a changed impact position in a flexible strip?","prediction":"Relative timing and polarity identify clamp location across withheld impact positions.","test":"Tap a benign strip gently with independently movable clamps; compare estimates with optical ground truth.","contrary_outcome":"Clamp estimates track impact location rather than boundary position.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0525","id":"S6-0525","volume":"900v6","title":"Magnetic gap dust spacer","prediction":"Sparse contacts tilt the surfaces and redistribute the gap nonuniformly.","test":"Measure small enclosed magnet pull forces with calibrated particles and equal-mean-gap film controls; map tilt.","contrary":"Pull force is fully determined by mean gap and exposed area.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0525","title":"Magnetic gap dust spacer","question":"Can inert dust between a magnet and a steel surface reduce pull force more than an equal uniform nonmagnetic gap?","prediction":"Sparse contacts tilt the surfaces and redistribute the gap nonuniformly.","test":"Measure small enclosed magnet pull forces with calibrated particles and equal-mean-gap film controls; map tilt.","contrary_outcome":"Pull force is fully determined by mean gap and exposed area.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0526","id":"S6-0526","volume":"900v6","title":"Flow junction soft ceiling","prediction":"Unequal branch deformation creates a finite pressure interval with reversed flow preference.","test":"Use low-head transparent branching channels with measured ceiling shape and rigid-ceiling controls.","contrary":"Flow fractions remain ordered or switch only after irreversible collapse.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0526","title":"Flow junction soft ceiling","question":"Can a compliant ceiling switch which branch receives most water when inlet pressure rises smoothly?","prediction":"Unequal branch deformation creates a finite pressure interval with reversed flow preference.","test":"Use low-head transparent branching channels with measured ceiling shape and rigid-ceiling controls.","contrary_outcome":"Flow fractions remain ordered or switch only after irreversible collapse.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0526","title":"Flow junction soft ceiling","question":"Can a compliant ceiling switch which branch receives most water when inlet pressure rises smoothly?","prediction":"Unequal branch deformation creates a finite pressure interval with reversed flow preference.","test":"Use low-head transparent branching channels with measured ceiling shape and rigid-ceiling controls.","contrary_outcome":"Flow fractions remain ordered or switch only after irreversible collapse.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0527","id":"S6-0527","volume":"900v6","title":"Drain outlet swirl suppression","prediction":"The fin interrupts angular momentum while preserving the main draining area.","test":"Measure water discharge, surface shape, and air ingestion with matched-area radial and circumferential inserts.","contrary":"Suppression requires a discharge reduction that accounts for the whole effect.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0527","title":"Drain outlet swirl suppression","question":"Can a submerged radial fin prevent vortex-driven air ingestion without reducing discharge significantly?","prediction":"The fin interrupts angular momentum while preserving the main draining area.","test":"Measure water discharge, surface shape, and air ingestion with matched-area radial and circumferential inserts.","contrary_outcome":"Suppression requires a discharge reduction that accounts for the whole effect.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0528","id":"S6-0528","volume":"900v6","title":"Reciprocal paddle corner transport","prediction":"Wall geometry creates unequal mixing fields over the stroke at finite inertia.","test":"Track food dye and velocity in a corner cell over Reynolds-number sweeps with symmetric-path controls.","contrary":"Net transport vanishes within uncertainty at all tested conditions.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0528","title":"Reciprocal paddle corner transport","question":"Can a rigid paddle undergoing exactly reciprocal translation transport dye around a corner when its distance from the walls changes along the path?","prediction":"Wall geometry creates unequal mixing fields over the stroke at finite inertia.","test":"Track food dye and velocity in a corner cell over Reynolds-number sweeps with symmetric-path controls.","contrary_outcome":"Net transport vanishes within uncertainty at all tested conditions.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0529","id":"S6-0529","volume":"900v6","title":"Bubble outlet recovery time","prediction":"Residual meniscus oscillations modulate the next bubble volume over short waits.","test":"Measure low-pressure bubble formation with controlled feed pauses and high-speed nozzle imaging.","contrary":"Next-bubble volume depends only on accumulated gas mass and static contact angle.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0529","title":"Bubble outlet recovery time","question":"Can the waiting time after one bubble detaches predict the size of the next bubble under constant air input?","prediction":"Residual meniscus oscillations modulate the next bubble volume over short waits.","test":"Measure low-pressure bubble formation with controlled feed pauses and high-speed nozzle imaging.","contrary_outcome":"Next-bubble volume depends only on accumulated gas mass and static contact angle.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0530","id":"S6-0530","volume":"900v6","title":"Channel roof rib pressure","prediction":"Distributed local compliance and inertance spread the pulse in time.","test":"Use soft transparent channels, pressure transducers, and matched steady-flow resistance controls.","contrary":"Pulse attenuation follows mean resistance alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0530","title":"Channel roof rib pressure","question":"Can alternating roof-rib heights reduce the peak pressure of a water pulse more than equal-height ribs at equal mean hydraulic resistance?","prediction":"Distributed local compliance and inertance spread the pulse in time.","test":"Use soft transparent channels, pressure transducers, and matched steady-flow resistance controls.","contrary_outcome":"Pulse attenuation follows mean resistance alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0531","id":"S6-0531","volume":"900v6","title":"Suspended flake wake alignment","prediction":"Transient wake torque rotates the flake before bulk flow direction changes.","test":"Track benign thin flakes and local water velocity in a transparent channel expansion.","contrary":"Orientation always follows local strain or streamline direction without a reversal interval.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0531","title":"Suspended flake wake alignment","question":"Can a flexible flake align against the local mean streamline during passage through a short expansion?","prediction":"Transient wake torque rotates the flake before bulk flow direction changes.","test":"Track benign thin flakes and local water velocity in a transparent channel expansion.","contrary_outcome":"Orientation always follows local strain or streamline direction without a reversal interval.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0532","id":"S6-0532","volume":"900v6","title":"Shallow wave movable shoreline","prediction":"Motion adds mechanical dissipation beyond water uptake.","test":"Measure incident and reflected low-amplitude water waves, shoreline displacement, and absorbed mass with immobilized controls.","contrary":"Reflection differences vanish when absorption and geometry are matched.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0532","title":"Shallow wave movable shoreline","question":"Can a freely moving absorbent shoreline reduce reflected waves more than a fixed shoreline with equal absorbed water mass?","prediction":"Motion adds mechanical dissipation beyond water uptake.","test":"Measure incident and reflected low-amplitude water waves, shoreline displacement, and absorbed mass with immobilized controls.","contrary_outcome":"Reflection differences vanish when absorption and geometry are matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0533","id":"S6-0533","volume":"900v6","title":"Two outlet meniscus sequencing","prediction":"Different trapped meniscus states preserve a discharge bias.","test":"Use a low-head two-outlet reservoir with transparent tips and equal final hydrostatic conditions.","contrary":"Flow split returns immediately to the same value after resubmergence.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0533","title":"Two outlet meniscus sequencing","question":"Can alternating which outlet is exposed to air set the split of later water discharge after both outlets are submerged again?","prediction":"Different trapped meniscus states preserve a discharge bias.","test":"Use a low-head two-outlet reservoir with transparent tips and equal final hydrostatic conditions.","contrary_outcome":"Flow split returns immediately to the same value after resubmergence.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0534","id":"S6-0534","volume":"900v6","title":"Flexible vane flow sign","prediction":"Reversal produces an inflection in vane recovery absent during zero flow.","test":"Measure water velocity and vane shape during concealed reversal and interruption trials with matched initial deflection.","contrary":"Trajectories cannot classify the histories above a prespecified accuracy.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0534","title":"Flexible vane flow sign","question":"Can the recovery trajectory of a soft vane distinguish a brief flow reversal from a brief flow interruption of equal duration?","prediction":"Reversal produces an inflection in vane recovery absent during zero flow.","test":"Measure water velocity and vane shape during concealed reversal and interruption trials with matched initial deflection.","contrary_outcome":"Trajectories cannot classify the histories above a prespecified accuracy.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0535","id":"S6-0535","volume":"900v6","title":"Porous cylinder wake symmetry","prediction":"Internal through-flow redistributes momentum and redirects the downstream wake.","test":"Measure velocity fields around replaceably sealed porous cylinders with matched exterior shape and total open area.","contrary":"Wake orientation is fixed by outer geometry or total porosity alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0535","title":"Porous cylinder wake symmetry","question":"Can sealing one sector of a porous cylinder switch its low-speed water wake asymmetry without rotating the cylinder?","prediction":"Internal through-flow redistributes momentum and redirects the downstream wake.","test":"Measure velocity fields around replaceably sealed porous cylinders with matched exterior shape and total open area.","contrary_outcome":"Wake orientation is fixed by outer geometry or total porosity alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0536","id":"S6-0536","volume":"900v6","title":"Rising bubble wall rebound","prediction":"Wall deformation changes local hydrodynamic pressure and bubble drift.","test":"Use modest bubbles in water with imaged compliant and rigid walls and controlled separation.","contrary":"Drift differences vanish after instantaneous wall geometry is matched.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0536","title":"Rising bubble wall rebound","question":"Can a compliant wall reverse the lateral migration direction of a rising bubble compared with a rigid wall at matched mean shape?","prediction":"Wall deformation changes local hydrodynamic pressure and bubble drift.","test":"Use modest bubbles in water with imaged compliant and rigid walls and controlled separation.","contrary_outcome":"Drift differences vanish after instantaneous wall geometry is matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0537","id":"S6-0537","volume":"900v6","title":"Fluid pocket squeeze release","prediction":"Asymmetric elastic recovery creates a transient pressure gradient into the outlet.","test":"Use a soft transparent water cell with measured pressure, pocket volume, and reversed-rate controls.","contrary":"Expelled volume depends only on total deformation and not rate ordering.","layers":[1,2],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0537","title":"Fluid pocket squeeze release","question":"Can rapid release after slow compression eject water from a side pocket that does not empty during equal-speed compression and release?","prediction":"Asymmetric elastic recovery creates a transient pressure gradient into the outlet.","test":"Use a soft transparent water cell with measured pressure, pocket volume, and reversed-rate controls.","contrary_outcome":"Expelled volume depends only on total deformation and not rate ordering.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0537","title":"Fluid pocket squeeze release","question":"Can rapid release after slow compression eject water from a side pocket that does not empty during equal-speed compression and release?","prediction":"Asymmetric elastic recovery creates a transient pressure gradient into the outlet.","test":"Use a soft transparent water cell with measured pressure, pocket volume, and reversed-rate controls.","contrary_outcome":"Expelled volume depends only on total deformation and not rate ordering.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0538","id":"S6-0538","volume":"900v6","title":"Split jet surface capture","prediction":"Local attachment redirects only the branch contacting the strip.","test":"Measure low-speed split jets with independently weighed branches and reversed strip position.","contrary":"Both branches change together through upstream pressure redistribution.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0538","title":"Split jet surface capture","question":"Can a narrow wettable strip capture one branch of a split water jet while leaving the other branch nearly unchanged?","prediction":"Local attachment redirects only the branch contacting the strip.","test":"Measure low-speed split jets with independently weighed branches and reversed strip position.","contrary_outcome":"Both branches change together through upstream pressure redistribution.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0539","id":"S6-0539","volume":"900v6","title":"Periodic wall dimple flushing","prediction":"A traveling deformation pattern exchanges corner fluid while mean through-flow stays zero.","test":"Use a low-pressure soft channel, food dye, and measured inlet-outlet volume balance; compare simultaneous dimples.","contrary":"Flushing is accounted for by unintended net pumping.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0539","title":"Periodic wall dimple flushing","question":"Can sequential inflation of small wall dimples flush a stagnant channel corner without net bulk pumping?","prediction":"A traveling deformation pattern exchanges corner fluid while mean through-flow stays zero.","test":"Use a low-pressure soft channel, food dye, and measured inlet-outlet volume balance; compare simultaneous dimples.","contrary_outcome":"Flushing is accounted for by unintended net pumping.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0540","id":"S6-0540","volume":"900v6","title":"Immersed ribbon wake phase","prediction":"Wake coupling stabilizes an antiphase window as separation varies.","test":"Track soft ribbons in low-speed water flow and compare isolated, tandem, and side-by-side controls.","contrary":"Relative phase is random or determined entirely by support vibration.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0540","title":"Immersed ribbon wake phase","question":"Can two flexible ribbons in tandem settle into antiphase motion while their isolated natural frequencies are nearly equal?","prediction":"Wake coupling stabilizes an antiphase window as separation varies.","test":"Track soft ribbons in low-speed water flow and compare isolated, tandem, and side-by-side controls.","contrary_outcome":"Relative phase is random or determined entirely by support vibration.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0541","id":"S6-0541","volume":"900v6","title":"Paper hinge moisture order","prediction":"The first wetting fixes a strain distribution that the second does not erase.","test":"Measure fold angle and local moisture through reversed wetting sequences with equal total water.","contrary":"Dry fold angle depends only on total water and peak bend.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0541","title":"Paper hinge moisture order","question":"Can wetting alternate sides of a paper hinge in opposite orders leave different dry fold angles?","prediction":"The first wetting fixes a strain distribution that the second does not erase.","test":"Measure fold angle and local moisture through reversed wetting sequences with equal total water.","contrary_outcome":"Dry fold angle depends only on total water and peak bend.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0542","id":"S6-0542","volume":"900v6","title":"Soft shell interior rib","prediction":"The rib redistributes compression into a remote weak mode.","test":"Compress small polymer shells slowly; map strain and vary rib length at matched mass.","contrary":"Collapse remains at the rib tip or follows thickness defects alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0542","title":"Soft shell interior rib","question":"Can a short internal rib move a shell's collapse site away from the rib tip?","prediction":"The rib redistributes compression into a remote weak mode.","test":"Compress small polymer shells slowly; map strain and vary rib length at matched mass.","contrary_outcome":"Collapse remains at the rib tip or follows thickness defects alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0543","id":"S6-0543","volume":"900v6","title":"Friction hinge reverse dwell","prediction":"Reverse microslip renews contact junctions and lowers restart torque.","test":"Measure low-load hinge torque after matched dwell and reverse-motion histories with temperature control.","contrary":"Restart torque is explained by elapsed time alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0543","title":"Friction hinge reverse dwell","question":"Can a short reverse rotation reduce the static holding torque of a friction hinge more than a stationary dwell of equal duration?","prediction":"Reverse microslip renews contact junctions and lowers restart torque.","test":"Measure low-load hinge torque after matched dwell and reverse-motion histories with temperature control.","contrary_outcome":"Restart torque is explained by elapsed time alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0544","id":"S6-0544","volume":"900v6","title":"Stacked foil shear ventilation","prediction":"Venting releases transient interlayer suction during sliding.","test":"Bend benign foil stacks slowly with sealed and vented edges; measure force and layer slip.","contrary":"Bending force is independent of venting at matched friction and geometry.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0544","title":"Stacked foil shear ventilation","question":"Can venting air between stacked foils reduce the force needed to bend the stack without changing its static thickness?","prediction":"Venting releases transient interlayer suction during sliding.","test":"Bend benign foil stacks slowly with sealed and vented edges; measure force and layer slip.","contrary_outcome":"Bending force is independent of venting at matched friction and geometry.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0545","id":"S6-0545","volume":"900v6","title":"Loop tether lateral stability","prediction":"The tether engages beyond a displacement threshold and arrests further lateral motion.","test":"Load soft loops with controlled perturbations and imaged tether tension; compare taut and absent tethers.","contrary":"The tether either affects linear stiffness or fails to arrest large motion.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0545","title":"Loop tether lateral stability","question":"Can a slack lateral tether stabilize a compressed loop only after a finite perturbation?","prediction":"The tether engages beyond a displacement threshold and arrests further lateral motion.","test":"Load soft loops with controlled perturbations and imaged tether tension; compare taut and absent tethers.","contrary_outcome":"The tether either affects linear stiffness or fails to arrest large motion.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0546","id":"S6-0546","volume":"900v6","title":"Elastic ridge pinch location","prediction":"Local flattening transfers curvature into an adjacent segment.","test":"Map three-dimensional shape of folded polymer sheets during slow localized pinching.","contrary":"Maximum curvature remains at the pinch after geometric uncertainty is considered.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0546","title":"Elastic ridge pinch location","question":"Can pinching one end of a long elastic ridge make its maximum curvature move away from the pinch?","prediction":"Local flattening transfers curvature into an adjacent segment.","test":"Map three-dimensional shape of folded polymer sheets during slow localized pinching.","contrary_outcome":"Maximum curvature remains at the pinch after geometric uncertainty is considered.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0547","id":"S6-0547","volume":"900v6","title":"Interleaved sheet pullout order","prediction":"Early withdrawal redistributes normal pressure across remaining contacts.","test":"Measure pull forces and stack thickness for reversed extraction sequences with equal initial compression.","contrary":"Pullout force depends only on remaining sheet count and external load.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0547","title":"Interleaved sheet pullout order","question":"Can pulling the center sheet first reduce the later pullout force of outer sheets in an interleaved stack?","prediction":"Early withdrawal redistributes normal pressure across remaining contacts.","test":"Measure pull forces and stack thickness for reversed extraction sequences with equal initial compression.","contrary_outcome":"Pullout force depends only on remaining sheet count and external load.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0548","id":"S6-0548","volume":"900v6","title":"Anisotropic pad rolling threshold","prediction":"Ridge bending adds direction-dependent resistance before rolling begins.","test":"Measure small roller torque on rotated pads with matched indentation and static friction controls.","contrary":"Threshold depends only on indentation depth and overall friction.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0548","title":"Anisotropic pad rolling threshold","question":"Can a compliant textured pad support the same static load yet change a roller's first-motion threshold with texture direction?","prediction":"Ridge bending adds direction-dependent resistance before rolling begins.","test":"Measure small roller torque on rotated pads with matched indentation and static friction controls.","contrary_outcome":"Threshold depends only on indentation depth and overall friction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0548","title":"Anisotropic pad rolling threshold","question":"Can a compliant textured pad support the same static load yet change a roller's first-motion threshold with texture direction?","prediction":"Ridge bending adds direction-dependent resistance before rolling begins.","test":"Measure small roller torque on rotated pads with matched indentation and static friction controls.","contrary_outcome":"Threshold depends only on indentation depth and overall friction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0549","id":"S6-0549","volume":"900v6","title":"Telescoping tube trapped air","prediction":"Compressed air contributes mainly during rapid release.","test":"Measure low-energy tube force and motion with open, sealed, and sham vents over speed sweeps.","contrary":"Vent effects are fully predicted by changes in dry sliding friction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0549","title":"Telescoping tube trapped air","question":"Can a small air vent change the release speed of a telescoping tube more than its slow sliding force?","prediction":"Compressed air contributes mainly during rapid release.","test":"Measure low-energy tube force and motion with open, sealed, and sham vents over speed sweeps.","contrary_outcome":"Vent effects are fully predicted by changes in dry sliding friction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0550","id":"S6-0550","volume":"900v6","title":"Creased disk radial tension","prediction":"The crease unfolds to redistribute tension away from the loading point.","test":"Use benign cut-sheet disks with marker tracking and matched uncreased controls under modest radial loads.","contrary":"Strain concentration increases or remains unchanged after stiffness matching.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0550","title":"Creased disk radial tension","question":"Can a single radial crease reduce azimuthal strain concentration in a stretched thin disk?","prediction":"The crease unfolds to redistribute tension away from the loading point.","test":"Use benign cut-sheet disks with marker tracking and matched uncreased controls under modest radial loads.","contrary_outcome":"Strain concentration increases or remains unchanged after stiffness matching.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0551","id":"S6-0551","volume":"900v6","title":"Elastic knot branch release","prediction":"Contact rearrangement reroutes tension through a transiently tighter path.","test":"Instrument a tabletop cord knot with low loads and synchronized contact imaging.","contrary":"All branch tensions decrease monotonically during release.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0551","title":"Elastic knot branch release","question":"Can loosening one branch of a soft knot increase tension in another branch before the knot slips?","prediction":"Contact rearrangement reroutes tension through a transiently tighter path.","test":"Instrument a tabletop cord knot with low loads and synchronized contact imaging.","contrary_outcome":"All branch tensions decrease monotonically during release.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0552","id":"S6-0552","volume":"900v6","title":"Foam plug insertion memory","prediction":"Residual cell orientation preserves insertion history beyond short-time stress relaxation.","test":"Compare straight and twisted insertion in transparent sleeves with matched depth, density, and dwell.","contrary":"Pullout forces converge when normal pressure has relaxed.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0552","title":"Foam plug insertion memory","question":"Can twisting a foam plug during insertion change its later pullout force after a long stationary dwell?","prediction":"Residual cell orientation preserves insertion history beyond short-time stress relaxation.","test":"Compare straight and twisted insertion in transparent sleeves with matched depth, density, and dwell.","contrary_outcome":"Pullout forces converge when normal pressure has relaxed.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0553","id":"S6-0553","volume":"900v6","title":"Lattice corner support exchange","prediction":"Boundary compatibility selects a different deformation branch.","test":"Measure low-strain panel shapes under interchangeable corner supports and repeated load cycles.","contrary":"Central displacement sign remains fixed once rigid-body motion is removed.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0553","title":"Lattice corner support exchange","question":"Can moving a support from one corner to its neighbor reverse a lattice panel's central displacement under the same load?","prediction":"Boundary compatibility selects a different deformation branch.","test":"Measure low-strain panel shapes under interchangeable corner supports and repeated load cycles.","contrary_outcome":"Central displacement sign remains fixed once rigid-body motion is removed.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0554","id":"S6-0554","volume":"900v6","title":"Layered strap hole reinforcement","prediction":"Interlayer slip spreads bearing load over a larger contact arc.","test":"Load benign fabric straps through smooth pins; compare bonded and sliding reinforcements with strain maps.","contrary":"Bonded reinforcement always produces equal or lower peak strain.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0554","title":"Layered strap hole reinforcement","question":"Can an unbonded reinforcement layer reduce hole-edge strain more than a fully bonded layer of equal material?","prediction":"Interlayer slip spreads bearing load over a larger contact arc.","test":"Load benign fabric straps through smooth pins; compare bonded and sliding reinforcements with strain maps.","contrary_outcome":"Bonded reinforcement always produces equal or lower peak strain.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0555","id":"S6-0555","volume":"900v6","title":"Compliant clip insertion asymmetry","prediction":"Entry deformation follows a lower-energy path than the retained exit configuration.","test":"Measure quasi-static clip force-displacement curves with reversible ramp inserts and repeated samples.","contrary":"Insertion and pullout forces change proportionally with ramp geometry.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0555","title":"Compliant clip insertion asymmetry","question":"Can a rounded entry ramp reduce insertion force without similarly reducing pullout force in a soft clip?","prediction":"Entry deformation follows a lower-energy path than the retained exit configuration.","test":"Measure quasi-static clip force-displacement curves with reversible ramp inserts and repeated samples.","contrary_outcome":"Insertion and pullout forces change proportionally with ramp geometry.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0556","id":"S6-0556","volume":"900v6","title":"Twisted fiber drying curvature","prediction":"Unequal axial shrinkage and locked contacts change bending while chirality remains fixed.","test":"Use benign cellulose cords with three-dimensional shape and mass tracking during controlled drying.","contrary":"Curvature changes require untwisting or external asymmetric heating.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0556","title":"Twisted fiber drying curvature","question":"Can drying reverse the curvature of a twisted fiber bundle without reversing its twist direction?","prediction":"Unequal axial shrinkage and locked contacts change bending while chirality remains fixed.","test":"Use benign cellulose cords with three-dimensional shape and mass tracking during controlled drying.","contrary_outcome":"Curvature changes require untwisting or external asymmetric heating.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0557","id":"S6-0557","volume":"900v6","title":"Buckled strip sliding sleeve","prediction":"The sleeve suppresses local curvature and pushes the instability into the adjacent span.","test":"Track a guarded polymer strip during slow sleeve translation with friction-reduced controls.","contrary":"The buckle remains fixed or only jumps when end shortening changes.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0557","title":"Buckled strip sliding sleeve","question":"Can moving a loose sleeve along a buckled strip transfer the buckle without changing end shortening?","prediction":"The sleeve suppresses local curvature and pushes the instability into the adjacent span.","test":"Track a guarded polymer strip during slow sleeve translation with friction-reduced controls.","contrary_outcome":"The buckle remains fixed or only jumps when end shortening changes.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0558","id":"S6-0558","volume":"900v6","title":"Elastic mesh tear unloading","prediction":"The unloaded zone interrupts crack opening and the front follows an alternate stressed path.","test":"Tear small benign meshes under controlled multi-point loads with synchronized strand-force records.","contrary":"Tears follow minimum remaining section independently of local unloading.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0558","title":"Elastic mesh tear unloading","question":"Can local unloading ahead of a mesh tear redirect it toward a more heavily loaded region?","prediction":"The unloaded zone interrupts crack opening and the front follows an alternate stressed path.","test":"Tear small benign meshes under controlled multi-point loads with synchronized strand-force records.","contrary_outcome":"Tears follow minimum remaining section independently of local unloading.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0559","id":"S6-0559","volume":"900v6","title":"Soft gasket corner sequence","prediction":"Frictional seating leaves different residual contact-pressure gaps.","test":"Use low-pressure water gaskets with pressure-sensitive contact imaging and independently measured final bolt loads.","contrary":"Leak onset is identical once final loads and gasket geometry are matched.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0559","title":"Soft gasket corner sequence","question":"Can tightening gasket corners in a different order change leak onset after all final bolt loads are equal?","prediction":"Frictional seating leaves different residual contact-pressure gaps.","test":"Use low-pressure water gaskets with pressure-sensitive contact imaging and independently measured final bolt loads.","contrary_outcome":"Leak onset is identical once final loads and gasket geometry are matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0559","title":"Soft gasket corner sequence","question":"Can tightening gasket corners in a different order change leak onset after all final bolt loads are equal?","prediction":"Frictional seating leaves different residual contact-pressure gaps.","test":"Use low-pressure water gaskets with pressure-sensitive contact imaging and independently measured final bolt loads.","contrary_outcome":"Leak onset is identical once final loads and gasket geometry are matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0560","id":"S6-0560","volume":"900v6","title":"Folded ribbon gravity exchange","prediction":"Gravity biases transient hinge moments but not the eventual unloaded geometry.","test":"Track benign ribbon fold angles after identical loading with reversed gravity orientation.","contrary":"Relaxation order remains unchanged or final shapes differ substantially.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0560","title":"Folded ribbon gravity exchange","question":"Can turning a folded ribbon upside down change which crease relaxes first without changing final equilibrium shape?","prediction":"Gravity biases transient hinge moments but not the eventual unloaded geometry.","test":"Track benign ribbon fold angles after identical loading with reversed gravity orientation.","contrary_outcome":"Relaxation order remains unchanged or final shapes differ substantially.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0561","id":"S6-0561","volume":"900v6","title":"Porous film drying tension","prediction":"Late constraint suppresses differential shrinkage when the structure becomes mechanically locked.","test":"Dry benign paper films with time-windowed tension and matched total force-duration exposure.","contrary":"Final curl depends only on total tension exposure and water loss.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0561","title":"Porous film drying tension","question":"Can a small tension applied only near the end of drying reduce later curling more than the same tension applied early?","prediction":"Late constraint suppresses differential shrinkage when the structure becomes mechanically locked.","test":"Dry benign paper films with time-windowed tension and matched total force-duration exposure.","contrary_outcome":"Final curl depends only on total tension exposure and water loss.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0562","id":"S6-0562","volume":"900v6","title":"Gelled droplet support indentation","prediction":"Projected size changes outpace mass uptake only on the compliant support.","test":"Hydrate benign gel droplets on matched wetting surfaces with different stiffness; measure mass and three-dimensional shape.","contrary":"Size changes track water uptake identically on all supports.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0562","title":"Gelled droplet support indentation","question":"Can a soft support change the apparent swelling rate of a gel droplet through indentation rather than water uptake?","prediction":"Projected size changes outpace mass uptake only on the compliant support.","test":"Hydrate benign gel droplets on matched wetting surfaces with different stiffness; measure mass and three-dimensional shape.","contrary_outcome":"Size changes track water uptake identically on all supports.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0563","id":"S6-0563","volume":"900v6","title":"Soluble fiber load redistribution","prediction":"Staggered engagement spreads the force transfer over a longer interval.","test":"Use low-load sugar-thread model bundles with tension sensors and water-triggered local dissolution.","contrary":"Transfer timing depends only on the dissolving fiber's area loss.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0563","title":"Soluble fiber load redistribution","question":"Can dissolving one fiber in a loaded bundle trigger gradual rather than abrupt redistribution when neighboring fibers have staggered slack?","prediction":"Staggered engagement spreads the force transfer over a longer interval.","test":"Use low-load sugar-thread model bundles with tension sensors and water-triggered local dissolution.","contrary_outcome":"Transfer timing depends only on the dissolving fiber's area loss.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0564","id":"S6-0564","volume":"900v6","title":"Adhesive island crack pause","prediction":"Front bowing around islands increases local path length and creates repeated pinning.","test":"Peel benign laminated films with controlled patterns and measure front shape, force, and work.","contrary":"Peel behavior depends only on total bonded area.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0564","title":"Adhesive island crack pause","question":"Can sparse unbonded islands slow a peeling front more than a continuous unbonded strip of equal area?","prediction":"Front bowing around islands increases local path length and creates repeated pinning.","test":"Peel benign laminated films with controlled patterns and measure front shape, force, and work.","contrary_outcome":"Peel behavior depends only on total bonded area.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0565","id":"S6-0565","volume":"900v6","title":"Wet cellulose torsion delay","prediction":"Internal moisture redistribution continues to change anisotropic strain after net uptake plateaus.","test":"Measure mass, twist, and depth-sensitive moisture proxies in benign strips with equilibrium checks.","contrary":"Twist stops whenever net mass uptake reaches the declared plateau.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0565","title":"Wet cellulose torsion delay","question":"Can a cellulose strip begin twisting after its total mass has stopped changing during a humidity step?","prediction":"Internal moisture redistribution continues to change anisotropic strain after net uptake plateaus.","test":"Measure mass, twist, and depth-sensitive moisture proxies in benign strips with equilibrium checks.","contrary_outcome":"Twist stops whenever net mass uptake reaches the declared plateau.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0566","id":"S6-0566","volume":"900v6","title":"Dry foam localized recovery","prediction":"Edge expansion releases a mechanical constraint on central cells.","test":"Use mild edge warming with full temperature maps and displacement imaging; compare uniformly constrained controls.","contrary":"Central recovery follows local temperature alone.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0566","title":"Dry foam localized recovery","question":"Can warming only a compressed foam's edge accelerate central recovery without significantly warming the center?","prediction":"Edge expansion releases a mechanical constraint on central cells.","test":"Use mild edge warming with full temperature maps and displacement imaging; compare uniformly constrained controls.","contrary_outcome":"Central recovery follows local temperature alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0567","id":"S6-0567","volume":"900v6","title":"Hydrogel ridge detachment","prediction":"Axial swelling compression raises central interfacial opening stress.","test":"Hydrate benign bonded gel ridges with imaged fronts and calibrated adhesion along their length.","contrary":"Detachment always initiates at exposed ends or adhesion defects.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0567","title":"Hydrogel ridge detachment","question":"Can a swelling ridge detach from its support earlier at its middle than at its free ends?","prediction":"Axial swelling compression raises central interfacial opening stress.","test":"Hydrate benign bonded gel ridges with imaged fronts and calibrated adhesion along their length.","contrary_outcome":"Detachment always initiates at exposed ends or adhesion defects.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0567","title":"Hydrogel ridge detachment","question":"Can a swelling ridge detach from its support earlier at its middle than at its free ends?","prediction":"Axial swelling compression raises central interfacial opening stress.","test":"Hydrate benign bonded gel ridges with imaged fronts and calibrated adhesion along their length.","contrary_outcome":"Detachment always initiates at exposed ends or adhesion defects.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0568","id":"S6-0568","volume":"900v6","title":"Paper laminate humidity shield","prediction":"Blocking an early edge uptake path delays the strain gradient across the laminate.","test":"Measure mass, curvature, and spatial moisture in benign laminates with edge and central barriers of equal area.","contrary":"Curvature reduction is proportional only to covered area.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0568","title":"Paper laminate humidity shield","question":"Can a narrow moisture barrier at one edge reduce whole-strip bending more than its covered area predicts?","prediction":"Blocking an early edge uptake path delays the strain gradient across the laminate.","test":"Measure mass, curvature, and spatial moisture in benign laminates with edge and central barriers of equal area.","contrary_outcome":"Curvature reduction is proportional only to covered area.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0569","id":"S6-0569","volume":"900v6","title":"Elastomer contact rest renewal","prediction":"Separation resets adhesive junctions and changes the subsequent contact evolution.","test":"Use low-load transparent contacts with creep tracking and uninterrupted-load controls matched for total elapsed time.","contrary":"Postreload creep depends only on current force and contact area.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0569","title":"Elastomer contact rest renewal","question":"Can temporarily separating an elastomer contact reduce its later creep rate after reloading to the same force?","prediction":"Separation resets adhesive junctions and changes the subsequent contact evolution.","test":"Use low-load transparent contacts with creep tracking and uninterrupted-load controls matched for total elapsed time.","contrary_outcome":"Postreload creep depends only on current force and contact area.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0570","id":"S6-0570","volume":"900v6","title":"Gel slit pressure threshold","prediction":"Viscoelastic tip relaxation preserves a duration-dependent closure stress.","test":"Use modest water pressure, transparent gel slits, and controlled opening holds with crack-growth checks.","contrary":"Threshold depends only on elapsed recovery time or irreversible slit extension.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0570","title":"Gel slit pressure threshold","question":"Can a pre-cut slit in a benign gel act as a pressure valve whose opening threshold depends on its last opening duration?","prediction":"Viscoelastic tip relaxation preserves a duration-dependent closure stress.","test":"Use modest water pressure, transparent gel slits, and controlled opening holds with crack-growth checks.","contrary_outcome":"Threshold depends only on elapsed recovery time or irreversible slit extension.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0571","id":"S6-0571","volume":"900v6","title":"Adsorption bed pulse splitting","prediction":"During interruption, local exchange creates separated mobile and bound fractions on restart.","test":"Use food-safe dye and a benign adsorbent with continuous-flow and nonbinding controls.","contrary":"Any second peak is attributable to tubing volume or pump restart artifacts.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0571","title":"Adsorption bed pulse splitting","question":"Can a short flow interruption split one tracer pulse into two outlet peaks in an adsorbing bed?","prediction":"During interruption, local exchange creates separated mobile and bound fractions on restart.","test":"Use food-safe dye and a benign adsorbent with continuous-flow and nonbinding controls.","contrary_outcome":"Any second peak is attributable to tubing volume or pump restart artifacts.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0572","id":"S6-0572","volume":"900v6","title":"Crystal shadow dissolution","prediction":"Small local temperature gradients alter face-specific retreat more than bulk thermometry indicates.","test":"Use weak illumination, face thermometry, and a temperature-matched opaque-shield control.","contrary":"Retreat differences vanish when local surface temperatures are matched.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0572","title":"Crystal shadow dissolution","question":"Can shading one face of a benign crystal change its dissolution pattern at unchanged measured bulk temperature?","prediction":"Small local temperature gradients alter face-specific retreat more than bulk thermometry indicates.","test":"Use weak illumination, face thermometry, and a temperature-matched opaque-shield control.","contrary_outcome":"Retreat differences vanish when local surface temperatures are matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0573","id":"S6-0573","volume":"900v6","title":"Porous pellet edge sealing","prediction":"Sealing prevents preferential edge flow from trapping air in the center.","test":"Image benign porous pellets during water uptake with equal-area central sealing controls and gas-volume estimates.","contrary":"Sealing always slows center wetting in proportion to lost area.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0573","title":"Porous pellet edge sealing","question":"Can sealing a pellet's rim accelerate axial rewetting despite reducing total exposed area?","prediction":"Sealing prevents preferential edge flow from trapping air in the center.","test":"Image benign porous pellets during water uptake with equal-area central sealing controls and gas-volume estimates.","contrary_outcome":"Sealing always slows center wetting in proportion to lost area.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0574","id":"S6-0574","volume":"900v6","title":"Salt solution meniscus recovery","prediction":"A late circulation change renews the interface despite ongoing evaporation.","test":"Measure local refractive index and velocity in benign saline capillaries during controlled evaporation.","contrary":"Interfacial concentration rises monotonically until crystallization.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0574","title":"Salt solution meniscus recovery","question":"Can concentration at a receding meniscus recover toward the bulk value while the meniscus continues to recede?","prediction":"A late circulation change renews the interface despite ongoing evaporation.","test":"Measure local refractive index and velocity in benign saline capillaries during controlled evaporation.","contrary_outcome":"Interfacial concentration rises monotonically until crystallization.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0575","id":"S6-0575","volume":"900v6","title":"Benign precipitate seed release","prediction":"Substrate curvature opens attachment contacts that fluid shear leaves closed.","test":"Compare calcium-carbonate-coated flexible sheets under measured flexing and water-flow stresses.","contrary":"Seed release is set only by peak interfacial shear.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0575","title":"Benign precipitate seed release","question":"Can gentle flexing release more attached mineral seeds than continuous flow of equal peak wall stress?","prediction":"Substrate curvature opens attachment contacts that fluid shear leaves closed.","test":"Compare calcium-carbonate-coated flexible sheets under measured flexing and water-flow stresses.","contrary_outcome":"Seed release is set only by peak interfacial shear.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0576","id":"S6-0576","volume":"900v6","title":"Indicator gel optical recovery","prediction":"Fast surface exchange dominates the optical path while the interior remains shifted.","test":"Measure benign indicator gels by transmission, surface reflection, and independent depth sampling after weak acid pulses.","contrary":"Color recovery matches internal acidity recovery within spatial resolution.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0576","title":"Indicator gel optical recovery","question":"Can a color-indicator gel recover its original color before its internal acidity returns to baseline?","prediction":"Fast surface exchange dominates the optical path while the interior remains shifted.","test":"Measure benign indicator gels by transmission, surface reflection, and independent depth sampling after weak acid pulses.","contrary_outcome":"Color recovery matches internal acidity recovery within spatial resolution.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0577","id":"S6-0577","volume":"900v6","title":"Tracer adsorption edge bypass","prediction":"Bypass flow changes exchange with a slowly draining adjacent region.","test":"Use food-safe dye, calibrated benign adsorbent, and full flow mapping in a transparent cell.","contrary":"The bypass always advances the peak once total flow is matched.","layers":[1],"categories":["physical","biology","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0577","title":"Tracer adsorption edge bypass","question":"Can cutting a narrow bypass beside an adsorbing strip delay rather than hasten the outlet tracer peak?","prediction":"Bypass flow changes exchange with a slowly draining adjacent region.","test":"Use food-safe dye, calibrated benign adsorbent, and full flow mapping in a transparent cell.","contrary_outcome":"The bypass always advances the peak once total flow is matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0578","id":"S6-0578","volume":"900v6","title":"Layered sugar dissolution hinge","prediction":"Unequal dissolution across the joint creates a transient flexible hinge.","test":"Use low-energy sugar-bonded paper models with optical joint geometry and force measurements.","contrary":"Motion occurs only at sudden complete detachment.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0578","title":"Layered sugar dissolution hinge","question":"Can a soluble joint rotate a supported panel before detaching completely under a constant small load?","prediction":"Unequal dissolution across the joint creates a transient flexible hinge.","test":"Use low-energy sugar-bonded paper models with optical joint geometry and force measurements.","contrary_outcome":"Motion occurs only at sudden complete detachment.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0578","title":"Layered sugar dissolution hinge","question":"Can a soluble joint rotate a supported panel before detaching completely under a constant small load?","prediction":"Unequal dissolution across the joint creates a transient flexible hinge.","test":"Use low-energy sugar-bonded paper models with optical joint geometry and force measurements.","contrary_outcome":"Motion occurs only at sudden complete detachment.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0579","id":"S6-0579","volume":"900v6","title":"Coated bead concentration wake","prediction":"Surface dissolution and local flow produce an azimuthally displaced maximum.","test":"Image food-safe tracer coatings on fixed beads with measured flow and rotated coating patterns.","contrary":"Wake direction follows only the bulk streamline and bead geometry.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0579","title":"Coated bead concentration wake","question":"Can a partially soluble coating create a concentration wake that bends around an uncoated sector of a bead?","prediction":"Surface dissolution and local flow produce an azimuthally displaced maximum.","test":"Image food-safe tracer coatings on fixed beads with measured flow and rotated coating patterns.","contrary_outcome":"Wake direction follows only the bulk streamline and bead geometry.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0580","id":"S6-0580","volume":"900v6","title":"Diffusion front stop release","prediction":"Differential diffusion during the pause compresses the concentration profile.","test":"Use food-safe dyes, mild temperature changes, and matched total transit-time controls with independent diffusivity calibration.","contrary":"Front width is determined only by integrated diffusion time and never narrows.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0580","title":"Diffusion front stop release","question":"Can temporarily cooling a narrow section of a benign gel sharpen a later tracer front after temperature is restored?","prediction":"Differential diffusion during the pause compresses the concentration profile.","test":"Use food-safe dyes, mild temperature changes, and matched total transit-time controls with independent diffusivity calibration.","contrary_outcome":"Front width is determined only by integrated diffusion time and never narrows.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0581","id":"S6-0581","volume":"900v6","title":"Foam electrolyte bridge noise","prediction":"Bridge switching adds non-Gaussian fluctuations above instrumental and thermal noise.","test":"Measure dilute-saline foam with simultaneous bridge microscopy and stable resistor controls.","contrary":"Noise statistics are explained entirely by mean resistance and temperature.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0581","title":"Foam electrolyte bridge noise","question":"Can low-current resistance noise distinguish intermittent liquid bridges from a uniformly conducting foam at equal mean resistance?","prediction":"Bridge switching adds non-Gaussian fluctuations above instrumental and thermal noise.","test":"Measure dilute-saline foam with simultaneous bridge microscopy and stable resistor controls.","contrary_outcome":"Noise statistics are explained entirely by mean resistance and temperature.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0582","id":"S6-0582","volume":"900v6","title":"Graphite contact shear direction","prediction":"Anisotropic flakes rearrange differently with shear direction.","test":"Use low-current four-terminal measurements and microscopic flake orientation maps with rotated specimens.","contrary":"Resistance changes are symmetric or follow electrode motion alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0582","title":"Graphite contact shear direction","question":"Can opposite tiny shear cycles leave different contact resistance in a directional graphite coating at equal final displacement?","prediction":"Anisotropic flakes rearrange differently with shear direction.","test":"Use low-current four-terminal measurements and microscopic flake orientation maps with rotated specimens.","contrary_outcome":"Resistance changes are symmetric or follow electrode motion alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0583","id":"S6-0583","volume":"900v6","title":"Magnetic seam gap estimate","prediction":"Field decay with height responds differently to gap and thickness.","test":"Use enclosed weak magnets and calibrated sensors above benign steel coupons; validate unseen gap-thickness pairs.","contrary":"The two parameters remain inseparable within measurement error.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0583","title":"Magnetic seam gap estimate","question":"Can a two-height magnetic measurement separate a narrow seam gap from a change in steel-sheet thickness?","prediction":"Field decay with height responds differently to gap and thickness.","test":"Use enclosed weak magnets and calibrated sensors above benign steel coupons; validate unseen gap-thickness pairs.","contrary_outcome":"The two parameters remain inseparable within measurement error.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0584","id":"S6-0584","volume":"900v6","title":"Capacitive wet knot location","prediction":"The local wet knot produces a spatial differential signature rejecting common drift.","test":"Use low-voltage electrodes, water-wetted benign cord, and blinded knot positions across humidity conditions.","contrary":"Position estimates follow humidity or cord displacement rather than knot location.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0584","title":"Capacitive wet knot location","question":"Can distributed capacitive sensing locate a wet knot along an insulating cord despite uniform background humidity changes?","prediction":"The local wet knot produces a spatial differential signature rejecting common drift.","test":"Use low-voltage electrodes, water-wetted benign cord, and blinded knot positions across humidity conditions.","contrary_outcome":"Position estimates follow humidity or cord displacement rather than knot location.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0585","id":"S6-0585","volume":"900v6","title":"Conductive gel stretch recovery","prediction":"Ionic pathways reconnect during partial mechanical recovery.","test":"Measure low-current resistance, dimensions, and temperature in benign gel cycles with electrode-separation correction.","contrary":"Resistance recovery is fully predicted by geometric length and cross-section.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0585","title":"Conductive gel stretch recovery","question":"Can electrical resistance return to baseline before a stretched saline gel recovers its original length?","prediction":"Ionic pathways reconnect during partial mechanical recovery.","test":"Measure low-current resistance, dimensions, and temperature in benign gel cycles with electrode-separation correction.","contrary_outcome":"Resistance recovery is fully predicted by geometric length and cross-section.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0586","id":"S6-0586","volume":"900v6","title":"Static charge granular support","prediction":"Electrostatic attraction adds contact stabilization measurable in the collapse load.","test":"Use enclosed inert grains, modest charge levels, humidity control, and grounded sham handling.","contrary":"Threshold changes are explained by humidity or mechanical preparation.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0586","title":"Static charge granular support","question":"Can a small static charge shift a lightweight grain arch's collapse threshold without changing its visible geometry?","prediction":"Electrostatic attraction adds contact stabilization measurable in the collapse load.","test":"Use enclosed inert grains, modest charge levels, humidity control, and grounded sham handling.","contrary_outcome":"Threshold changes are explained by humidity or mechanical preparation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0587","id":"S6-0587","volume":"900v6","title":"Magnetic vane liquid coverage","prediction":"The frequency ratio separates added inertia from viscous drag over a declared range.","test":"Use a small enclosed magnet, benign liquids, and independently measured coverage and viscosity.","contrary":"Coverage estimates remain confounded by viscosity on held-out conditions.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0587","title":"Magnetic vane liquid coverage","question":"Can a weakly magnetically driven vane estimate its wetted fraction independently of liquid viscosity using two drive frequencies?","prediction":"The frequency ratio separates added inertia from viscous drag over a declared range.","test":"Use a small enclosed magnet, benign liquids, and independently measured coverage and viscosity.","contrary_outcome":"Coverage estimates remain confounded by viscosity on held-out conditions.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0588","id":"S6-0588","volume":"900v6","title":"Resistive sheet corner tear","prediction":"Current-path redistribution creates a local differential signal larger than the global change.","test":"Use low-current carbon sheets with distributed taps and independently imaged tears.","contrary":"Local signals provide no lead over total resistance at matched noise.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0588","title":"Resistive sheet corner tear","question":"Can a small corner tear alter a sheet's voltage field far from the tear before total resistance changes detectably?","prediction":"Current-path redistribution creates a local differential signal larger than the global change.","test":"Use low-current carbon sheets with distributed taps and independently imaged tears.","contrary_outcome":"Local signals provide no lead over total resistance at matched noise.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0589","id":"S6-0589","volume":"900v6","title":"Inductive foil crease recovery","prediction":"Residual local curvature changes the complex response after both samples appear flat at coarse resolution.","test":"Use low-power coils with profilometry reference maps and blinded foil histories.","contrary":"Signals are determined by bulk spacing and cannot resolve residual crease structure.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0589","title":"Inductive foil crease recovery","question":"Can a weak coil readout distinguish an elastically flattened crease from a permanently flattened one in a thin metal foil?","prediction":"Residual local curvature changes the complex response after both samples appear flat at coarse resolution.","test":"Use low-power coils with profilometry reference maps and blinded foil histories.","contrary_outcome":"Signals are determined by bulk spacing and cannot resolve residual crease structure.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0589","title":"Inductive foil crease recovery","question":"Can a weak coil readout distinguish an elastically flattened crease from a permanently flattened one in a thin metal foil?","prediction":"Residual local curvature changes the complex response after both samples appear flat at coarse resolution.","test":"Use low-power coils with profilometry reference maps and blinded foil histories.","contrary_outcome":"Signals are determined by bulk spacing and cannot resolve residual crease structure.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0590","id":"S6-0590","volume":"900v6","title":"Capacitive liquid pair coalescence","prediction":"A discontinuous capacitance pattern marks the connectivity change.","test":"Use low-voltage ring electrodes with transparent validation sections and translated unmerged-droplet controls.","contrary":"Signals cannot distinguish coalescence from ordinary droplet translation.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0590","title":"Capacitive liquid pair coalescence","question":"Can external electrodes detect droplet coalescence inside an opaque insulating tube without a change in total liquid volume?","prediction":"A discontinuous capacitance pattern marks the connectivity change.","test":"Use low-voltage ring electrodes with transparent validation sections and translated unmerged-droplet controls.","contrary_outcome":"Signals cannot distinguish coalescence from ordinary droplet translation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0591","id":"S6-0591","volume":"900v6","title":"Weak magnet chain release order","prediction":"Force redistribution concentrates tensile load at a remote geometric bend.","test":"Track low-energy chains with measured link forces and varied bend locations.","contrary":"First separation always occurs next to the removed magnet or weakest measured link.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0591","title":"Weak magnet chain release order","question":"Can removing one magnet from a short enclosed bead chain cause nonadjacent links to separate first?","prediction":"Force redistribution concentrates tensile load at a remote geometric bend.","test":"Track low-energy chains with measured link forces and varied bend locations.","contrary_outcome":"First separation always occurs next to the removed magnet or weakest measured link.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0592","id":"S6-0592","volume":"900v6","title":"Electrical paper drying boundary","prediction":"Electrical connectivity persists in thin paths below optical contrast thresholds.","test":"Dry dilute-saline paper with synchronized resistance maps and calibrated moisture imaging.","contrary":"The darkest region predicts connectivity as well as the electrical map.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0592","title":"Electrical paper drying boundary","question":"Can a four-terminal resistance map locate the last connected wet path in paper more accurately than its darkest visible region?","prediction":"Electrical connectivity persists in thin paths below optical contrast thresholds.","test":"Dry dilute-saline paper with synchronized resistance maps and calibrated moisture imaging.","contrary_outcome":"The darkest region predicts connectivity as well as the electrical map.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0593","id":"S6-0593","volume":"900v6","title":"Moving wall branch capture","prediction":"A transient vortex moves particles across a separatrix into the branch.","test":"Use inert tracers in a transparent low-pressure channel with measured wall motion and no-motion controls.","contrary":"Captured particles all return or retention requires a permanent geometry change.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0593","title":"Moving wall branch capture","question":"Can a brief inward wall motion capture particles in a side branch after the wall returns to its initial position?","prediction":"A transient vortex moves particles across a separatrix into the branch.","test":"Use inert tracers in a transparent low-pressure channel with measured wall motion and no-motion controls.","contrary_outcome":"Captured particles all return or retention requires a permanent geometry change.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0594","id":"S6-0594","volume":"900v6","title":"Surface wave corner dwell","prediction":"The rounded boundary supports a localized recirculating wave pattern.","test":"Measure gentle impulse-wave decay and spatial amplitude in interchangeable corner cells.","contrary":"Decay differences are explained entirely by wetted perimeter and viscous loss.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0594","title":"Surface wave corner dwell","question":"Can a rounded channel corner retain wave energy longer than a sharp corner with equal water volume?","prediction":"The rounded boundary supports a localized recirculating wave pattern.","test":"Measure gentle impulse-wave decay and spatial amplitude in interchangeable corner cells.","contrary_outcome":"Decay differences are explained entirely by wetted perimeter and viscous loss.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0595","id":"S6-0595","volume":"900v6","title":"Flexible tube external droplet","prediction":"Capillary force slightly flattens the tube and produces a measurable pressure increase.","test":"Use thin soft tubing, water droplets, low-head internal flow, and matched-weight nonwetting controls.","contrary":"Resistance changes are explained solely by droplet weight or thermal effects.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0595","title":"Flexible tube external droplet","question":"Can a droplet on the outside of a soft tube change its internal flow resistance through local deformation?","prediction":"Capillary force slightly flattens the tube and produces a measurable pressure increase.","test":"Use thin soft tubing, water droplets, low-head internal flow, and matched-weight nonwetting controls.","contrary_outcome":"Resistance changes are explained solely by droplet weight or thermal effects.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0596","id":"S6-0596","volume":"900v6","title":"Air vent channel separation","prediction":"Pressure communication through a trapped gas pocket changes the branch pressure balance.","test":"Measure water splits and local pressure with transparent gas interfaces and sealed-vent controls.","contrary":"Branch split changes only after visible gas enters the liquid stream.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0596","title":"Air vent channel separation","question":"Can a passive air vent downstream of a water junction alter branch selection before any air enters the main flow?","prediction":"Pressure communication through a trapped gas pocket changes the branch pressure balance.","test":"Measure water splits and local pressure with transparent gas interfaces and sealed-vent controls.","contrary_outcome":"Branch split changes only after visible gas enters the liquid stream.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0597","id":"S6-0597","volume":"900v6","title":"Pulsed inlet wall attachment","prediction":"A bistable recirculation pattern preserves the pulse-selected state.","test":"Use a symmetric transparent expansion with constant postpulse flow and reversed pulse directions.","contrary":"The stream always returns to the same state or switches only with geometric defects.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0597","title":"Pulsed inlet wall attachment","question":"Can a short inlet pulse permanently switch a low-speed water stream between two attachment walls at fixed later flow?","prediction":"A bistable recirculation pattern preserves the pulse-selected state.","test":"Use a symmetric transparent expansion with constant postpulse flow and reversed pulse directions.","contrary_outcome":"The stream always returns to the same state or switches only with geometric defects.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0598","id":"S6-0598","volume":"900v6","title":"Submerged gate sediment bypass","prediction":"Initial flow excludes particles at the narrowing gap and later entrains the settled layer.","test":"Measure water discharge and inert-particle concentration during controlled gate lifts with size-resolved sampling.","contrary":"Outlet concentration immediately matches the upstream suspension.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0598","title":"Submerged gate sediment bypass","question":"Can slowly lifting a gate release clear water first and sediment later despite a vertically mixed upstream suspension?","prediction":"Initial flow excludes particles at the narrowing gap and later entrains the settled layer.","test":"Measure water discharge and inert-particle concentration during controlled gate lifts with size-resolved sampling.","contrary_outcome":"Outlet concentration immediately matches the upstream suspension.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0599","id":"S6-0599","volume":"900v6","title":"Water pocket roof recoil","prediction":"Stored elastic energy creates a transient local pressure inversion.","test":"Measure high-speed flow, roof displacement, and multiple pressures in a soft water channel during rapid unloading.","contrary":"Backflow occurs only when the measured boundary pressure difference reverses.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0599","title":"Water pocket roof recoil","question":"Can recoil of a compliant roof drive a brief backflow even while inlet pressure stays above outlet pressure?","prediction":"Stored elastic energy creates a transient local pressure inversion.","test":"Measure high-speed flow, roof displacement, and multiple pressures in a soft water channel during rapid unloading.","contrary_outcome":"Backflow occurs only when the measured boundary pressure difference reverses.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0600","id":"S6-0600","volume":"900v6","title":"Bubble spacing bend sorting","prediction":"Wake interaction makes closely spaced pairs take a different path from isolated bubbles.","test":"Track equal-size air bubbles through a transparent low-pressure water bend with controlled injection intervals.","contrary":"Paths depend only on bubble size and mean flow.","layers":[1,2],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0600","title":"Bubble spacing bend sorting","question":"Can a channel bend separate otherwise equal bubbles by their incoming spacing rather than their size?","prediction":"Wake interaction makes closely spaced pairs take a different path from isolated bubbles.","test":"Track equal-size air bubbles through a transparent low-pressure water bend with controlled injection intervals.","contrary_outcome":"Paths depend only on bubble size and mean flow.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0600","title":"Bubble spacing bend sorting","question":"Can a channel bend separate otherwise equal bubbles by their incoming spacing rather than their size?","prediction":"Wake interaction makes closely spaced pairs take a different path from isolated bubbles.","test":"Track equal-size air bubbles through a transparent low-pressure water bend with controlled injection intervals.","contrary_outcome":"Paths depend only on bubble size and mean flow.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0601","id":"S6-0601","volume":"900v6","title":"Offset pendulum stop exchange","prediction":"Stop timing selects a plane that persists after both stops withdraw.","test":"Track a low-energy spherical pendulum with measured stop contacts and reversed timing.","contrary":"The swing plane follows support anisotropy regardless of timing.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0601","title":"Offset pendulum stop exchange","question":"Can alternating two soft stops transfer a pendulum between stable swing planes?","prediction":"Stop timing selects a plane that persists after both stops withdraw.","test":"Track a low-energy spherical pendulum with measured stop contacts and reversed timing.","contrary_outcome":"The swing plane follows support anisotropy regardless of timing.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0602","id":"S6-0602","volume":"900v6","title":"Elastic chain slack localization","prediction":"Sequential link recruitment concentrates acceleration at the slack transition.","test":"Measure link motion and endpoint forces in guarded cord chains with redistributed slack.","contrary":"Pulse shape depends only on total slack and input impulse.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0602","title":"Elastic chain slack localization","question":"Can equal total slack placed in different links change where a tension pulse first steepens?","prediction":"Sequential link recruitment concentrates acceleration at the slack transition.","test":"Measure link motion and endpoint forces in guarded cord chains with redistributed slack.","contrary_outcome":"Pulse shape depends only on total slack and input impulse.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0603","id":"S6-0603","volume":"900v6","title":"Floating disk perforation torque","prediction":"Water exchange through holes changes the displaced-volume distribution during tilt.","test":"Measure slow tilt torque and water levels in lightweight disks with rotated hole patterns.","contrary":"Torque follows only center of mass and static buoyancy.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0603","title":"Floating disk perforation torque","question":"Can asymmetric perforations generate a restoring torque on a tilted floating disk without changing its center of mass?","prediction":"Water exchange through holes changes the displaced-volume distribution during tilt.","test":"Measure slow tilt torque and water levels in lightweight disks with rotated hole patterns.","contrary_outcome":"Torque follows only center of mass and static buoyancy.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0603","title":"Floating disk perforation torque","question":"Can asymmetric perforations generate a restoring torque on a tilted floating disk without changing its center of mass?","prediction":"Water exchange through holes changes the displaced-volume distribution during tilt.","test":"Measure slow tilt torque and water levels in lightweight disks with rotated hole patterns.","contrary_outcome":"Torque follows only center of mass and static buoyancy.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0604","id":"S6-0604","volume":"900v6","title":"Soft wheel hub eccentricity","prediction":"Contact relaxation creates a history-dependent deformation profile.","test":"Measure low-speed wheel motion, load, and contact shape under matched final conditions.","contrary":"Rolling radius converges immediately whenever speed and load match.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0604","title":"Soft wheel hub eccentricity","question":"Can a soft wheel's apparent rolling radius depend on whether its load was applied before or after rotation began?","prediction":"Contact relaxation creates a history-dependent deformation profile.","test":"Measure low-speed wheel motion, load, and contact shape under matched final conditions.","contrary_outcome":"Rolling radius converges immediately whenever speed and load match.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0605","id":"S6-0605","volume":"900v6","title":"Folded column pressure release","prediction":"Internal pressure biases local wall stiffness before global buckling.","test":"Load small polymer folded columns slowly with low-pressure vents and deformation imaging.","contrary":"Buckle position is independent of venting after external geometry is matched.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0605","title":"Folded column pressure release","question":"Can releasing trapped air inside one fold shift a lightweight column's buckle location?","prediction":"Internal pressure biases local wall stiffness before global buckling.","test":"Load small polymer folded columns slowly with low-pressure vents and deformation imaging.","contrary_outcome":"Buckle position is independent of venting after external geometry is matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0606","id":"S6-0606","volume":"900v6","title":"Thread loop twist threshold","prediction":"The loop absorbs rotation through shape change before transmitting torsion.","test":"Measure both endpoint angles and loop shape under low torques with straight-thread controls.","contrary":"Twist transmits continuously according to total thread length alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0606","title":"Thread loop twist threshold","question":"Can a free loop in a thread delay twist transmission until a geometric threshold is crossed?","prediction":"The loop absorbs rotation through shape change before transmitting torsion.","test":"Measure both endpoint angles and loop shape under low torques with straight-thread controls.","contrary_outcome":"Twist transmits continuously according to total thread length alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0607","id":"S6-0607","volume":"900v6","title":"Corrugated pad indentation migration","prediction":"Asymmetric ridge collapse creates lateral force before sliding begins.","test":"Track a smooth low-load indenter on rotated pads with measured horizontal forces.","contrary":"Migration follows fixture tilt or disappears when friction is controlled.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0607","title":"Corrugated pad indentation migration","question":"Can an indenter migrate laterally on a corrugated soft pad under purely vertical loading?","prediction":"Asymmetric ridge collapse creates lateral force before sliding begins.","test":"Track a smooth low-load indenter on rotated pads with measured horizontal forces.","contrary_outcome":"Migration follows fixture tilt or disappears when friction is controlled.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0608","id":"S6-0608","volume":"900v6","title":"Thin shell rim lubrication","prediction":"Reduced rim restraint selects a different deformation mode at similar peak force.","test":"Compress small benign shells with matched support compliance and full shape imaging.","contrary":"Mode changes require a substantial force change or arise from initial defects.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0608","title":"Thin shell rim lubrication","question":"Can lubricating a shell's support rim change collapse shape more than collapse load?","prediction":"Reduced rim restraint selects a different deformation mode at similar peak force.","test":"Compress small benign shells with matched support compliance and full shape imaging.","contrary_outcome":"Mode changes require a substantial force change or arise from initial defects.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0609","id":"S6-0609","volume":"900v6","title":"Layered cord tension equilibration","prediction":"Interlayer slip transfers load inward during a hold.","test":"Use a low-load instrumented braid with independently sensed inner and outer strands.","contrary":"Both layers relax together or transfer requires endpoint motion.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0609","title":"Layered cord tension equilibration","question":"Can the outer layer of a braided cord relax while the inner layer gains tension under fixed total length?","prediction":"Interlayer slip transfers load inward during a hold.","test":"Use a low-load instrumented braid with independently sensed inner and outer strands.","contrary_outcome":"Both layers relax together or transfer requires endpoint motion.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0610","id":"S6-0610","volume":"900v6","title":"Soft spring blocked turn","prediction":"The block redirects deformation into a lateral mode before normal compression resumes.","test":"Measure small polymer coils with removable turn blocks and three-dimensional motion tracking.","contrary":"Every block monotonically increases stiffness throughout loading.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0610","title":"Soft spring blocked turn","question":"Can blocking one middle turn of a soft coil increase compliance over part of its loading path?","prediction":"The block redirects deformation into a lateral mode before normal compression resumes.","test":"Measure small polymer coils with removable turn blocks and three-dimensional motion tracking.","contrary_outcome":"Every block monotonically increases stiffness throughout loading.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0611","id":"S6-0611","volume":"900v6","title":"Contact patch edge recoil","prediction":"Elastic redistribution drives a transient central pressure rise.","test":"Use low-load transparent pads with pressure mapping and synchronized edge-release motion.","contrary":"Pressure decreases everywhere or the rise is a sensor artifact.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0611","title":"Contact patch edge recoil","question":"Can unloading the edge of an elastic contact briefly increase pressure near its center?","prediction":"Elastic redistribution drives a transient central pressure rise.","test":"Use low-load transparent pads with pressure mapping and synchronized edge-release motion.","contrary_outcome":"Pressure decreases everywhere or the rise is a sensor artifact.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0612","id":"S6-0612","volume":"900v6","title":"Rope crossing wet release","prediction":"Local friction changes redirect the threshold load through the knot.","test":"Use benign cords, small loads, imaged crossings, and controlled water volumes.","contrary":"Slip order follows initial strand tension regardless of wet crossing.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0612","title":"Rope crossing wet release","question":"Can wetting only one crossing change which strand slips first in a multi-strand knot?","prediction":"Local friction changes redirect the threshold load through the knot.","test":"Use benign cords, small loads, imaged crossings, and controlled water volumes.","contrary_outcome":"Slip order follows initial strand tension regardless of wet crossing.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0613","id":"S6-0613","volume":"900v6","title":"Snap strip added inertia","prediction":"Transient inertia biases the dynamic branch.","test":"Use guarded low-energy strips with masses at mirrored positions and matched slow-loading curves.","contrary":"Direction remains random or is explained by static mass-induced deflection.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0613","title":"Snap strip added inertia","question":"Can a small movable mass select the snap direction of a symmetric strip without changing its quasistatic force curve?","prediction":"Transient inertia biases the dynamic branch.","test":"Use guarded low-energy strips with masses at mirrored positions and matched slow-loading curves.","contrary_outcome":"Direction remains random or is explained by static mass-induced deflection.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0614","id":"S6-0614","volume":"900v6","title":"Friction sleeve dwell reversal","prediction":"Contact geometry evolves differently for circumferential and axial motion.","test":"Measure low-force polymer sleeves after controlled dwell with independent contact imaging.","contrary":"Both thresholds vary proportionally with normal force and contact age.","layers":[1,2],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0614","title":"Friction sleeve dwell reversal","question":"Can dwell under compression make a sleeve easier to rotate but harder to slide axially?","prediction":"Contact geometry evolves differently for circumferential and axial motion.","test":"Measure low-force polymer sleeves after controlled dwell with independent contact imaging.","contrary_outcome":"Both thresholds vary proportionally with normal force and contact age.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0614","title":"Friction sleeve dwell reversal","question":"Can dwell under compression make a sleeve easier to rotate but harder to slide axially?","prediction":"Contact geometry evolves differently for circumferential and axial motion.","test":"Measure low-force polymer sleeves after controlled dwell with independent contact imaging.","contrary_outcome":"Both thresholds vary proportionally with normal force and contact age.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0615","id":"S6-0615","volume":"900v6","title":"Open ring force crossover","prediction":"Contact creates a new rotation mechanism that lowers incremental stiffness.","test":"Load soft rings with optical contact tracking and controlled end friction.","contrary":"End contact always raises incremental stiffness or causes irreversible damage.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0615","title":"Open ring force crossover","question":"Can an open elastic ring become easier to compress after its ends first touch?","prediction":"Contact creates a new rotation mechanism that lowers incremental stiffness.","test":"Load soft rings with optical contact tracking and controlled end friction.","contrary_outcome":"End contact always raises incremental stiffness or causes irreversible damage.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0616","id":"S6-0616","volume":"900v6","title":"Elastic sheet corner tether","prediction":"The tether damps a dominant dynamic mode with little static tension.","test":"Use low-speed guarded airflow, lightweight sheets, and measured tether force.","contrary":"Flutter suppression requires a large static-shape or tension change.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0616","title":"Elastic sheet corner tether","question":"Can a single corner tether suppress global flutter while leaving the static shape almost unchanged?","prediction":"The tether damps a dominant dynamic mode with little static tension.","test":"Use low-speed guarded airflow, lightweight sheets, and measured tether force.","contrary_outcome":"Flutter suppression requires a large static-shape or tension change.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0617","id":"S6-0617","volume":"900v6","title":"Nested cup air cushioning","prediction":"Airflow mainly controls postrelease acceleration rather than static adhesion.","test":"Measure slow and rapid extraction forces, internal pressure, and cup motion.","contrary":"Vent effects on impulse are fully explained by lower breakaway force.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0617","title":"Nested cup air cushioning","question":"Can a tiny vent in nested flexible cups reduce extraction impulse without reducing initial breakaway force?","prediction":"Airflow mainly controls postrelease acceleration rather than static adhesion.","test":"Measure slow and rapid extraction forces, internal pressure, and cup motion.","contrary_outcome":"Vent effects on impulse are fully explained by lower breakaway force.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0618","id":"S6-0618","volume":"900v6","title":"Accordion fold stiffness pause","prediction":"Viscoelastic relaxation equalizes hinge moments during the pause.","test":"Track benign folded polymer strips with matched total compression time and different pause positions.","contrary":"Fold localization depends only on final displacement and mean loading rate.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0618","title":"Accordion fold stiffness pause","question":"Can briefly stopping compression stabilize an accordion fold sequence that otherwise localizes?","prediction":"Viscoelastic relaxation equalizes hinge moments during the pause.","test":"Track benign folded polymer strips with matched total compression time and different pause positions.","contrary_outcome":"Fold localization depends only on final displacement and mean loading rate.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0619","id":"S6-0619","volume":"900v6","title":"Soft wedge insertion drift","prediction":"Asymmetric contact release rectifies the oscillation.","test":"Measure wedge position and contact force with reversed wedge orientation and symmetric-block controls.","contrary":"Drift follows uncontrolled tilt or occurs equally for symmetric blocks.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0619","title":"Soft wedge insertion drift","question":"Can repeated subthreshold lateral oscillations drive a soft wedge deeper under constant vertical load?","prediction":"Asymmetric contact release rectifies the oscillation.","test":"Measure wedge position and contact force with reversed wedge orientation and symmetric-block controls.","contrary_outcome":"Drift follows uncontrolled tilt or occurs equally for symmetric blocks.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0620","id":"S6-0620","volume":"900v6","title":"Panel seam wave steering","prediction":"Phase delay across the compliant seam rotates the wavefront.","test":"Map gentle vibration on joined panels with adjustable seam compliance and energy balance.","contrary":"Steering is explained only by strong energy loss or edge reflections.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0620","title":"Panel seam wave steering","question":"Can opening a narrow seam steer a flexural wave without much changing transmitted energy?","prediction":"Phase delay across the compliant seam rotates the wavefront.","test":"Map gentle vibration on joined panels with adjustable seam compliance and energy balance.","contrary_outcome":"Steering is explained only by strong energy loss or edge reflections.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0621","id":"S6-0621","volume":"900v6","title":"Drying cord knot migration","prediction":"Unequal local shrinkage produces repeated microscopic slip.","test":"Track benign wet cords with marked material coordinates and controlled humidity.","contrary":"Knot position stays fixed relative to cord markers after shrinkage correction.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0621","title":"Drying cord knot migration","question":"Can a knot migrate along a cord during drying even when both cord endpoints remain fixed?","prediction":"Unequal local shrinkage produces repeated microscopic slip.","test":"Track benign wet cords with marked material coordinates and controlled humidity.","contrary_outcome":"Knot position stays fixed relative to cord markers after shrinkage correction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0622","id":"S6-0622","volume":"900v6","title":"Paper tube humidity vent","prediction":"The vent equalizes inner and outer moisture histories.","test":"Compare benign paper tubes with open and sealed sham vents using humidity maps and shape reconstruction.","contrary":"Ovalization depends only on mean moisture uptake and wall thickness.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0622","title":"Paper tube humidity vent","question":"Can adding a narrow vent reduce humidity-induced ovalization without materially reducing axial stiffness?","prediction":"The vent equalizes inner and outer moisture histories.","test":"Compare benign paper tubes with open and sealed sham vents using humidity maps and shape reconstruction.","contrary_outcome":"Ovalization depends only on mean moisture uptake and wall thickness.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0623","id":"S6-0623","volume":"900v6","title":"Gel laminate cut recovery","prediction":"Local stiffness loss redistributes stored strain across the thickness.","test":"Use benign gels with imaged cut depth and matched uncut and interface-cut controls.","contrary":"Recovery direction changes only when the interface is severed.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0623","title":"Gel laminate cut recovery","question":"Can a shallow cut reverse the recovery direction of a bent gel laminate without reaching its interface?","prediction":"Local stiffness loss redistributes stored strain across the thickness.","test":"Use benign gels with imaged cut depth and matched uncut and interface-cut controls.","contrary_outcome":"Recovery direction changes only when the interface is severed.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0624","id":"S6-0624","volume":"900v6","title":"Foam indentation neighbor memory","prediction":"Subsurface cell rearrangement leaves a mechanically detectable neighbor effect.","test":"Map small foam indentations with controlled separation and delay, plus cross-sectional imaging of sacrificial controls.","contrary":"Later recovery is independent of previous indentation beyond overlapping visible dents.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0624","title":"Foam indentation neighbor memory","question":"Can a previous indentation change the recovery of a nearby later indentation after the first dent has visually disappeared?","prediction":"Subsurface cell rearrangement leaves a mechanically detectable neighbor effect.","test":"Map small foam indentations with controlled separation and delay, plus cross-sectional imaging of sacrificial controls.","contrary_outcome":"Later recovery is independent of previous indentation beyond overlapping visible dents.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0625","id":"S6-0625","volume":"900v6","title":"Adhesive peel rate ordering","prediction":"The first stage sets a contact state persisting into the second.","test":"Measure benign adhesive peel work with matched rate durations, temperature, and starting adhesion.","contrary":"Work equals the sum of rate-specific steady values regardless of order.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0625","title":"Adhesive peel rate ordering","question":"Can a slow-fast peel sequence require different total work from a fast-slow sequence over the same distance?","prediction":"The first stage sets a contact state persisting into the second.","test":"Measure benign adhesive peel work with matched rate durations, temperature, and starting adhesion.","contrary_outcome":"Work equals the sum of rate-specific steady values regardless of order.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0626","id":"S6-0626","volume":"900v6","title":"Hydrogel pore orientation strain","prediction":"Pore anisotropy redistributes the wetting front while integrated flow stays similar.","test":"Image benign gels under controlled strain with mass and directional tracer tracking.","contrary":"Front direction changes only alongside a proportional total uptake change.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0626","title":"Hydrogel pore orientation strain","question":"Can modest uniaxial strain redirect water uptake in a porous gel before its total uptake rate changes?","prediction":"Pore anisotropy redistributes the wetting front while integrated flow stays similar.","test":"Image benign gels under controlled strain with mass and directional tracer tracking.","contrary_outcome":"Front direction changes only alongside a proportional total uptake change.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0627","id":"S6-0627","volume":"900v6","title":"Soft coating scratch closure","prediction":"Polymer relaxation restores shape without restoring microscopic contact properties.","test":"Use benign coatings with profilometry and low-load friction mapping during recovery.","contrary":"Friction returns to baseline whenever the scratch profile recovers.","layers":[1,2],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0627","title":"Soft coating scratch closure","question":"Can a surface scratch close geometrically while retaining an altered local friction coefficient?","prediction":"Polymer relaxation restores shape without restoring microscopic contact properties.","test":"Use benign coatings with profilometry and low-load friction mapping during recovery.","contrary_outcome":"Friction returns to baseline whenever the scratch profile recovers.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0627","title":"Soft coating scratch closure","question":"Can a surface scratch close geometrically while retaining an altered local friction coefficient?","prediction":"Polymer relaxation restores shape without restoring microscopic contact properties.","test":"Use benign coatings with profilometry and low-load friction mapping during recovery.","contrary_outcome":"Friction returns to baseline whenever the scratch profile recovers.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0628","id":"S6-0628","volume":"900v6","title":"Drying film free-edge curl","prediction":"The support delays one strain component and stores a larger later mismatch.","test":"Dry benign water-based films with timed edge supports and mapped moisture histories.","contrary":"Support always reduces curl or effects vanish after moisture matching.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0628","title":"Drying film free-edge curl","question":"Can temporarily supporting a film edge during early drying increase final curl after support removal?","prediction":"The support delays one strain component and stores a larger later mismatch.","test":"Dry benign water-based films with timed edge supports and mapped moisture histories.","contrary_outcome":"Support always reduces curl or effects vanish after moisture matching.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0629","id":"S6-0629","volume":"900v6","title":"Viscoelastic bead contact switching","prediction":"Different relaxation histories create an initial overshoot.","test":"Measure a soft bead between independently driven supports with known force histories.","contrary":"Displacement moves monotonically toward its final state.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0629","title":"Viscoelastic bead contact switching","question":"Can an equal load transferred between two contacts produce a transient displacement opposite to its final displacement?","prediction":"Different relaxation histories create an initial overshoot.","test":"Measure a soft bead between independently driven supports with known force histories.","contrary_outcome":"Displacement moves monotonically toward its final state.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0630","id":"S6-0630","volume":"900v6","title":"Porous rubber liquid isolation","prediction":"Trapped liquid resists pore reopening until a leak path forms.","test":"Use benign water-filled foam models with controlled connected and sealed pockets and pressure sensing.","contrary":"Recovery depends only on liquid volume and bulk viscosity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0630","title":"Porous rubber liquid isolation","question":"Can an isolated liquid pocket delay recovery of a compressed porous rubber sample more than an equal connected liquid volume?","prediction":"Trapped liquid resists pore reopening until a leak path forms.","test":"Use benign water-filled foam models with controlled connected and sealed pockets and pressure sensing.","contrary_outcome":"Recovery depends only on liquid volume and bulk viscosity.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0631","id":"S6-0631","volume":"900v6","title":"Thin gel surface wash","prediction":"Optical weighting emphasizes a rapidly depleted near-surface layer.","test":"Measure benign dyed gels by calibrated color images and independent total dye extraction.","contrary":"Visible color loss tracks total dye loss proportionally.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0631","title":"Thin gel surface wash","question":"Can a brief surface wash remove most visible dye while leaving most total dye inside a gel?","prediction":"Optical weighting emphasizes a rapidly depleted near-surface layer.","test":"Measure benign dyed gels by calibrated color images and independent total dye extraction.","contrary_outcome":"Visible color loss tracks total dye loss proportionally.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0632","id":"S6-0632","volume":"900v6","title":"Crystalline bridge strain pulse","prediction":"Transient damage exposes new reactive area locally.","test":"Use benign salt bridges with modest forces, microscopy, and unloaded pulse-handling controls.","contrary":"Dissolution patterns reflect only preexisting area and flow exposure.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0632","title":"Crystalline bridge strain pulse","question":"Can a small mechanical pulse alter subsequent dissolution preferentially at a crystal bridge's compressed side?","prediction":"Transient damage exposes new reactive area locally.","test":"Use benign salt bridges with modest forces, microscopy, and unloaded pulse-handling controls.","contrary_outcome":"Dissolution patterns reflect only preexisting area and flow exposure.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0633","id":"S6-0633","volume":"900v6","title":"Adsorption layer compression","prediction":"Compression changes accessible binding volume and expels an enriched mobile fraction.","test":"Measure food-safe dye release, expelled water volume, and internal concentration under small reversible compression.","contrary":"Released dye equals the amount expected from bulk-concentration water displacement.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0633","title":"Adsorption layer compression","question":"Can compressing a benign adsorbing gel release tracer despite unchanged external concentration?","prediction":"Compression changes accessible binding volume and expels an enriched mobile fraction.","test":"Measure food-safe dye release, expelled water volume, and internal concentration under small reversible compression.","contrary_outcome":"Released dye equals the amount expected from bulk-concentration water displacement.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0634","id":"S6-0634","volume":"900v6","title":"Buffer front lateral escape","prediction":"Lateral solute supply bypasses local buffering and feeds the center downstream.","test":"Use weak food-grade acid in benign indicator gels with mapped side paths and neutral tracer controls.","contrary":"Central advance is fully predicted by one-dimensional buffering and diffusion.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0634","title":"Buffer front lateral escape","question":"Can a narrow unbuffered side route cause a buffered gel front to advance farther centrally than a uniform model predicts?","prediction":"Lateral solute supply bypasses local buffering and feeds the center downstream.","test":"Use weak food-grade acid in benign indicator gels with mapped side paths and neutral tracer controls.","contrary_outcome":"Central advance is fully predicted by one-dimensional buffering and diffusion.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0635","id":"S6-0635","volume":"900v6","title":"Salt crust underside fracture","prediction":"Differential shrinkage concentrates tensile stress at the concealed interface.","test":"Use benign saline films on transparent substrates with simultaneous top and underside imaging.","contrary":"All first cracks originate on the exposed surface or substrate defects.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0635","title":"Salt crust underside fracture","question":"Can a drying salt crust crack first on its underside while its top remains visually intact?","prediction":"Differential shrinkage concentrates tensile stress at the concealed interface.","test":"Use benign saline films on transparent substrates with simultaneous top and underside imaging.","contrary_outcome":"All first cracks originate on the exposed surface or substrate defects.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0636","id":"S6-0636","volume":"900v6","title":"Dissolving pellet rotation stop","prediction":"Shape evolution shifts the hydrodynamic torque through zero.","test":"Use tethered sugar pellets in gentle water flow with three-dimensional shape tracking and fixed-shape replicas.","contrary":"Stopping is caused by tether friction or falling flow speed.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0636","title":"Dissolving pellet rotation stop","question":"Can a rotating soluble pellet stop spontaneously while water continues flowing steadily past it?","prediction":"Shape evolution shifts the hydrodynamic torque through zero.","test":"Use tethered sugar pellets in gentle water flow with three-dimensional shape tracking and fixed-shape replicas.","contrary_outcome":"Stopping is caused by tether friction or falling flow speed.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0637","id":"S6-0637","volume":"900v6","title":"Gel-bound dye pulse memory","prediction":"Slow binding-site recovery preserves occupancy history.","test":"Use a precharacterized benign dye-gel pair with independent free-dye measurements and long-recovery controls.","contrary":"Retained fraction is identical once free dye is removed.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0637","title":"Gel-bound dye pulse memory","question":"Can two equal dye pulses produce unequal retained dye fractions in a gel after complete washout of free dye between pulses?","prediction":"Slow binding-site recovery preserves occupancy history.","test":"Use a precharacterized benign dye-gel pair with independent free-dye measurements and long-recovery controls.","contrary_outcome":"Retained fraction is identical once free dye is removed.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0638","id":"S6-0638","volume":"900v6","title":"Porous filter drying restart","prediction":"Mixed wet-dry pathways trap gas at critical throats.","test":"Measure low-pressure water restart in benign filters with imaged gas and standardized wetting histories.","contrary":"Restart pressure depends monotonically on remaining water content.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0638","title":"Porous filter drying restart","question":"Can partially drying a water-wetted filter raise its restart pressure more than complete drying followed by slow prewetting?","prediction":"Mixed wet-dry pathways trap gas at critical throats.","test":"Measure low-pressure water restart in benign filters with imaged gas and standardized wetting histories.","contrary_outcome":"Restart pressure depends monotonically on remaining water content.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0638","title":"Porous filter drying restart","question":"Can partially drying a water-wetted filter raise its restart pressure more than complete drying followed by slow prewetting?","prediction":"Mixed wet-dry pathways trap gas at critical throats.","test":"Measure low-pressure water restart in benign filters with imaged gas and standardized wetting histories.","contrary_outcome":"Restart pressure depends monotonically on remaining water content.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0639","id":"S6-0639","volume":"900v6","title":"Soft mineral layer shear wash","prediction":"Tangential contact renewal opens interfacial water paths.","test":"Compare calcium-carbonate-coated flexible coupons under measured orthogonal motions and matched flow.","contrary":"Removal depends only on total mechanical energy or peak acceleration.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0639","title":"Soft mineral layer shear wash","question":"Can subvisible lateral displacement of a benign mineral deposit accelerate its removal more than normal vibration of equal energy?","prediction":"Tangential contact renewal opens interfacial water paths.","test":"Compare calcium-carbonate-coated flexible coupons under measured orthogonal motions and matched flow.","contrary_outcome":"Removal depends only on total mechanical energy or peak acceleration.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0640","id":"S6-0640","volume":"900v6","title":"Solute front curvature reversal","prediction":"Different local partition delays overtake the initial geometric lead.","test":"Track food-safe tracer fronts through benign patterned gels with independently measured transport parameters.","contrary":"Curvature approaches zero without changing sign.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0640","title":"Solute front curvature reversal","question":"Can a curved diffusion front flatten and then curve in the opposite direction across a layered gel?","prediction":"Different local partition delays overtake the initial geometric lead.","test":"Track food-safe tracer fronts through benign patterned gels with independently measured transport parameters.","contrary_outcome":"Curvature approaches zero without changing sign.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0641","id":"S6-0641","volume":"900v6","title":"Capacitive foil wrinkle count","prediction":"Spatially resolved capacitance responds to the distribution of gaps.","test":"Use foil-insulator models with independent profilometry and held-out wrinkle patterns.","contrary":"Measurements recover only mean gap and cannot distinguish wrinkle counts.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0641","title":"Capacitive foil wrinkle count","question":"Can multiple low-voltage electrode measurements distinguish many shallow wrinkles from one deep wrinkle at equal mean separation?","prediction":"Spatially resolved capacitance responds to the distribution of gaps.","test":"Use foil-insulator models with independent profilometry and held-out wrinkle patterns.","contrary_outcome":"Measurements recover only mean gap and cannot distinguish wrinkle counts.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0642","id":"S6-0642","volume":"900v6","title":"Magnetic bead rolling rest","prediction":"Contact aging couples to the field-selected orientation of surface roughness.","test":"Use enclosed weak magnets, small bead motions, and independently measured roughness orientation.","contrary":"Rest thresholds depend only on final field and normal load.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0642","title":"Magnetic bead rolling rest","question":"Can a magnetically biased bead have a longer rest time after rolling in one direction than after reverse rolling at equal position?","prediction":"Contact aging couples to the field-selected orientation of surface roughness.","test":"Use enclosed weak magnets, small bead motions, and independently measured roughness orientation.","contrary_outcome":"Rest thresholds depend only on final field and normal load.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0643","id":"S6-0643","volume":"900v6","title":"Conductive cloth fold order","prediction":"Different internal layer contacts preserve fold order.","test":"Measure low-current cloth resistance with cross-sectional contact imaging and repeated unfolding controls.","contrary":"Resistance is identical whenever the final external geometry matches.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0643","title":"Conductive cloth fold order","question":"Can reversing two fold operations change the final resistance of conductive cloth at the same final outline?","prediction":"Different internal layer contacts preserve fold order.","test":"Measure low-current cloth resistance with cross-sectional contact imaging and repeated unfolding controls.","contrary_outcome":"Resistance is identical whenever the final external geometry matches.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0644","id":"S6-0644","volume":"900v6","title":"Electrical contact liquid retreat","prediction":"Thin isolated patches replace the connected liquid footprint.","test":"Use low-current measurements and calibrated microscope contact imaging with stationary-meniscus controls.","contrary":"Resistance changes follow visible footprint retreat or concentration alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0644","title":"Electrical contact liquid retreat","question":"Can resistance rise before a saline meniscus visibly leaves an electrode because the conducting contact becomes disconnected microscopically?","prediction":"Thin isolated patches replace the connected liquid footprint.","test":"Use low-current measurements and calibrated microscope contact imaging with stationary-meniscus controls.","contrary_outcome":"Resistance changes follow visible footprint retreat or concentration alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0645","id":"S6-0645","volume":"900v6","title":"Inductive mesh shear localization","prediction":"Local orientation changes alter the coil response despite fixed outer dimensions.","test":"Shear benign wire meshes gently with optical strain maps and rigid rotation controls.","contrary":"Signals are explained solely by total orientation or coil distance.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0645","title":"Inductive mesh shear localization","question":"Can a low-power coil detect a shear band in metal mesh before the mesh perimeter changes?","prediction":"Local orientation changes alter the coil response despite fixed outer dimensions.","test":"Shear benign wire meshes gently with optical strain maps and rigid rotation controls.","contrary_outcome":"Signals are explained solely by total orientation or coil distance.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0646","id":"S6-0646","volume":"900v6","title":"Static film peeling direction","prediction":"Contact-separation order leaves a directional charge distribution.","test":"Map small surface charges after opposite peel directions with humidity and adhesive controls.","contrary":"Charge maps are identical after rotation or differ only in total charge.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0646","title":"Static film peeling direction","question":"Can the direction of peeling an insulating film set the spatial polarity pattern of retained charge at similar total charge magnitude?","prediction":"Contact-separation order leaves a directional charge distribution.","test":"Map small surface charges after opposite peel directions with humidity and adhesive controls.","contrary_outcome":"Charge maps are identical after rotation or differ only in total charge.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0647","id":"S6-0647","volume":"900v6","title":"Saline bridge parallel sensing","prediction":"Interfacial and geometric contributions produce different complex response ratios.","test":"Measure water bridges with independent geometry and concentration controls over a modest safe frequency range.","contrary":"Both states have indistinguishable complex responses after electrode effects are removed.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0647","title":"Saline bridge parallel sensing","question":"Can two low-current frequencies distinguish a narrowing saline bridge from rising salinity at equal conductance?","prediction":"Interfacial and geometric contributions produce different complex response ratios.","test":"Measure water bridges with independent geometry and concentration controls over a modest safe frequency range.","contrary_outcome":"Both states have indistinguishable complex responses after electrode effects are removed.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0648","id":"S6-0648","volume":"900v6","title":"Magnetic ribbon torsion marker","prediction":"Spatial field ratios distinguish torsion from rigid rotation.","test":"Use enclosed markers on benign ribbons with optical ground truth and held-out motions.","contrary":"The inverse estimate confuses torsion and rigid rotation beyond declared error.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0648","title":"Magnetic ribbon torsion marker","question":"Can an embedded weak magnetic marker reveal local twist separately from whole-ribbon rotation using two sensor positions?","prediction":"Spatial field ratios distinguish torsion from rigid rotation.","test":"Use enclosed markers on benign ribbons with optical ground truth and held-out motions.","contrary_outcome":"The inverse estimate confuses torsion and rigid rotation beyond declared error.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0649","id":"S6-0649","volume":"900v6","title":"Capacitive foam wet layer","prediction":"Field orientation weights the layered water distribution differently.","test":"Use low-voltage guarded electrodes on benign foam with independently mapped water profiles.","contrary":"Only total water mass determines the measured capacitances.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0649","title":"Capacitive foam wet layer","question":"Can orthogonal capacitance measurements distinguish a thin wet layer from uniform wetting at equal total water mass?","prediction":"Field orientation weights the layered water distribution differently.","test":"Use low-voltage guarded electrodes on benign foam with independently mapped water profiles.","contrary_outcome":"Only total water mass determines the measured capacitances.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0649","title":"Capacitive foam wet layer","question":"Can orthogonal capacitance measurements distinguish a thin wet layer from uniform wetting at equal total water mass?","prediction":"Field orientation weights the layered water distribution differently.","test":"Use low-voltage guarded electrodes on benign foam with independently mapped water profiles.","contrary_outcome":"Only total water mass determines the measured capacitances.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0650","id":"S6-0650","volume":"900v6","title":"Resistive trace knot strain","prediction":"Loop opening absorbs extension before the coated thread strains.","test":"Measure low-current resistance and local strain in knotted and straight benign conductive threads at matched end motion.","contrary":"Resistance stability is explained only by longer total thread length.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0650","title":"Resistive trace knot strain","question":"Can a loose knot protect a conductive thread from resistance drift during repeated endpoint extension?","prediction":"Loop opening absorbs extension before the coated thread strains.","test":"Measure low-current resistance and local strain in knotted and straight benign conductive threads at matched end motion.","contrary_outcome":"Resistance stability is explained only by longer total thread length.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0651","id":"S6-0651","volume":"900v6","title":"Weak field particle raft split","prediction":"Boundary force bias redirects the crack through the raft interior.","test":"Use enclosed small magnetic particles, inert neighbors, weak fields, and imaged contact networks.","contrary":"Separation location follows only initial raft defects and imposed extension direction.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0651","title":"Weak field particle raft split","question":"Can a few magnetic boundary particles select where a nonmagnetic floating raft first separates under gentle extension?","prediction":"Boundary force bias redirects the crack through the raft interior.","test":"Use enclosed small magnetic particles, inert neighbors, weak fields, and imaged contact networks.","contrary_outcome":"Separation location follows only initial raft defects and imposed extension direction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0652","id":"S6-0652","volume":"900v6","title":"Electrode spacing gel recovery","prediction":"Debonding changes local contact response without the bulk geometric signature.","test":"Use benign saline gels with independent imaging and deliberately introduced contact defects.","contrary":"Both mechanisms remain indistinguishable after paired measurement.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0652","title":"Electrode spacing gel recovery","question":"Can paired electrical measurements distinguish gel recovery from electrode debonding during repeated mild strain?","prediction":"Debonding changes local contact response without the bulk geometric signature.","test":"Use benign saline gels with independent imaging and deliberately introduced contact defects.","contrary_outcome":"Both mechanisms remain indistinguishable after paired measurement.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0653","id":"S6-0653","volume":"900v6","title":"Flexible nozzle bubble tilt","prediction":"A pinned growing meniscus stores the earlier nozzle orientation.","test":"Measure low-pressure air bubbles in water with synchronized nozzle shape and bubble tracking.","contrary":"Detachment direction depends only on nozzle orientation at release.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0653","title":"Flexible nozzle bubble tilt","question":"Can tilting a soft nozzle after bubble initiation change detachment direction more than tilting before initiation?","prediction":"A pinned growing meniscus stores the earlier nozzle orientation.","test":"Measure low-pressure air bubbles in water with synchronized nozzle shape and bubble tracking.","contrary_outcome":"Detachment direction depends only on nozzle orientation at release.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0654","id":"S6-0654","volume":"900v6","title":"Flow pulse porous refuge","prediction":"Rapid flow skims the pocket while slower flow allows exchange.","test":"Measure food-dye washout and local velocity in transparent porous-pocket models.","contrary":"Retention depends only on total water throughput.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0654","title":"Flow pulse porous refuge","question":"Can a porous side pocket retain tracer through a strong pulse better than through weak steady flow of equal volume?","prediction":"Rapid flow skims the pocket while slower flow allows exchange.","test":"Measure food-dye washout and local velocity in transparent porous-pocket models.","contrary_outcome":"Retention depends only on total water throughput.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0655","id":"S6-0655","volume":"900v6","title":"Drain grate orientation noise","prediction":"Orientation changes intermittent air-water exchange without much changing hydraulic resistance.","test":"Record sound, air entry, and water discharge in low-head drains with rotated equal-area grates.","contrary":"Noise changes scale directly with discharge changes.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0655","title":"Drain grate orientation noise","question":"Can rotating a grate alter drainage noise substantially while leaving mean discharge nearly unchanged?","prediction":"Orientation changes intermittent air-water exchange without much changing hydraulic resistance.","test":"Record sound, air entry, and water discharge in low-head drains with rotated equal-area grates.","contrary_outcome":"Noise changes scale directly with discharge changes.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0656","id":"S6-0656","volume":"900v6","title":"Water column compliant foot","prediction":"Initial deformation changes the boundary's transient compliance.","test":"Use small low-pressure water columns with measured soft-boundary displacement and multiple pulse reflections.","contrary":"Reflection delays remain constant after accounting for propagation distance.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0656","title":"Water column compliant foot","question":"Can a soft bottom cushion delay the first reflected pressure pulse more than subsequent pulses?","prediction":"Initial deformation changes the boundary's transient compliance.","test":"Use small low-pressure water columns with measured soft-boundary displacement and multiple pulse reflections.","contrary_outcome":"Reflection delays remain constant after accounting for propagation distance.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0657","id":"S6-0657","volume":"900v6","title":"Baffle opening vortex phase","prediction":"Phase selects which vortex transports tracer across the opening.","test":"Use low-speed water oscillations with food dye, measured baffle motion, and zero-mean-flow controls.","contrary":"Transfer sign depends only on mean pressure difference.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0657","title":"Baffle opening vortex phase","question":"Can opening a baffle at different phases of an oscillatory flow reverse net tracer transfer through it?","prediction":"Phase selects which vortex transports tracer across the opening.","test":"Use low-speed water oscillations with food dye, measured baffle motion, and zero-mean-flow controls.","contrary_outcome":"Transfer sign depends only on mean pressure difference.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0658","id":"S6-0658","volume":"900v6","title":"Surface raft wave shelter","prediction":"Momentum is redirected into subsurface flow rather than dissipated entirely.","test":"Measure gentle waves and particle-tracked water velocity around benign floating arrays.","contrary":"Wave attenuation is accompanied only by reduced velocity at all depths.","layers":[1,2],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0658","title":"Surface raft wave shelter","question":"Can a sparse floating raft reduce wave motion behind it while increasing local water velocity beneath it?","prediction":"Momentum is redirected into subsurface flow rather than dissipated entirely.","test":"Measure gentle waves and particle-tracked water velocity around benign floating arrays.","contrary_outcome":"Wave attenuation is accompanied only by reduced velocity at all depths.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0658","title":"Surface raft wave shelter","question":"Can a sparse floating raft reduce wave motion behind it while increasing local water velocity beneath it?","prediction":"Momentum is redirected into subsurface flow rather than dissipated entirely.","test":"Measure gentle waves and particle-tracked water velocity around benign floating arrays.","contrary_outcome":"Wave attenuation is accompanied only by reduced velocity at all depths.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0659","id":"S6-0659","volume":"900v6","title":"Tapered channel air clearance","prediction":"The upstream widening changes bubble pressure and contact-line release order.","test":"Compare low-head water channels with controlled bubble sizes and interchangeable widening positions.","contrary":"Clearance depends only on maximum width and total pressure drop.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0659","title":"Tapered channel air clearance","question":"Can a short widening remove a trapped bubble more reliably when placed upstream rather than downstream at equal added volume?","prediction":"The upstream widening changes bubble pressure and contact-line release order.","test":"Compare low-head water channels with controlled bubble sizes and interchangeable widening positions.","contrary_outcome":"Clearance depends only on maximum width and total pressure drop.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0660","id":"S6-0660","volume":"900v6","title":"Suspended disk flow hysteresis","prediction":"Wake and tether coupling preserve two stable orientation states.","test":"Track benign disks in low-speed water with calibrated tethers and repeated speed ramps.","contrary":"Tilt is a unique function of current flow speed and tether extension.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0660","title":"Suspended disk flow hysteresis","question":"Can a freely suspended disk keep a different tilt after upward and downward flow ramps reach the same speed?","prediction":"Wake and tether coupling preserve two stable orientation states.","test":"Track benign disks in low-speed water with calibrated tethers and repeated speed ramps.","contrary_outcome":"Tilt is a unique function of current flow speed and tether extension.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0661","id":"S6-0661","volume":"900v6","title":"Wedge reservoir front delay","prediction":"A pinned entrance meniscus stores the added head until depinning.","test":"Measure water level, pressure, and front position during slow filling and draining.","contrary":"Front speed follows head continuously without a distinct release.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0661","title":"Wedge reservoir front delay","question":"Can a wedge reservoir delay capillary filling after its liquid level rises?","prediction":"A pinned entrance meniscus stores the added head until depinning.","test":"Measure water level, pressure, and front position during slow filling and draining.","contrary_outcome":"Front speed follows head continuously without a distinct release.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0662","id":"S6-0662","volume":"900v6","title":"Perimeter groove overflow","prediction":"The groove stores liquid before connecting a wider outflow path.","test":"Weigh water entering and leaving a grooved tray; image connectivity transitions.","contrary":"Overflow onset and rate follow storage volume alone.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0662","title":"Perimeter groove overflow","question":"Can a shallow groove delay overflow yet increase the eventual overflow rate?","prediction":"The groove stores liquid before connecting a wider outflow path.","test":"Weigh water entering and leaving a grooved tray; image connectivity transitions.","contrary_outcome":"Overflow onset and rate follow storage volume alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0663","id":"S6-0663","volume":"900v6","title":"Suspended ring liquid transfer","prediction":"Contact-line pinning biases bridge splitting against gravity.","test":"Image slowly separated rings with independently weighed collectors and reversed surface patterns.","contrary":"Transfer follows gravity and contact area regardless of pinning.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0663","title":"Suspended ring liquid transfer","question":"Can lifting a wetted ring transfer more water to its upper contact than its lower contact?","prediction":"Contact-line pinning biases bridge splitting against gravity.","test":"Image slowly separated rings with independently weighed collectors and reversed surface patterns.","contrary_outcome":"Transfer follows gravity and contact area regardless of pinning.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0664","id":"S6-0664","volume":"900v6","title":"Dead pore compression release","prediction":"Near-mouth concentration enrichment produces a solute-rich first fraction.","test":"Sample water expelled from transparent benign tracer pores during controlled compression.","contrary":"Effluent concentration equals the pore-average concentration throughout.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0664","title":"Dead pore compression release","question":"Can compressing a dead pore expel dissolved tracer before most pore water leaves?","prediction":"Near-mouth concentration enrichment produces a solute-rich first fraction.","test":"Sample water expelled from transparent benign tracer pores during controlled compression.","contrary_outcome":"Effluent concentration equals the pore-average concentration throughout.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0665","id":"S6-0665","volume":"900v6","title":"Capillary ladder branch restart","prediction":"Air invasion changes the shared liquid-pressure network.","test":"Image water-filled porous ladder models while selectively drying one rung.","contrary":"Adjacent flow changes only after direct liquid connection breaks.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0665","title":"Capillary ladder branch restart","question":"Can drying one rung restart flow in a stalled adjacent rung?","prediction":"Air invasion changes the shared liquid-pressure network.","test":"Image water-filled porous ladder models while selectively drying one rung.","contrary_outcome":"Adjacent flow changes only after direct liquid connection breaks.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0666","id":"S6-0666","volume":"900v6","title":"Droplet edge thermal steering","prediction":"Temperature-dependent surface tension redistributes the perimeter first.","test":"Measure droplet contour, temperature, and centroid under small cooling spots.","contrary":"Contour changes follow only bulk volume loss or substrate deformation.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0666","title":"Droplet edge thermal steering","question":"Can localized mild cooling move a pinned droplet edge without moving its center?","prediction":"Temperature-dependent surface tension redistributes the perimeter first.","test":"Measure droplet contour, temperature, and centroid under small cooling spots.","contrary_outcome":"Contour changes follow only bulk volume loss or substrate deformation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0667","id":"S6-0667","volume":"900v6","title":"Fold reservoir siphon break","prediction":"The moving crease draws air from a trapped pocket into the flow.","test":"Use transparent low-head folded channels with vent-blocked controls and pressure sensing.","contrary":"Siphon failure requires intake exposure or external leakage.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0667","title":"Fold reservoir siphon break","question":"Can unfolding a water-holding crease break a siphon without exposing its intake?","prediction":"The moving crease draws air from a trapped pocket into the flow.","test":"Use transparent low-head folded channels with vent-blocked controls and pressure sensing.","contrary_outcome":"Siphon failure requires intake exposure or external leakage.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0668","id":"S6-0668","volume":"900v6","title":"Porous bridge directional refill","prediction":"Residual connected liquid paths preserve drainage history.","test":"Image water uptake from identical end reservoirs after reversed drainage sequences.","contrary":"Refill symmetry returns whenever end pressure and total moisture match.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0668","title":"Porous bridge directional refill","question":"Can a porous bridge refill preferentially from the end that was emptied last?","prediction":"Residual connected liquid paths preserve drainage history.","test":"Image water uptake from identical end reservoirs after reversed drainage sequences.","contrary_outcome":"Refill symmetry returns whenever end pressure and total moisture match.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0669","id":"S6-0669","volume":"900v6","title":"Liquid seam pressure isolation","prediction":"A pinned meniscus prevents pressure equilibration until its threshold is crossed.","test":"Measure compartment pressures and seam geometry during modest pressure steps.","contrary":"Pressure equalizes immediately through the seam in every state.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0669","title":"Liquid seam pressure isolation","question":"Can a narrow water seam isolate pressure between two connected compartments temporarily?","prediction":"A pinned meniscus prevents pressure equilibration until its threshold is crossed.","test":"Measure compartment pressures and seam geometry during modest pressure steps.","contrary_outcome":"Pressure equalizes immediately through the seam in every state.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0669","title":"Liquid seam pressure isolation","question":"Can a narrow water seam isolate pressure between two connected compartments temporarily?","prediction":"A pinned meniscus prevents pressure equilibration until its threshold is crossed.","test":"Measure compartment pressures and seam geometry during modest pressure steps.","contrary_outcome":"Pressure equalizes immediately through the seam in every state.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0670","id":"S6-0670","volume":"900v6","title":"Spiral wick front overtaking","prediction":"Cross-turn transfer bypasses the long axial route.","test":"Track dyed water on controlled spirals with separated-turn controls.","contrary":"Front order follows axial distance regardless of neighboring turns.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0670","title":"Spiral wick front overtaking","question":"Can a later wetting front overtake an earlier one in adjacent turns of a spiral wick?","prediction":"Cross-turn transfer bypasses the long axial route.","test":"Track dyed water on controlled spirals with separated-turn controls.","contrary_outcome":"Front order follows axial distance regardless of neighboring turns.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0671","id":"S6-0671","volume":"900v6","title":"Surface ridge drop pairing","prediction":"Their coupled pressure fields trigger a local bridge across the ridge.","test":"Measure droplet geometry and merge thresholds against isolated-drop controls.","contrary":"Thresholds are predicted entirely by the larger isolated drop.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0671","title":"Surface ridge drop pairing","question":"Can a shallow ridge make two nearby drops merge at lower total volume than either drop crosses it alone?","prediction":"Their coupled pressure fields trigger a local bridge across the ridge.","test":"Measure droplet geometry and merge thresholds against isolated-drop controls.","contrary_outcome":"Thresholds are predicted entirely by the larger isolated drop.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0672","id":"S6-0672","volume":"900v6","title":"Bubble neck contact echo","prediction":"Residual shape oscillations alter later neck thinning.","test":"Track low-pressure bubbles with and without controlled brief contacts at matched size.","contrary":"Neck dynamics depend only on current bubble geometry and flow.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0672","title":"Bubble neck contact echo","question":"Can a bubble's neck motion retain a signature of a prior wall contact after the bubble leaves the wall?","prediction":"Residual shape oscillations alter later neck thinning.","test":"Track low-pressure bubbles with and without controlled brief contacts at matched size.","contrary_outcome":"Neck dynamics depend only on current bubble geometry and flow.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0673","id":"S6-0673","volume":"900v6","title":"Wetting line optical transport","prediction":"Specks remain trapped at the moving interface.","test":"Track benign particles and fluid tracers separately during controlled water-line motion.","contrary":"Speck displacement matches bulk fluid advection within uncertainty.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0673","title":"Wetting line optical transport","question":"Can a translating contact line carry inert floating specks farther than the local water displacement?","prediction":"Specks remain trapped at the moving interface.","test":"Track benign particles and fluid tracers separately during controlled water-line motion.","contrary_outcome":"Speck displacement matches bulk fluid advection within uncertainty.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0674","id":"S6-0674","volume":"900v6","title":"Porous strip lateral sealing","prediction":"Blocked lateral air invasion preserves a connected liquid supply to the exposed face.","test":"Compare benign porous strips with equal-area edge and face sealing using mass and moisture maps.","contrary":"Initial loss decreases solely with exposed area.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0674","title":"Porous strip lateral sealing","question":"Can sealing a narrow side edge make a drying strip lose water faster initially?","prediction":"Blocked lateral air invasion preserves a connected liquid supply to the exposed face.","test":"Compare benign porous strips with equal-area edge and face sealing using mass and moisture maps.","contrary_outcome":"Initial loss decreases solely with exposed area.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0675","id":"S6-0675","volume":"900v6","title":"Water bridge support roughness","prediction":"Pinning biases liquid partition more strongly than bridge stability.","test":"Image water-bridge rupture on matched supports with roughness swapped.","contrary":"Retained volume and rupture distance always change proportionally.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0675","title":"Water bridge support roughness","question":"Can roughness on one support change which side retains a ruptured bridge without changing rupture distance appreciably?","prediction":"Pinning biases liquid partition more strongly than bridge stability.","test":"Image water-bridge rupture on matched supports with roughness swapped.","contrary_outcome":"Retained volume and rupture distance always change proportionally.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0676","id":"S6-0676","volume":"900v6","title":"Granular cavity roof tilt","prediction":"Tilt recruits frictional side contacts into the arch.","test":"Use inert beads, small transparent cavities, and measured boundary forces.","contrary":"Supported load decreases monotonically with roof tilt.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0676","title":"Granular cavity roof tilt","question":"Can tilting a cavity roof slightly increase its supported grain load?","prediction":"Tilt recruits frictional side contacts into the arch.","test":"Use inert beads, small transparent cavities, and measured boundary forces.","contrary_outcome":"Supported load decreases monotonically with roof tilt.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0677","id":"S6-0677","volume":"900v6","title":"Rolling grain temporary ledge","prediction":"The ledge converts rolling motion into a reversed recoil.","test":"Track inert grains on low slopes with calibrated ledge timing.","contrary":"Final positions are explained by ordinary rolling resistance alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0677","title":"Rolling grain temporary ledge","question":"Can a retracting ledge make a grain stop upstream of its original rest point?","prediction":"The ledge converts rolling motion into a reversed recoil.","test":"Track inert grains on low slopes with calibrated ledge timing.","contrary_outcome":"Final positions are explained by ordinary rolling resistance alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0678","id":"S6-0678","volume":"900v6","title":"Disk bed shear release","prediction":"A force-chain rotation concentrates load transiently.","test":"Use photoelastic disks with synchronized wall release and high-speed imaging.","contrary":"All mean contact forces fall monotonically after release.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0678","title":"Disk bed shear release","question":"Can releasing lateral confinement increase mean contact force briefly before the bed expands?","prediction":"A force-chain rotation concentrates load transiently.","test":"Use photoelastic disks with synchronized wall release and high-speed imaging.","contrary_outcome":"All mean contact forces fall monotonically after release.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0678","title":"Disk bed shear release","question":"Can releasing lateral confinement increase mean contact force briefly before the bed expands?","prediction":"A force-chain rotation concentrates load transiently.","test":"Use photoelastic disks with synchronized wall release and high-speed imaging.","contrary_outcome":"All mean contact forces fall monotonically after release.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0679","id":"S6-0679","volume":"900v6","title":"Granular inclusion rotation lag","prediction":"Delayed frictional relaxation transfers residual torque.","test":"Track inert inclusions and neighbors after gentle shear cessation.","contrary":"Rotation stops whenever local translational motion stops.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0679","title":"Granular inclusion rotation lag","question":"Can a large inclusion rotate after surrounding grains have stopped translating?","prediction":"Delayed frictional relaxation transfers residual torque.","test":"Track inert inclusions and neighbors after gentle shear cessation.","contrary_outcome":"Rotation stops whenever local translational motion stops.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0680","id":"S6-0680","volume":"900v6","title":"Hopper wall pulse location","prediction":"A remote force-chain perturbation destabilizes the supporting arch.","test":"Compare equal-energy pulses at multiple heights in a small inert-bead hopper.","contrary":"Clearing probability decreases strictly with pulse distance from the arch.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0680","title":"Hopper wall pulse location","question":"Can a small wall pulse clear a blockage more reliably when applied away from the outlet?","prediction":"A remote force-chain perturbation destabilizes the supporting arch.","test":"Compare equal-energy pulses at multiple heights in a small inert-bead hopper.","contrary_outcome":"Clearing probability decreases strictly with pulse distance from the arch.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0681","id":"S6-0681","volume":"900v6","title":"Wet bead neck displacement","prediction":"Contact-line motion draws liquid across the neck.","test":"Image water bridges between inert spheres under measured lateral displacement.","contrary":"Volume partition changes only after the bridge ruptures.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0681","title":"Wet bead neck displacement","question":"Can translating one sphere sideways increase capillary-bridge volume on that sphere before rupture?","prediction":"Contact-line motion draws liquid across the neck.","test":"Image water bridges between inert spheres under measured lateral displacement.","contrary_outcome":"Volume partition changes only after the bridge ruptures.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0682","id":"S6-0682","volume":"900v6","title":"Grain bed indentation shielding","prediction":"Packing rearrangement leaves a remote weak zone.","test":"Measure repeated small indentations in tracked inert-disk beds with swapped locations.","contrary":"Force changes remain confined to the first indentation footprint.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0682","title":"Grain bed indentation shielding","question":"Can a shallow prior indentation reduce the force needed at a distant later indentation?","prediction":"Packing rearrangement leaves a remote weak zone.","test":"Measure repeated small indentations in tracked inert-disk beds with swapped locations.","contrary_outcome":"Force changes remain confined to the first indentation footprint.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0683","id":"S6-0683","volume":"900v6","title":"Particle raft corner pinning","prediction":"Boundary constraint redirects tensile load paths.","test":"Extend inert floating rafts with instrumented pins and imaged contacts.","contrary":"Remote edge failure is unchanged after total force is matched.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0683","title":"Particle raft corner pinning","question":"Can pinning one raft corner suppress separation along a remote edge?","prediction":"Boundary constraint redirects tensile load paths.","test":"Extend inert floating rafts with instrumented pins and imaged contacts.","contrary_outcome":"Remote edge failure is unchanged after total force is matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0684","id":"S6-0684","volume":"900v6","title":"Shear band grain exchange","prediction":"Band termination drives secondary exchange.","test":"Track inert particles in a transparent shear cell with full velocity gradients.","contrary":"Crossing frequency depends only on local shear rate.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0684","title":"Shear band grain exchange","question":"Can grains cross a shear band more often near its ends than its center at equal local strain rate?","prediction":"Band termination drives secondary exchange.","test":"Track inert particles in a transparent shear cell with full velocity gradients.","contrary_outcome":"Crossing frequency depends only on local shear rate.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0685","id":"S6-0685","volume":"900v6","title":"Tapping bed buried shelf","prediction":"The shelf redirects convection and changes the intruder's transport path.","test":"Use benign bead beds with controlled shelf depth and acceleration.","contrary":"Intruder motion follows density and size regardless of shelf location.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0685","title":"Tapping bed buried shelf","question":"Can a buried shelf reverse the vertical migration of a large intruder during tapping?","prediction":"The shelf redirects convection and changes the intruder's transport path.","test":"Use benign bead beds with controlled shelf depth and acceleration.","contrary_outcome":"Intruder motion follows density and size regardless of shelf location.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0686","id":"S6-0686","volume":"900v6","title":"Loose layer impact spreading","prediction":"Early rearrangement recruits a wider contact network.","test":"Use small soft impacts, inert disks, and distributed force sensors.","contrary":"Force footprint depends only on mass and peak input force.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0686","title":"Loose layer impact spreading","question":"Can a thin loose grain layer spread an impact more widely than a densely packed layer of equal mass?","prediction":"Early rearrangement recruits a wider contact network.","test":"Use small soft impacts, inert disks, and distributed force sensors.","contrary_outcome":"Force footprint depends only on mass and peak input force.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0687","id":"S6-0687","volume":"900v6","title":"Grain outlet air relief","prediction":"Pressure relaxation suppresses stop-start grain motion.","test":"Measure small enclosed inert-bead discharge with pressure sensors and sham vents.","contrary":"Intermittency is independent of internal air pressure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0687","title":"Grain outlet air relief","question":"Can venting trapped air reduce intermittent flow without changing the mean outlet size?","prediction":"Pressure relaxation suppresses stop-start grain motion.","test":"Measure small enclosed inert-bead discharge with pressure sensors and sham vents.","contrary_outcome":"Intermittency is independent of internal air pressure.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0688","id":"S6-0688","volume":"900v6","title":"Inclined granular seam healing","prediction":"Directional interlocking creates anisotropic cohesion.","test":"Use inert rough particles with matched packing and orthogonal force tests.","contrary":"Strength changes are isotropic or follow density alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0688","title":"Inclined granular seam healing","question":"Can repeated weak downslope motion strengthen a seam against cross-slope separation?","prediction":"Directional interlocking creates anisotropic cohesion.","test":"Use inert rough particles with matched packing and orthogonal force tests.","contrary_outcome":"Strength changes are isotropic or follow density alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0689","id":"S6-0689","volume":"900v6","title":"Dense suspension rest layering","prediction":"Settling and wall interactions establish a persistent structure.","test":"Image benign bead-water suspensions before and after controlled pauses.","contrary":"Layering disappears immediately when the original shear rate resumes.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0689","title":"Dense suspension rest layering","question":"Can a brief rest create wall-normal particle layering that survives resumed flow temporarily?","prediction":"Settling and wall interactions establish a persistent structure.","test":"Image benign bead-water suspensions before and after controlled pauses.","contrary_outcome":"Layering disappears immediately when the original shear rate resumes.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0689","title":"Dense suspension rest layering","question":"Can a brief rest create wall-normal particle layering that survives resumed flow temporarily?","prediction":"Settling and wall interactions establish a persistent structure.","test":"Image benign bead-water suspensions before and after controlled pauses.","contrary_outcome":"Layering disappears immediately when the original shear rate resumes.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0690","id":"S6-0690","volume":"900v6","title":"Granular ring load bypass","prediction":"Arching around the ring carries load along its perimeter.","test":"Map forces in photoelastic disk beds with hollow and solid inserts.","contrary":"Central stress follows excluded area alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0690","title":"Granular ring load bypass","question":"Can an internal empty ring divert stress away from its center more than a solid inclusion of equal outer size?","prediction":"Arching around the ring carries load along its perimeter.","test":"Map forces in photoelastic disk beds with hollow and solid inserts.","contrary_outcome":"Central stress follows excluded area alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0691","id":"S6-0691","volume":"900v6","title":"Heating pulse support release","prediction":"Elastic relaxation improves contact with another heat sink.","test":"Measure safe-temperature surfaces, support force, and heat flux during timed release.","contrary":"Cooling changes are explained by exposed area and convection alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0691","title":"Heating pulse support release","question":"Can releasing a thermal support after heating increase a surface's initial cooling rate?","prediction":"Elastic relaxation improves contact with another heat sink.","test":"Measure safe-temperature surfaces, support force, and heat flux during timed release.","contrary_outcome":"Cooling changes are explained by exposed area and convection alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0692","id":"S6-0692","volume":"900v6","title":"Warm film airflow phase","prediction":"Boundary-layer renewal lags film motion.","test":"Synchronize low-power film temperature, motion, and airflow measurements.","contrary":"Heat transfer peaks exactly with instantaneous velocity after sensor-delay correction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0692","title":"Warm film airflow phase","question":"Can a flapping film cool best at a phase different from maximum local air velocity?","prediction":"Boundary-layer renewal lags film motion.","test":"Synchronize low-power film temperature, motion, and airflow measurements.","contrary_outcome":"Heat transfer peaks exactly with instantaneous velocity after sensor-delay correction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0693","id":"S6-0693","volume":"900v6","title":"Double reservoir thermal gate","prediction":"The intermediate contact equalizes internal gradients before final cooling.","test":"Measure internal temperatures under matched-energy staged and direct cooling.","contrary":"Final temperature spread depends only on extracted heat.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0693","title":"Double reservoir thermal gate","question":"Can connecting a warm object briefly to an intermediate reservoir reduce its final temperature spread?","prediction":"The intermediate contact equalizes internal gradients before final cooling.","test":"Measure internal temperatures under matched-energy staged and direct cooling.","contrary_outcome":"Final temperature spread depends only on extracted heat.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0694","id":"S6-0694","volume":"900v6","title":"Porous contact humidity heat","prediction":"Adsorption near microcontacts changes thermal coupling early.","test":"Use benign porous contacts with modest temperature difference, mass sensing, and humidity control.","contrary":"Flux changes begin only with measurable bulk uptake.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0694","title":"Porous contact humidity heat","question":"Can a humidity step change contact heat flux before measurable bulk water uptake?","prediction":"Adsorption near microcontacts changes thermal coupling early.","test":"Use benign porous contacts with modest temperature difference, mass sensing, and humidity control.","contrary_outcome":"Flux changes begin only with measurable bulk uptake.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0695","id":"S6-0695","volume":"900v6","title":"Radiative slot cooling order","prediction":"View-factor changes redistribute radiative exchange.","test":"Use mildly warm objects, calibrated emissivities, and multi-point thermometry.","contrary":"Cooling order is determined solely by object heat capacities.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0695","title":"Radiative slot cooling order","question":"Can rotating a narrow enclosure slot change cooling order among internal objects at matched total heat loss?","prediction":"View-factor changes redistribute radiative exchange.","test":"Use mildly warm objects, calibrated emissivities, and multi-point thermometry.","contrary_outcome":"Cooling order is determined solely by object heat capacities.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0696","id":"S6-0696","volume":"900v6","title":"Thermal bridge flex release","prediction":"Microcontact reseating preserves an improved conduction path.","test":"Measure low-temperature conductance before and after gentle flexing with flatness controls.","contrary":"Conductance returns to baseline whenever shape and pressure recover.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0696","title":"Thermal bridge flex release","question":"Can flexing a warm laminated bridge reduce thermal resistance after it returns flat?","prediction":"Microcontact reseating preserves an improved conduction path.","test":"Measure low-temperature conductance before and after gentle flexing with flatness controls.","contrary_outcome":"Conductance returns to baseline whenever shape and pressure recover.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0697","id":"S6-0697","volume":"900v6","title":"Ice cavity melt circulation","prediction":"Internal circulation redirects heat toward one face.","test":"Use small water-ice models with cavity imaging and controlled external temperature.","contrary":"External melt pattern follows wall temperature alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0697","title":"Ice cavity melt circulation","question":"Can a small trapped water cavity determine where an ice block melts fastest externally?","prediction":"Internal circulation redirects heat toward one face.","test":"Use small water-ice models with cavity imaging and controlled external temperature.","contrary_outcome":"External melt pattern follows wall temperature alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0698","id":"S6-0698","volume":"900v6","title":"Warm porous rim drying","prediction":"Rim evaporation disconnects liquid pathways feeding the center.","test":"Measure benign wet disks with thermal imaging, mass, and spatial moisture maps.","contrary":"Center drying rate is determined only by local temperature.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0698","title":"Warm porous rim drying","question":"Can a heated rim slow center drying compared with uniform heating at equal total power?","prediction":"Rim evaporation disconnects liquid pathways feeding the center.","test":"Measure benign wet disks with thermal imaging, mass, and spatial moisture maps.","contrary_outcome":"Center drying rate is determined only by local temperature.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0699","id":"S6-0699","volume":"900v6","title":"Thermal strap contact sequence","prediction":"Staged heat removal limits transient temperature gradients.","test":"Use safe-temperature strips with strain and temperature maps at matched extracted heat.","contrary":"Peak strain depends only on total heat extraction rate.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0699","title":"Thermal strap contact sequence","question":"Can sequentially engaging two heat straps reduce peak thermal stress relative to simultaneous engagement?","prediction":"Staged heat removal limits transient temperature gradients.","test":"Use safe-temperature strips with strain and temperature maps at matched extracted heat.","contrary_outcome":"Peak strain depends only on total heat extraction rate.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0700","id":"S6-0700","volume":"900v6","title":"Enclosure vent closing overshoot","prediction":"Residual circulation continues while external heat inflow is reduced.","test":"Measure low-power enclosures with fast air and wall thermometry.","contrary":"Temperature rises immediately after closure once sensor lag is removed.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0700","title":"Enclosure vent closing overshoot","question":"Can closing a passive vent briefly cool an enclosure further before warming begins?","prediction":"Residual circulation continues while external heat inflow is reduced.","test":"Measure low-power enclosures with fast air and wall thermometry.","contrary_outcome":"Temperature rises immediately after closure once sensor lag is removed.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0700","title":"Enclosure vent closing overshoot","question":"Can closing a passive vent briefly cool an enclosure further before warming begins?","prediction":"Residual circulation continues while external heat inflow is reduced.","test":"Measure low-power enclosures with fast air and wall thermometry.","contrary_outcome":"Temperature rises immediately after closure once sensor lag is removed.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0701","id":"S6-0701","volume":"900v6","title":"Acoustic cloth wet stripe","prediction":"Directional mass and damping redistribute a near-degenerate mode pair.","test":"Map low-amplitude vibration while varying stripe direction at matched water mass.","contrary":"Mode direction follows the clamps regardless of wet stripe.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0701","title":"Acoustic cloth wet stripe","question":"Can one wet stripe rotate a fabric membrane's nodal pattern without a large frequency shift?","prediction":"Directional mass and damping redistribute a near-degenerate mode pair.","test":"Map low-amplitude vibration while varying stripe direction at matched water mass.","contrary_outcome":"Mode direction follows the clamps regardless of wet stripe.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0702","id":"S6-0702","volume":"900v6","title":"Quiet cavity moving floor","prediction":"The motion changes lining participation without much changing effective volume.","test":"Measure low-level impulse responses across floor positions with leakage controls.","contrary":"Decay changes scale directly with frequency shifts and volume.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0702","title":"Quiet cavity moving floor","question":"Can slow floor motion change acoustic decay more than resonance frequency in a cavity with a porous lining?","prediction":"The motion changes lining participation without much changing effective volume.","test":"Measure low-level impulse responses across floor positions with leakage controls.","contrary_outcome":"Decay changes scale directly with frequency shifts and volume.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0703","id":"S6-0703","volume":"900v6","title":"Soft stop double impact","prediction":"Internal recovery redistributes load during continuous contact.","test":"Use a guarded small beam, high-speed imaging, and force sensing.","contrary":"A second peak occurs only after complete loss of contact.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0703","title":"Soft stop double impact","question":"Can a soft stop produce two separated force peaks from one beam impact without rebound contact loss?","prediction":"Internal recovery redistributes load during continuous contact.","test":"Use a guarded small beam, high-speed imaging, and force sensing.","contrary_outcome":"A second peak occurs only after complete loss of contact.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0703","title":"Soft stop double impact","question":"Can a soft stop produce two separated force peaks from one beam impact without rebound contact loss?","prediction":"Internal recovery redistributes load during continuous contact.","test":"Use a guarded small beam, high-speed imaging, and force sensing.","contrary_outcome":"A second peak occurs only after complete loss of contact.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0704","id":"S6-0704","volume":"900v6","title":"String moisture localization","prediction":"Position-dependent damping adds information beyond total added mass.","test":"Wet benign strings at concealed positions and validate estimates across volumes.","contrary":"Localization accuracy is no better than frequency-only estimates.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0704","title":"String moisture localization","question":"Can two resonance decay rates locate a short wet segment on a string more robustly than two frequencies?","prediction":"Position-dependent damping adds information beyond total added mass.","test":"Wet benign strings at concealed positions and validate estimates across volumes.","contrary_outcome":"Localization accuracy is no better than frequency-only estimates.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0705","id":"S6-0705","volume":"900v6","title":"Acoustic seam leak hold","prediction":"Frictional opening leaves a different microscopic gap state.","test":"Measure low-level cavity transmission through benign seams during modest pressure cycles.","contrary":"Leakage is a unique function of current pressure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0705","title":"Acoustic seam leak hold","question":"Can a seam's sound leakage remain altered after pressure returns to baseline?","prediction":"Frictional opening leaves a different microscopic gap state.","test":"Measure low-level cavity transmission through benign seams during modest pressure cycles.","contrary_outcome":"Leakage is a unique function of current pressure.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0706","id":"S6-0706","volume":"900v6","title":"Thin plate rotating load","prediction":"The load's directional coupling changes mode participation.","test":"Map low-amplitude plate vibration with rotated equal-mass loads and bonded controls.","contrary":"Response depends only on load center and total mass.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0706","title":"Thin plate rotating load","question":"Can rotating an elongated soft load steer a plate's vibration energy without moving its center?","prediction":"The load's directional coupling changes mode participation.","test":"Map low-amplitude plate vibration with rotated equal-mass loads and bonded controls.","contrary_outcome":"Response depends only on load center and total mass.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0707","id":"S6-0707","volume":"900v6","title":"Bubble wall acoustic phase","prediction":"Wall contact modifies the initial oscillation phase.","test":"Record low-pressure bubble release with synchronized video and microphone calibration.","contrary":"Phase differences vanish after matching bubble shape at release.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0707","title":"Bubble wall acoustic phase","question":"Can the phase of bubble-induced sound distinguish wall detachment from free detachment at equal bubble volume?","prediction":"Wall contact modifies the initial oscillation phase.","test":"Record low-pressure bubble release with synchronized video and microphone calibration.","contrary_outcome":"Phase differences vanish after matching bubble shape at release.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0708","id":"S6-0708","volume":"900v6","title":"Tension band crossing damping","prediction":"Modal node placement redirects energy dissipation.","test":"Measure benign crossed bands with removable dampers and full-field motion.","contrary":"Attenuation decreases monotonically with distance from the damper.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0708","title":"Tension band crossing damping","question":"Can damping one crossing suppress remote vibration while leaving adjacent vibration nearly unchanged?","prediction":"Modal node placement redirects energy dissipation.","test":"Measure benign crossed bands with removable dampers and full-field motion.","contrary_outcome":"Attenuation decreases monotonically with distance from the damper.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0709","id":"S6-0709","volume":"900v6","title":"Air cavity flexible vent","prediction":"Small contact cycles dissipate energy without large mean displacement.","test":"Use quiet speaker sweeps, optical flap motion, and fixed-gap controls.","contrary":"Damping is amplitude-independent or explained by speaker distortion.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0709","title":"Air cavity flexible vent","question":"Can a flexible vent flap create amplitude-dependent acoustic damping at sound levels too low to change mean opening visibly?","prediction":"Small contact cycles dissipate energy without large mean displacement.","test":"Use quiet speaker sweeps, optical flap motion, and fixed-gap controls.","contrary_outcome":"Damping is amplitude-independent or explained by speaker distortion.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0710","id":"S6-0710","volume":"900v6","title":"Beam notch echo orientation","prediction":"Reflected pulse polarization depends on notch orientation.","test":"Measure gentle elastic pulses in benign beams with concealed calibrated notches.","contrary":"Responses depend only on removed cross-sectional area.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0710","title":"Beam notch echo orientation","question":"Can two probe directions distinguish an angled notch from a perpendicular notch of equal depth?","prediction":"Reflected pulse polarization depends on notch orientation.","test":"Measure gentle elastic pulses in benign beams with concealed calibrated notches.","contrary_outcome":"Responses depend only on removed cross-sectional area.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0711","id":"S6-0711","volume":"900v6","title":"Grid reflection pore wetting","prediction":"Subsurface refractive changes alter the reflected pattern.","test":"Use benign layered pore models with independent wetting images and displacement sensing.","contrary":"Pattern change follows skin deformation alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0711","title":"Grid reflection pore wetting","question":"Can reflected grid distortion reveal pore wetting beneath a transparent skin before its surface moves detectably?","prediction":"Subsurface refractive changes alter the reflected pattern.","test":"Use benign layered pore models with independent wetting images and displacement sensing.","contrary_outcome":"Pattern change follows skin deformation alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0712","id":"S6-0712","volume":"900v6","title":"Polarized adhesive contact islands","prediction":"Local stress fields differ from those of a continuous contact.","test":"Compare benign patterned contacts with independent contact-area microscopy and blinded labels.","contrary":"Polarization patterns are determined only by total contact area.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0712","title":"Polarized adhesive contact islands","question":"Can polarization images identify disconnected adhesive islands under a uniformly loaded transparent pad?","prediction":"Local stress fields differ from those of a continuous contact.","test":"Compare benign patterned contacts with independent contact-area microscopy and blinded labels.","contrary_outcome":"Polarization patterns are determined only by total contact area.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0713","id":"S6-0713","volume":"900v6","title":"Optical ridge swelling delay","prediction":"Local refraction changes precede visible ridge-height changes.","test":"Hydrate benign clear gels with grid imaging and profilometry.","contrary":"Grid motion is explained entirely by measurable surface displacement.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0713","title":"Optical ridge swelling delay","question":"Can the apparent tilt of a printed grid identify delayed swelling beneath a surface ridge?","prediction":"Local refraction changes precede visible ridge-height changes.","test":"Hydrate benign clear gels with grid imaging and profilometry.","contrary_outcome":"Grid motion is explained entirely by measurable surface displacement.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0714","id":"S6-0714","volume":"900v6","title":"Diffuse shadow hidden slit","prediction":"Angular shadow response differs for an internal discontinuity.","test":"Use benign paper phantoms with independently known defects and withheld thicknesses.","contrary":"Classification fails when thickness and mean brightness are matched.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0714","title":"Diffuse shadow hidden slit","question":"Can moving diffuse illumination distinguish a hidden slit from a shallow surface groove in a scattering sheet?","prediction":"Angular shadow response differs for an internal discontinuity.","test":"Use benign paper phantoms with independently known defects and withheld thicknesses.","contrary_outcome":"Classification fails when thickness and mean brightness are matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0714","title":"Diffuse shadow hidden slit","question":"Can moving diffuse illumination distinguish a hidden slit from a shallow surface groove in a scattering sheet?","prediction":"Angular shadow response differs for an internal discontinuity.","test":"Use benign paper phantoms with independently known defects and withheld thicknesses.","contrary_outcome":"Classification fails when thickness and mean brightness are matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0715","id":"S6-0715","volume":"900v6","title":"Droplet lens path splitting","prediction":"Asymmetric curvature creates separated focal regions.","test":"Image calibrated targets through pinned droplets with independent curvature reconstruction.","contrary":"Double images arise only from external reflections or camera artifacts.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0715","title":"Droplet lens path splitting","question":"Can one water lens produce two stable image paths after partial contact-line pinning?","prediction":"Asymmetric curvature creates separated focal regions.","test":"Image calibrated targets through pinned droplets with independent curvature reconstruction.","contrary_outcome":"Double images arise only from external reflections or camera artifacts.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0716","id":"S6-0716","volume":"900v6","title":"Camera color foam age","prediction":"Bubble-border geometry provides transferable timing information.","test":"Record benign foam drainage with gravimetric liquid loss and held-out lighting conditions.","contrary":"Estimates depend mainly on illumination and initial bubble size.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0716","title":"Camera color foam age","question":"Can a calibrated color-independent texture statistic estimate aqueous-foam drainage age across different illumination colors?","prediction":"Bubble-border geometry provides transferable timing information.","test":"Record benign foam drainage with gravimetric liquid loss and held-out lighting conditions.","contrary_outcome":"Estimates depend mainly on illumination and initial bubble size.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0717","id":"S6-0717","volume":"900v6","title":"Transparent hinge strain fringe","prediction":"Stretch changes local spacing differently from rotation.","test":"Use benign thin-film hinges with independent strain markers and controlled mixed motions.","contrary":"Fringe fields cannot separate the two motions after noise matching.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0717","title":"Transparent hinge strain fringe","question":"Can reflection fringes distinguish hinge stretching from rigid hinge rotation at equal endpoint motion?","prediction":"Stretch changes local spacing differently from rotation.","test":"Use benign thin-film hinges with independent strain markers and controlled mixed motions.","contrary_outcome":"Fringe fields cannot separate the two motions after noise matching.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0718","id":"S6-0718","volume":"900v6","title":"Surface wave projected line","prediction":"Relative phase resolves propagation direction independently of amplitude.","test":"Image gentle water waves with independent side-view ground truth and randomized amplitudes.","contrary":"Direction estimates remain ambiguous or follow brightness drift.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0718","title":"Surface wave projected line","question":"Can two projected lines recover wave direction more reliably than one line when amplitude varies?","prediction":"Relative phase resolves propagation direction independently of amplitude.","test":"Image gentle water waves with independent side-view ground truth and randomized amplitudes.","contrary_outcome":"Direction estimates remain ambiguous or follow brightness drift.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0719","id":"S6-0719","volume":"900v6","title":"Wet paper scattering hysteresis","prediction":"Fiber rearrangement preserves moisture-history-dependent orientation.","test":"Measure polarized low-intensity scattering, mass, and fiber maps during reversible wetting cycles.","contrary":"Anisotropy is determined only by water content and sheet strain.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0719","title":"Wet paper scattering hysteresis","question":"Can drying and rewetting paper show different scattering anisotropy at the same total water mass?","prediction":"Fiber rearrangement preserves moisture-history-dependent orientation.","test":"Measure polarized low-intensity scattering, mass, and fiber maps during reversible wetting cycles.","contrary_outcome":"Anisotropy is determined only by water content and sheet strain.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0720","id":"S6-0720","volume":"900v6","title":"Optical contact release ordering","prediction":"Patch topology directs the final connected load path.","test":"Image benign transparent contacts during slow unloading and test blinded last-contact predictions.","contrary":"Predictions are no better than using initial patch area alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0720","title":"Optical contact release ordering","question":"Can the order of disappearing interference patches predict where a soft contact will detach last?","prediction":"Patch topology directs the final connected load path.","test":"Image benign transparent contacts during slow unloading and test blinded last-contact predictions.","contrary_outcome":"Predictions are no better than using initial patch area alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0721","id":"S6-0721","volume":"900v6","title":"Flow-switched gel loading","prediction":"Reversals reduce persistent surface enrichment.","test":"Use food-safe dye gels with sectioned concentration measurements and dose-matched steady controls.","contrary":"Center uniformity depends only on total dose and exposure time.","layers":[1,2,3],"categories":["physical","anomalies","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0721","title":"Flow-switched gel loading","question":"Can switching flow between opposite gel faces load its center more evenly than constant flow at equal solute dose?","prediction":"Reversals reduce persistent surface enrichment.","test":"Use food-safe dye gels with sectioned concentration measurements and dose-matched steady controls.","contrary_outcome":"Center uniformity depends only on total dose and exposure time.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0721","title":"Flow-switched gel loading","question":"Can switching flow between opposite gel faces load its center more evenly than constant flow at equal solute dose?","prediction":"Reversals reduce persistent surface enrichment.","test":"Use food-safe dye gels with sectioned concentration measurements and dose-matched steady controls.","contrary_outcome":"Center uniformity depends only on total dose and exposure time.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":{"id":"S6-0721","title":"Flow-switched gel loading","question":"Can switching flow between opposite gel faces load its center more evenly than constant flow at equal solute dose?","prediction":"Reversals reduce persistent surface enrichment.","test":"Use food-safe dye gels with sectioned concentration measurements and dose-matched steady controls.","contrary_outcome":"Center uniformity depends only on total dose and exposure time.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0722","id":"S6-0722","volume":"900v6","title":"Crystal contact dissolution lag","prediction":"A concentrated trapped film delays fresh-water access.","test":"Image benign salt crystals after controlled support removal with local concentration measurements.","contrary":"Dissolution resumes immediately at the free-face rate.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0722","title":"Crystal contact dissolution lag","question":"Can a crystal face remain protected briefly after its supporting contact withdraws?","prediction":"A concentrated trapped film delays fresh-water access.","test":"Image benign salt crystals after controlled support removal with local concentration measurements.","contrary_outcome":"Dissolution resumes immediately at the free-face rate.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0723","id":"S6-0723","volume":"900v6","title":"Porous crust pressure release","prediction":"Microscopic lifting opens connected interface paths.","test":"Measure low-pressure water conductance and underside microscopy in calcium-carbonate model crusts.","contrary":"Permeability changes require detectable fractures or solid removal.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0723","title":"Porous crust pressure release","question":"Can relieving pressure beneath a benign precipitate crust increase its permeability without visible fracture?","prediction":"Microscopic lifting opens connected interface paths.","test":"Measure low-pressure water conductance and underside microscopy in calcium-carbonate model crusts.","contrary_outcome":"Permeability changes require detectable fractures or solid removal.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0724","id":"S6-0724","volume":"900v6","title":"Layered dye binding crossover","prediction":"Fast weak binding dominates short pulses while slower strong binding dominates long ones.","test":"Use precharacterized benign dye-gel pairs with independent retained-mass measurements.","contrary":"Retention ordering is unchanged across pulse durations.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0724","title":"Layered dye binding crossover","question":"Can changing pulse duration reverse which of two gel layers retains more tracer?","prediction":"Fast weak binding dominates short pulses while slower strong binding dominates long ones.","test":"Use precharacterized benign dye-gel pairs with independent retained-mass measurements.","contrary_outcome":"Retention ordering is unchanged across pulse durations.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0725","id":"S6-0725","volume":"900v6","title":"Hydration front compression pause","prediction":"Compression suppresses transport in wetter regions more strongly.","test":"Image benign porous pellets under reversible confinement with mass and pressure records.","contrary":"Front width follows diffusion time alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0725","title":"Hydration front compression pause","question":"Can holding a swelling pellet at fixed dimensions temporarily sharpen its hydration front?","prediction":"Compression suppresses transport in wetter regions more strongly.","test":"Image benign porous pellets under reversible confinement with mass and pressure records.","contrary_outcome":"Front width follows diffusion time alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0726","id":"S6-0726","volume":"900v6","title":"Soluble support load warning","prediction":"Internal microfailure precedes geometric collapse.","test":"Use low-load sugar supports with quiet sensors, imaging, and independent destructive controls.","contrary":"Emission adds no predictive value over measured width.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0726","title":"Soluble support load warning","question":"Can acoustic emission from a dissolving support predict its remaining load capacity better than remaining visible width?","prediction":"Internal microfailure precedes geometric collapse.","test":"Use low-load sugar supports with quiet sensors, imaging, and independent destructive controls.","contrary_outcome":"Emission adds no predictive value over measured width.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0727","id":"S6-0727","volume":"900v6","title":"Adsorbent island wash sequence","prediction":"The moving clean boundary limits rebinding downstream.","test":"Use food-safe dye patches with matched wash volume, time, and flow.","contrary":"Removal depends only on total wash volume and peak shear.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0727","title":"Adsorbent island wash sequence","question":"Can washing an adsorbent surface from its center outward remove more solute than the reverse sequence?","prediction":"The moving clean boundary limits rebinding downstream.","test":"Use food-safe dye patches with matched wash volume, time, and flow.","contrary_outcome":"Removal depends only on total wash volume and peak shear.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0728","id":"S6-0728","volume":"900v6","title":"Dissolution channel self narrowing","prediction":"Upstream dissolution supplies downstream recrystallization under a controlled evaporation gradient.","test":"Measure benign salt-channel geometry and local concentration with evaporation-suppressed controls.","contrary":"Every cross-section widens or narrowing is deposit contamination.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0728","title":"Dissolution channel self narrowing","question":"Can a soluble channel narrow locally even while total solid mass decreases?","prediction":"Upstream dissolution supplies downstream recrystallization under a controlled evaporation gradient.","test":"Measure benign salt-channel geometry and local concentration with evaporation-suppressed controls.","contrary_outcome":"Every cross-section widens or narrowing is deposit contamination.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0729","id":"S6-0729","volume":"900v6","title":"Gel skin directional uptake","prediction":"Aligned skin structure creates anisotropic transport.","test":"Use benign gel films with independent tracer diffusivity maps and rotated skin orientations.","contrary":"Uptake direction follows only external geometry.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0729","title":"Gel skin directional uptake","question":"Can rotating a thin surface skin alter lateral uptake direction without changing skin thickness?","prediction":"Aligned skin structure creates anisotropic transport.","test":"Use benign gel films with independent tracer diffusivity maps and rotated skin orientations.","contrary_outcome":"Uptake direction follows only external geometry.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0730","id":"S6-0730","volume":"900v6","title":"Salt bridge fresh-water pulse","prediction":"Dissolution and reprecipitation enlarge load-bearing contacts.","test":"Measure small benign salt bridges before and after controlled pulses with matched humidity histories.","contrary":"Strength decreases or follows added salt mass alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0730","title":"Salt bridge fresh-water pulse","question":"Can a small fresh-water pulse strengthen a dried salt bridge after redrying?","prediction":"Dissolution and reprecipitation enlarge load-bearing contacts.","test":"Measure small benign salt bridges before and after controlled pulses with matched humidity histories.","contrary_outcome":"Strength decreases or follows added salt mass alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0731","id":"S6-0731","volume":"900v6","title":"Porous pellet split wetting","prediction":"Meeting fronts isolate gas pockets.","test":"Image transparent pore models and weigh benign pellets after matched wetting protocols.","contrary":"Residual air depends only on final pressure and total supplied water.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0731","title":"Porous pellet split wetting","question":"Can simultaneous wetting from two faces trap more air than sequential wetting at equal final water supply?","prediction":"Meeting fronts isolate gas pockets.","test":"Image transparent pore models and weigh benign pellets after matched wetting protocols.","contrary_outcome":"Residual air depends only on final pressure and total supplied water.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0732","id":"S6-0732","volume":"900v6","title":"Tracer release under twist","prediction":"Shear modifies connected pathways or binding access.","test":"Use benign dyed rods with three-dimensional volume tracking and untwisted handling controls.","contrary":"Release is explained entirely by expelled water or surface damage.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0732","title":"Tracer release under twist","question":"Can twisting a hydrated gel rod release tracer without measurable compression or net volume loss?","prediction":"Shear modifies connected pathways or binding access.","test":"Use benign dyed rods with three-dimensional volume tracking and untwisted handling controls.","contrary_outcome":"Release is explained entirely by expelled water or surface damage.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0733","id":"S6-0733","volume":"900v6","title":"Indicator color front retreat","prediction":"Delayed buffer transport overtakes the initial acid front.","test":"Measure benign indicator gels with independently sampled acidity and buffer distribution.","contrary":"Front position advances monotonically under continuing acid supply.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0733","title":"Indicator color front retreat","question":"Can a color front retreat while weak acid continues entering a buffered gel?","prediction":"Delayed buffer transport overtakes the initial acid front.","test":"Measure benign indicator gels with independently sampled acidity and buffer distribution.","contrary_outcome":"Front position advances monotonically under continuing acid supply.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0734","id":"S6-0734","volume":"900v6","title":"Mineral coating scratch halo","prediction":"The scratch admits liquid beneath adjacent material.","test":"Map calcium-carbonate coating loss with substrate microscopy and equal-area isolated-hole controls.","contrary":"Enhanced loss remains confined to directly exposed scratch area.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0734","title":"Mineral coating scratch halo","question":"Can a narrow scratch accelerate dissolution outside its own area in a benign mineral coating?","prediction":"The scratch admits liquid beneath adjacent material.","test":"Map calcium-carbonate coating loss with substrate microscopy and equal-area isolated-hole controls.","contrary_outcome":"Enhanced loss remains confined to directly exposed scratch area.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0735","id":"S6-0735","volume":"900v6","title":"Drying gel salt segregation","prediction":"A collapsing skin redirects internal flow and solute diffusion.","test":"Measure benign saline gels with depth-resolved concentration and water profiles.","contrary":"The concentration maximum never leaves the evaporating surface.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0735","title":"Drying gel salt segregation","question":"Can a nonvolatile salt maximum move away from the drying surface after an initial surface enrichment?","prediction":"A collapsing skin redirects internal flow and solute diffusion.","test":"Measure benign saline gels with depth-resolved concentration and water profiles.","contrary_outcome":"The concentration maximum never leaves the evaporating surface.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0736","id":"S6-0736","volume":"900v6","title":"Carbon contact water cycling","prediction":"Wet rearrangement consolidates a reproducible contact network.","test":"Use low-current contacts with matched mechanical motion, dry mass, and microscopy.","contrary":"Stability gains are explained solely by mechanical cycling.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0736","title":"Carbon contact water cycling","question":"Can repeated pure-water wetting stabilize a graphite contact's resistance more than dry mechanical cycling?","prediction":"Wet rearrangement consolidates a reproducible contact network.","test":"Use low-current contacts with matched mechanical motion, dry mass, and microscopy.","contrary_outcome":"Stability gains are explained solely by mechanical cycling.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0737","id":"S6-0737","volume":"900v6","title":"Magnetic foil fold orientation","prediction":"Internal gaps change the spatial field response.","test":"Use enclosed weak magnets, multiple sensor positions, and blinded folded samples.","contrary":"Responses depend only on total steel mass and outer shape.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0737","title":"Magnetic foil fold orientation","question":"Can a weak magnetic readout distinguish two folded steel foils with equal outer dimensions but different internal fold order?","prediction":"Internal gaps change the spatial field response.","test":"Use enclosed weak magnets, multiple sensor positions, and blinded folded samples.","contrary_outcome":"Responses depend only on total steel mass and outer shape.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0738","id":"S6-0738","volume":"900v6","title":"Capacitive seam pressure map","prediction":"Local gap variations precede a connected leakage path.","test":"Use low-voltage distributed electrodes, independent pressure maps, and controlled leak tests.","contrary":"Capacitance anomalies do not predict leak location above chance.","layers":[1,2],"categories":["physical","energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0738","title":"Capacitive seam pressure map","question":"Can a flexible seam's capacitance distribution reveal uneven clamping before a low-pressure water leak appears?","prediction":"Local gap variations precede a connected leakage path.","test":"Use low-voltage distributed electrodes, independent pressure maps, and controlled leak tests.","contrary_outcome":"Capacitance anomalies do not predict leak location above chance.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0738","title":"Capacitive seam pressure map","question":"Can a flexible seam's capacitance distribution reveal uneven clamping before a low-pressure water leak appears?","prediction":"Local gap variations precede a connected leakage path.","test":"Use low-voltage distributed electrodes, independent pressure maps, and controlled leak tests.","contrary_outcome":"Capacitance anomalies do not predict leak location above chance.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0739","id":"S6-0739","volume":"900v6","title":"Conductive thread bend rate","prediction":"Rate-dependent coating contact rearrangement persists after geometric recovery.","test":"Measure low-current resistance over rate sweeps with matched curvature, temperature, and hold time.","contrary":"Residual resistance depends only on maximum bend and cycle count.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0739","title":"Conductive thread bend rate","question":"Can bending rate change the residual resistance of a conductive thread after it returns straight?","prediction":"Rate-dependent coating contact rearrangement persists after geometric recovery.","test":"Measure low-current resistance over rate sweeps with matched curvature, temperature, and hold time.","contrary_outcome":"Residual resistance depends only on maximum bend and cycle count.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0740","id":"S6-0740","volume":"900v6","title":"Static-charge wet perimeter","prediction":"A conductive boundary alters lateral leakage pathways.","test":"Map small surface charges and moisture with disconnected-perimeter controls.","contrary":"Central decay changes only after the center becomes wet.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0740","title":"Static-charge wet perimeter","question":"Can wetting only an insulating sheet's perimeter drain central charge before water reaches the center?","prediction":"A conductive boundary alters lateral leakage pathways.","test":"Map small surface charges and moisture with disconnected-perimeter controls.","contrary_outcome":"Central decay changes only after the center becomes wet.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0741","id":"S6-0741","volume":"900v6","title":"Magnetic particle contact pulse","prediction":"A few magnetic particles trigger frictionally retained rearrangements.","test":"Use enclosed mixed inert grains with contact imaging and nonmagnetic vibration-matched controls.","contrary":"All rearrangements reverse when the field ends.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0741","title":"Magnetic particle contact pulse","question":"Can a brief weak field pulse change a granular contact network after the field is removed?","prediction":"A few magnetic particles trigger frictionally retained rearrangements.","test":"Use enclosed mixed inert grains with contact imaging and nonmagnetic vibration-matched controls.","contrary_outcome":"All rearrangements reverse when the field ends.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0742","id":"S6-0742","volume":"900v6","title":"Electrical foam meniscus count","prediction":"Interface area contributes a distinct frequency dependence.","test":"Measure benign foams with microscope bridge counts and low-voltage spectra.","contrary":"Spectra depend only on total liquid volume and conductance.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0742","title":"Electrical foam meniscus count","question":"Can impedance phase distinguish many small saline bridges from a few larger bridges at equal liquid volume and conductance?","prediction":"Interface area contributes a distinct frequency dependence.","test":"Measure benign foams with microscope bridge counts and low-voltage spectra.","contrary_outcome":"Spectra depend only on total liquid volume and conductance.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0743","id":"S6-0743","volume":"900v6","title":"Capacitive folded channel fill","prediction":"Electrode depth weighting separates the two distributions.","test":"Use insulating folded water channels, guarded electrodes, and concealed fill states.","contrary":"Signals identify only total water content.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0743","title":"Capacitive folded channel fill","question":"Can external electrodes distinguish a filled upper fold from a filled lower fold at equal water mass?","prediction":"Electrode depth weighting separates the two distributions.","test":"Use insulating folded water channels, guarded electrodes, and concealed fill states.","contrary_outcome":"Signals identify only total water content.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0744","id":"S6-0744","volume":"900v6","title":"Weak-field hinge friction","prediction":"Threshold motion under reversed fields estimates contact locking.","test":"Use enclosed small magnets with torque calibration and optical angle tracking.","contrary":"Estimated friction varies with field geometry rather than hinge history.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0744","title":"Weak-field hinge friction","question":"Can a tiny magnetic bias reveal friction hysteresis in a soft hinge without appreciably changing its elastic curve?","prediction":"Threshold motion under reversed fields estimates contact locking.","test":"Use enclosed small magnets with torque calibration and optical angle tracking.","contrary_outcome":"Estimated friction varies with field geometry rather than hinge history.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0745","id":"S6-0745","volume":"900v6","title":"Resistive film microbuckling","prediction":"Contact switching adds bursts correlated with imaged buckle events.","test":"Use low-current benign films under mild compression with optical validation.","contrary":"Bursts occur equally in flat controls or track electrical interference.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0745","title":"Resistive film microbuckling","question":"Can resistance noise detect intermittent microbuckles in a conductive film before mean resistance changes?","prediction":"Contact switching adds bursts correlated with imaged buckle events.","test":"Use low-current benign films under mild compression with optical validation.","contrary_outcome":"Bursts occur equally in flat controls or track electrical interference.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0746","id":"S6-0746","volume":"900v6","title":"Inductive water-backed foil","prediction":"Different mechanical response under a tiny probe vibration modulates the inductive signal.","test":"Use controlled backing fluids, optical displacement references, and fixed-foil controls.","contrary":"Differences are explained only by static foil spacing.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0746","title":"Inductive water-backed foil","question":"Can a low-power coil distinguish a water-backed flexible foil from an air-backed foil at equal mean distance?","prediction":"Different mechanical response under a tiny probe vibration modulates the inductive signal.","test":"Use controlled backing fluids, optical displacement references, and fixed-foil controls.","contrary_outcome":"Differences are explained only by static foil spacing.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0747","id":"S6-0747","volume":"900v6","title":"Magnetic float contact aging","prediction":"Contact-line aging strengthens pinning.","test":"Measure calibrated weak-field force, depth, and perimeter during controlled rests.","contrary":"Release force depends only on instantaneous geometry and water volume.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0747","title":"Magnetic float contact aging","question":"Can the lateral release force of a weakly magnetic float increase during rest without a change in immersion depth?","prediction":"Contact-line aging strengthens pinning.","test":"Measure calibrated weak-field force, depth, and perimeter during controlled rests.","contrary_outcome":"Release force depends only on instantaneous geometry and water volume.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0748","id":"S6-0748","volume":"900v6","title":"Carbon trace junction ordering","prediction":"The first junction alters sheet strain during formation of the second.","test":"Use low-current four-terminal junction measurements and optical strain maps.","contrary":"Final resistance is independent of pressing order.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0748","title":"Carbon trace junction ordering","question":"Can pressing two graphite junctions in opposite orders leave different total resistance after equal final pressure?","prediction":"The first junction alters sheet strain during formation of the second.","test":"Use low-current four-terminal junction measurements and optical strain maps.","contrary_outcome":"Final resistance is independent of pressing order.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0749","id":"S6-0749","volume":"900v6","title":"Capacitive gel void closure","prediction":"Void closure changes field distribution discontinuously relative to bulk strain.","test":"Use benign gel phantoms with independent void imaging and low-voltage sensing.","contrary":"Signals collapse when overall thickness and water content are matched.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0749","title":"Capacitive gel void closure","question":"Can a capacitance transient distinguish closure of an internal gel void from uniform external compression?","prediction":"Void closure changes field distribution discontinuously relative to bulk strain.","test":"Use benign gel phantoms with independent void imaging and low-voltage sensing.","contrary_outcome":"Signals collapse when overall thickness and water content are matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0749","title":"Capacitive gel void closure","question":"Can a capacitance transient distinguish closure of an internal gel void from uniform external compression?","prediction":"Void closure changes field distribution discontinuously relative to bulk strain.","test":"Use benign gel phantoms with independent void imaging and low-voltage sensing.","contrary_outcome":"Signals collapse when overall thickness and water content are matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0750","id":"S6-0750","volume":"900v6","title":"Electrical wet-paper crease","prediction":"Compressed fibers create a directional transport path.","test":"Track low-current connectivity, mass, and water images in benign creased paper.","contrary":"Connectivity follows total uptake regardless of crease orientation.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0750","title":"Electrical wet-paper crease","question":"Can a crease divert a saline wetting front enough to change electrical connectivity before its total uptake changes?","prediction":"Compressed fibers create a directional transport path.","test":"Track low-current connectivity, mass, and water images in benign creased paper.","contrary_outcome":"Connectivity follows total uptake regardless of crease orientation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0751","id":"S6-0751","volume":"900v6","title":"Water vortex soft obstacle","prediction":"Obstacle motion modifies wake timing more than average momentum loss.","test":"Use low-speed water, flexible strips, force sensing, and velocity imaging.","contrary":"Timing changes scale directly with mean drag changes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0751","title":"Water vortex soft obstacle","question":"Can a soft obstacle delay vortex shedding without changing mean drag substantially?","prediction":"Obstacle motion modifies wake timing more than average momentum loss.","test":"Use low-speed water, flexible strips, force sensing, and velocity imaging.","contrary_outcome":"Timing changes scale directly with mean drag changes.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0752","id":"S6-0752","volume":"900v6","title":"Pulsed branch sediment shelter","prediction":"Rest intervals permit particles to settle beyond the exchange zone.","test":"Track inert sediment in transparent junctions with matched total duration and throughput.","contrary":"Retained mass depends only on total throughput and settling speed.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0752","title":"Pulsed branch sediment shelter","question":"Can intermittent flow leave more sediment in a side branch than steady flow of equal total volume?","prediction":"Rest intervals permit particles to settle beyond the exchange zone.","test":"Track inert sediment in transparent junctions with matched total duration and throughput.","contrary_outcome":"Retained mass depends only on total throughput and settling speed.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0753","id":"S6-0753","volume":"900v6","title":"Bubble pair corner capture","prediction":"Wake interaction changes the leading bubble's lateral path.","test":"Inject equal-size bubbles at controlled spacings in a transparent water junction.","contrary":"Capture probability equals the independent single-bubble probability.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0753","title":"Bubble pair corner capture","question":"Can two closely spaced bubbles enter a side corner that captures neither bubble in isolation?","prediction":"Wake interaction changes the leading bubble's lateral path.","test":"Inject equal-size bubbles at controlled spacings in a transparent water junction.","contrary_outcome":"Capture probability equals the independent single-bubble probability.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0754","id":"S6-0754","volume":"900v6","title":"Flexible outlet pressure plateau","prediction":"Progressive opening compensates for declining pressure.","test":"Measure low-head water flow and outlet shape with rigid-orifice controls.","contrary":"Discharge follows ordinary fixed-area head dependence.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0754","title":"Flexible outlet pressure plateau","question":"Can a soft outlet hold discharge nearly constant as reservoir head falls over a limited range?","prediction":"Progressive opening compensates for declining pressure.","test":"Measure low-head water flow and outlet shape with rigid-orifice controls.","contrary_outcome":"Discharge follows ordinary fixed-area head dependence.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0755","id":"S6-0755","volume":"900v6","title":"Surface film vortex suppression","prediction":"Surface stresses oppose deformation more strongly than bulk rotation.","test":"Measure water surface shape and subsurface velocity with and without a food-grade film.","contrary":"Dimple changes are proportional to circulation loss.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0755","title":"Surface film vortex suppression","question":"Can a benign surface film suppress a shallow vortex's visible dimple while leaving subsurface circulation similar?","prediction":"Surface stresses oppose deformation more strongly than bulk rotation.","test":"Measure water surface shape and subsurface velocity with and without a food-grade film.","contrary_outcome":"Dimple changes are proportional to circulation loss.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0756","id":"S6-0756","volume":"900v6","title":"Moving wall tracer focusing","prediction":"Phase-dependent strain compresses the plume before diffusion dominates.","test":"Use food dye, measured soft-wall motion, and full velocity maps.","contrary":"Plume narrowing is explained by net lateral pumping or optical distortion.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0756","title":"Moving wall tracer focusing","question":"Can a traveling wall indentation narrow a tracer plume without net cross-channel fluid displacement?","prediction":"Phase-dependent strain compresses the plume before diffusion dominates.","test":"Use food dye, measured soft-wall motion, and full velocity maps.","contrary_outcome":"Plume narrowing is explained by net lateral pumping or optical distortion.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0757","id":"S6-0757","volume":"900v6","title":"Porous baffle bubble passage","prediction":"Wetted pore throats alter gas breakthrough separately from liquid resistance.","test":"Measure low-pressure air-water passage through benign screens with controlled wetting histories.","contrary":"Bubble size depends only on water-flow resistance and pore dimensions.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0757","title":"Porous baffle bubble passage","question":"Can prewetting a porous baffle change bubble passage size while leaving water pressure drop nearly unchanged?","prediction":"Wetted pore throats alter gas breakthrough separately from liquid resistance.","test":"Measure low-pressure air-water passage through benign screens with controlled wetting histories.","contrary_outcome":"Bubble size depends only on water-flow resistance and pore dimensions.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0758","id":"S6-0758","volume":"900v6","title":"Oscillating gate dead-zone exchange","prediction":"Its wake periodically reaches the pocket mouth.","test":"Measure food-dye washout, gate motion, and local velocity with matched mean flow.","contrary":"Exchange improves only when the gate physically enters the pocket.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0758","title":"Oscillating gate dead-zone exchange","question":"Can a gate placed outside a stagnant pocket improve pocket exchange without direct intrusion?","prediction":"Its wake periodically reaches the pocket mouth.","test":"Measure food-dye washout, gate motion, and local velocity with matched mean flow.","contrary_outcome":"Exchange improves only when the gate physically enters the pocket.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0758","title":"Oscillating gate dead-zone exchange","question":"Can a gate placed outside a stagnant pocket improve pocket exchange without direct intrusion?","prediction":"Its wake periodically reaches the pocket mouth.","test":"Measure food-dye washout, gate motion, and local velocity with matched mean flow.","contrary_outcome":"Exchange improves only when the gate physically enters the pocket.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0759","id":"S6-0759","volume":"900v6","title":"Flexible tube bend reversal","prediction":"Wall contact and cross-section hysteresis preserve bend history.","test":"Measure low-head water resistance and internal cross-sections in soft tubing after reversed sequences.","contrary":"Resistance is fixed by the recovered external outline.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0759","title":"Flexible tube bend reversal","question":"Can reversing a bend sequence change later flow resistance when the tube returns to the same outline?","prediction":"Wall contact and cross-section hysteresis preserve bend history.","test":"Measure low-head water resistance and internal cross-sections in soft tubing after reversed sequences.","contrary_outcome":"Resistance is fixed by the recovered external outline.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0760","id":"S6-0760","volume":"900v6","title":"Shallow jet porous landing","prediction":"Liquid drainage suppresses upward momentum while surface pathways spread the remainder.","test":"Use low-speed water jets with splash collection, lateral imaging, and sealed-pore controls.","contrary":"Splash reduction is entirely proportional to reduced surface liquid volume.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0760","title":"Shallow jet porous landing","question":"Can a porous landing surface reduce splash while increasing lateral spreading at equal impact flow?","prediction":"Liquid drainage suppresses upward momentum while surface pathways spread the remainder.","test":"Use low-speed water jets with splash collection, lateral imaging, and sealed-pore controls.","contrary_outcome":"Splash reduction is entirely proportional to reduced surface liquid volume.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0761","id":"S6-0761","volume":"900v6","title":"Wave-driven flap rest angle","prediction":"Nonlinear buoyancy and hinge friction rectify the oscillation.","test":"Track small benign flaps with matched opposite wave directions and measured water levels.","contrary":"Mean angle changes only with mean level or support drift.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0761","title":"Wave-driven flap rest angle","question":"Can symmetric water waves shift a floating flap's average angle without a mean water-level difference?","prediction":"Nonlinear buoyancy and hinge friction rectify the oscillation.","test":"Track small benign flaps with matched opposite wave directions and measured water levels.","contrary_outcome":"Mean angle changes only with mean level or support drift.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0762","id":"S6-0762","volume":"900v6","title":"Channel seam bubble nucleation","prediction":"Retained gas in the seam seeds a reproducible first bubble.","test":"Use rated low-pressure water cells, seam sealing controls, and degassed comparisons.","contrary":"First bubbles occur randomly or only at contaminated surfaces.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0762","title":"Channel seam bubble nucleation","question":"Can a sealed microscopic seam determine where dissolved air first appears after a modest pressure drop?","prediction":"Retained gas in the seam seeds a reproducible first bubble.","test":"Use rated low-pressure water cells, seam sealing controls, and degassed comparisons.","contrary_outcome":"First bubbles occur randomly or only at contaminated surfaces.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0763","id":"S6-0763","volume":"900v6","title":"Dual jet collision timing","prediction":"The first pulse establishes a receiving film for the second.","test":"Measure splash mass and trajectories at matched total water and momentum.","contrary":"Splash depends only on combined peak momentum.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0763","title":"Dual jet collision timing","question":"Can staggering two equal water pulses reduce the collision splash more than reducing both peaks equally?","prediction":"The first pulse establishes a receiving film for the second.","test":"Measure splash mass and trajectories at matched total water and momentum.","contrary_outcome":"Splash depends only on combined peak momentum.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0764","id":"S6-0764","volume":"900v6","title":"Recirculation pocket wall slip","prediction":"Near-wall exchange changes while the mean separatrix remains similar.","test":"Use benign water-glycerol flow with calibrated wall conditions and tracer residence maps.","contrary":"Residence time is determined solely by visible pocket size and mean speed.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0764","title":"Recirculation pocket wall slip","question":"Can local wall lubrication change the residence time in a recirculation pocket without shifting its visible outer boundary?","prediction":"Near-wall exchange changes while the mean separatrix remains similar.","test":"Use benign water-glycerol flow with calibrated wall conditions and tracer residence maps.","contrary_outcome":"Residence time is determined solely by visible pocket size and mean speed.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0765","id":"S6-0765","volume":"900v6","title":"Draining soft bag fold release","prediction":"The fold opens an air or liquid path blocked by wall contact.","test":"Measure bag geometry, pressure, and discharge with controlled fold releases.","contrary":"Restart requires increased head or direct outlet opening.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0765","title":"Draining soft bag fold release","question":"Can releasing one fold restart a stalled flexible water bag without changing its outlet height?","prediction":"The fold opens an air or liquid path blocked by wall contact.","test":"Measure bag geometry, pressure, and discharge with controlled fold releases.","contrary_outcome":"Restart requires increased head or direct outlet opening.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0766","id":"S6-0766","volume":"900v6","title":"Warming clamp acoustic drift","prediction":"Differential support expansion alters mode coupling early.","test":"Use low-amplitude vibration maps, independent clamp temperature, and frequency uncertainty calibration.","contrary":"Mode rotation occurs only after a resolvable frequency shift.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0766","title":"Warming clamp acoustic drift","question":"Can mild clamp warming rotate a beam's mode shape before its frequency changes detectably?","prediction":"Differential support expansion alters mode coupling early.","test":"Use low-amplitude vibration maps, independent clamp temperature, and frequency uncertainty calibration.","contrary_outcome":"Mode rotation occurs only after a resolvable frequency shift.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0767","id":"S6-0767","volume":"900v6","title":"Fabric wrinkle acoustic release","prediction":"Wrinkle friction contributes dissipation independent of mean tension.","test":"Measure gentle fabric vibration before and after controlled wrinkle release with independent tension sensing.","contrary":"Damping changes are fully explained by tension shifts.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0767","title":"Fabric wrinkle acoustic release","question":"Can releasing one wrinkle reduce acoustic damping while leaving membrane tension nearly unchanged?","prediction":"Wrinkle friction contributes dissipation independent of mean tension.","test":"Measure gentle fabric vibration before and after controlled wrinkle release with independent tension sensing.","contrary_outcome":"Damping changes are fully explained by tension shifts.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0768","id":"S6-0768","volume":"900v6","title":"Soft cavity wall echo split","prediction":"Wall motion creates a delayed secondary reflection.","test":"Use quiet pulses, wall vibrometry, and stiffened-wall controls.","contrary":"Secondary peaks arise only from ordinary geometric reflections.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0768","title":"Soft cavity wall echo split","question":"Can a locally softened cavity wall split one reflected acoustic pulse into two time-resolved components?","prediction":"Wall motion creates a delayed secondary reflection.","test":"Use quiet pulses, wall vibrometry, and stiffened-wall controls.","contrary_outcome":"Secondary peaks arise only from ordinary geometric reflections.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0769","id":"S6-0769","volume":"900v6","title":"String bead contact switching","prediction":"Intermittent bead contact selects different modal velocities.","test":"Measure low-energy string spectra and bead motion with fixed-bead controls.","contrary":"Damping changes uniformly across harmonics or follows source distortion.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0769","title":"String bead contact switching","question":"Can a loosely threaded bead switch which string harmonics it damps as drive amplitude rises?","prediction":"Intermittent bead contact selects different modal velocities.","test":"Measure low-energy string spectra and bead motion with fixed-bead controls.","contrary_outcome":"Damping changes uniformly across harmonics or follows source distortion.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0769","title":"String bead contact switching","question":"Can a loosely threaded bead switch which string harmonics it damps as drive amplitude rises?","prediction":"Intermittent bead contact selects different modal velocities.","test":"Measure low-energy string spectra and bead motion with fixed-bead controls.","contrary_outcome":"Damping changes uniformly across harmonics or follows source distortion.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0770","id":"S6-0770","volume":"900v6","title":"Layered plate vibration memory","prediction":"Interlayer contact rearrangement preserves dissipative history.","test":"Measure small-amplitude spectra and static stiffness before and after gentle cycles.","contrary":"Damping recovers whenever stiffness and geometry recover.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0770","title":"Layered plate vibration memory","question":"Can a layered plate retain a changed damping spectrum after a subdamage bending cycle while stiffness recovers?","prediction":"Interlayer contact rearrangement preserves dissipative history.","test":"Measure small-amplitude spectra and static stiffness before and after gentle cycles.","contrary_outcome":"Damping recovers whenever stiffness and geometry recover.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0771","id":"S6-0771","volume":"900v6","title":"Optical pore pressure inversion","prediction":"Curvature differences preserve pressure ordering.","test":"Image benign transparent pore networks and compare blinded pressure-rank predictions with sensors.","contrary":"Ordering errors exceed the predefined tolerance despite resolved curvature.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0771","title":"Optical pore pressure inversion","question":"Can water-surface curvature images recover the sign of pressure differences between connected pores without absolute pressure calibration?","prediction":"Curvature differences preserve pressure ordering.","test":"Image benign transparent pore networks and compare blinded pressure-rank predictions with sensors.","contrary_outcome":"Ordering errors exceed the predefined tolerance despite resolved curvature.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0772","id":"S6-0772","volume":"900v6","title":"Shadowed fold wetness inference","prediction":"Wetness and geometry affect directional reflectance differently.","test":"Use benign paper with independent moisture and fold-depth measurements and held-out combinations.","contrary":"Classification fails when average brightness is matched.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0772","title":"Shadowed fold wetness inference","question":"Can two lighting directions distinguish a wet dark fold from a dry deep fold in paper?","prediction":"Wetness and geometry affect directional reflectance differently.","test":"Use benign paper with independent moisture and fold-depth measurements and held-out combinations.","contrary_outcome":"Classification fails when average brightness is matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0773","id":"S6-0773","volume":"900v6","title":"Polarized flow-front stress","prediction":"Swelling transmits stress into still-dry material.","test":"Use benign photoelastic gel models with independently mapped water fronts.","contrary":"Stress contrast appears only where water has already arrived.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0773","title":"Polarized flow-front stress","question":"Can polarized imaging reveal mechanical stress ahead of a water front in a constrained clear gel?","prediction":"Swelling transmits stress into still-dry material.","test":"Use benign photoelastic gel models with independently mapped water fronts.","contrary_outcome":"Stress contrast appears only where water has already arrived.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0774","id":"S6-0774","volume":"900v6","title":"Optical mesh tension anisotropy","prediction":"Out-of-plane compliance depends on tension orientation.","test":"Apply gentle air pulses to benign meshes and compare optical estimates with load cells.","contrary":"Estimated direction follows mesh pattern rather than applied tension.","layers":[1],"categories":["physical","biology","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0774","title":"Optical mesh tension anisotropy","question":"Can small projected-grid distortions estimate mesh tension direction before any strand visibly slips?","prediction":"Out-of-plane compliance depends on tension orientation.","test":"Apply gentle air pulses to benign meshes and compare optical estimates with load cells.","contrary_outcome":"Estimated direction follows mesh pattern rather than applied tension.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0775","id":"S6-0775","volume":"900v6","title":"Speckle drying support change","prediction":"Detachment produces a coherent motion event distinct from distributed drying decorrelation.","test":"Dry benign films with independent interface imaging and low-intensity light.","contrary":"Both processes have indistinguishable correlation signatures.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0775","title":"Speckle drying support change","question":"Can support detachment be separated from internal drying using spatial speckle timing?","prediction":"Detachment produces a coherent motion event distinct from distributed drying decorrelation.","test":"Dry benign films with independent interface imaging and low-intensity light.","contrary_outcome":"Both processes have indistinguishable correlation signatures.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0776","id":"S6-0776","volume":"900v6","title":"Droplet reflection contact age","prediction":"Microscopic perimeter rearrangement adds a measurable aging signature.","test":"Use water droplets, low-intensity imaging, calibrated tilt force, and held-out surfaces.","contrary":"The pattern adds no predictive value beyond angle and volume.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0776","title":"Droplet reflection contact age","question":"Can reflection-pattern evolution during rest predict a droplet's later depinning force better than contact angle alone?","prediction":"Microscopic perimeter rearrangement adds a measurable aging signature.","test":"Use water droplets, low-intensity imaging, calibrated tilt force, and held-out surfaces.","contrary_outcome":"The pattern adds no predictive value beyond angle and volume.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0777","id":"S6-0777","volume":"900v6","title":"Optical slit filling topology","prediction":"Refraction near internal menisci creates a connectivity-sensitive pattern.","test":"Use transparent slit models with independently known three-dimensional fill states.","contrary":"Texture identifies only total projected wet area.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0777","title":"Optical slit filling topology","question":"Can image texture distinguish two disconnected water pockets from one connected pocket of equal projected area?","prediction":"Refraction near internal menisci creates a connectivity-sensitive pattern.","test":"Use transparent slit models with independently known three-dimensional fill states.","contrary_outcome":"Texture identifies only total projected wet area.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0778","id":"S6-0778","volume":"900v6","title":"Transparent coating compression fringe","prediction":"A redistribution front changes spatial fringe curvature.","test":"Compress benign clear coatings gently with profilometry and calibrated fringe sensitivity.","contrary":"Fringe changes occur only with resolved mean thickness loss.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0778","title":"Transparent coating compression fringe","question":"Can fringe motion reveal local coating squeeze-out before total film thickness changes detectably?","prediction":"A redistribution front changes spatial fringe curvature.","test":"Compress benign clear coatings gently with profilometry and calibrated fringe sensitivity.","contrary_outcome":"Fringe changes occur only with resolved mean thickness loss.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0778","title":"Transparent coating compression fringe","question":"Can fringe motion reveal local coating squeeze-out before total film thickness changes detectably?","prediction":"A redistribution front changes spatial fringe curvature.","test":"Compress benign clear coatings gently with profilometry and calibrated fringe sensitivity.","contrary_outcome":"Fringe changes occur only with resolved mean thickness loss.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0779","id":"S6-0779","volume":"900v6","title":"Reflected wave wall compliance","prediction":"Their phase response to gentle waves differs.","test":"Image reflected patterns with independent wall displacement and matched static geometry.","contrary":"Responses depend only on instantaneous wall shape.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0779","title":"Reflected wave wall compliance","question":"Can surface reflections distinguish a soft channel wall from a rigid wall with the same instantaneous outline?","prediction":"Their phase response to gentle waves differs.","test":"Image reflected patterns with independent wall displacement and matched static geometry.","contrary_outcome":"Responses depend only on instantaneous wall shape.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0780","id":"S6-0780","volume":"900v6","title":"Optical grain arch precursor","prediction":"Depth motion begins before visible in-plane contact loss.","test":"Use inert disk models, calibrated projection, and synchronized side-view validation.","contrary":"Projected changes arise only after contact loss or lighting drift.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0780","title":"Optical grain arch precursor","question":"Can projected-line curvature identify out-of-plane motion preceding a granular arch collapse?","prediction":"Depth motion begins before visible in-plane contact loss.","test":"Use inert disk models, calibrated projection, and synchronized side-view validation.","contrary_outcome":"Projected changes arise only after contact loss or lighting drift.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0781","id":"S6-0781","volume":"900v6","title":"Granular bridge interrupted loading","prediction":"Frictional contact aging raises its restart threshold.","test":"Load inert bead arches with matched peak force and varied pause lengths.","contrary":"Threshold depends only on current geometry and force.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0781","title":"Granular bridge interrupted loading","question":"Can pausing a load ramp strengthen a grain bridge against the next increment?","prediction":"Frictional contact aging raises its restart threshold.","test":"Load inert bead arches with matched peak force and varied pause lengths.","contrary_outcome":"Threshold depends only on current geometry and force.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0782","id":"S6-0782","volume":"900v6","title":"Wetted hinge drainage torque","prediction":"The shrinking meniscus crosses the hinge axis.","test":"Measure torque and water geometry in a small transparent hinge.","contrary":"Torque retains one sign until rupture.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0782","title":"Wetted hinge drainage torque","question":"Can water drainage reverse a hinge's capillary torque before its bridge breaks?","prediction":"The shrinking meniscus crosses the hinge axis.","test":"Measure torque and water geometry in a small transparent hinge.","contrary_outcome":"Torque retains one sign until rupture.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0783","id":"S6-0783","volume":"900v6","title":"Porous wall trapped solute","prediction":"Reversal pushes enriched boundary liquid into slow pores.","test":"Use food-safe dye, benign porous walls, and matched throughput.","contrary":"Retained tracer depends only on exposure time and mean concentration.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0783","title":"Porous wall trapped solute","question":"Can a brief reverse flow leave more tracer inside a porous wall than uninterrupted forward flow?","prediction":"Reversal pushes enriched boundary liquid into slow pores.","test":"Use food-safe dye, benign porous walls, and matched throughput.","contrary_outcome":"Retained tracer depends only on exposure time and mean concentration.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0784","id":"S6-0784","volume":"900v6","title":"Elastic ring thermal seating","prediction":"Thermal slip changes its frictional contact state.","test":"Measure ring contact pressure and shape through safe temperature cycles.","contrary":"Seating recovers its initial state with temperature.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0784","title":"Elastic ring thermal seating","question":"Can mild warming improve ring seating after cooling without permanent ring deformation?","prediction":"Thermal slip changes its frictional contact state.","test":"Measure ring contact pressure and shape through safe temperature cycles.","contrary_outcome":"Seating recovers its initial state with temperature.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0785","id":"S6-0785","volume":"900v6","title":"Foam seam liquid front","prediction":"Large interfacial channels favor flow but reduce load transfer.","test":"Map water and tensile strength in benign joined foams.","contrary":"Faster seam flow requires equal or greater seam strength.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0785","title":"Foam seam liquid front","question":"Can a seam carry water ahead of the bulk wetting front while remaining mechanically weaker than the surrounding foam?","prediction":"Large interfacial channels favor flow but reduce load transfer.","test":"Map water and tensile strength in benign joined foams.","contrary_outcome":"Faster seam flow requires equal or greater seam strength.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0786","id":"S6-0786","volume":"900v6","title":"Double membrane air transfer","prediction":"A transient connecting-duct flow creates local suction.","test":"Use low-pressure coupled membranes with fast pressure and displacement sensing.","contrary":"Neighbor motion always follows the shared static pressure sign.","layers":[1],"categories":["physical","biology","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0786","title":"Double membrane air transfer","question":"Can compressing one air-backed membrane make its neighbor initially move toward it rather than away?","prediction":"A transient connecting-duct flow creates local suction.","test":"Use low-pressure coupled membranes with fast pressure and displacement sensing.","contrary_outcome":"Neighbor motion always follows the shared static pressure sign.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0787","id":"S6-0787","volume":"900v6","title":"Sliding bead wet footprint","prediction":"Contact-line relaxation preserves recent speed history.","test":"Track inert wet beads with controlled speed ramps and footprint imaging.","contrary":"Footprint width is a unique function of current speed.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0787","title":"Sliding bead wet footprint","question":"Can a moving wet bead leave a wider footprint when slowing down than when speeding up at the same speed?","prediction":"Contact-line relaxation preserves recent speed history.","test":"Track inert wet beads with controlled speed ramps and footprint imaging.","contrary_outcome":"Footprint width is a unique function of current speed.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0788","id":"S6-0788","volume":"900v6","title":"Dissolving post contact transfer","prediction":"Support stiffness falls before its height changes appreciably.","test":"Use low-load sugar posts with individual force sensors and height imaging.","contrary":"Load changes require detectable panel displacement or support shortening.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0788","title":"Dissolving post contact transfer","question":"Can dissolution transfer a panel's load from one support to another before visible panel movement?","prediction":"Support stiffness falls before its height changes appreciably.","test":"Use low-load sugar posts with individual force sensors and height imaging.","contrary_outcome":"Load changes require detectable panel displacement or support shortening.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0789","id":"S6-0789","volume":"900v6","title":"Magnetic strap slack detection","prediction":"Small probe-force compliance increases before gross displacement.","test":"Use enclosed markers, calibrated weak forces, and independent tension measurements.","contrary":"Probe response changes only after visible sagging.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0789","title":"Magnetic strap slack detection","question":"Can a weak magnetic marker reveal local slack before a strap visibly sags?","prediction":"Small probe-force compliance increases before gross displacement.","test":"Use enclosed markers, calibrated weak forces, and independent tension measurements.","contrary_outcome":"Probe response changes only after visible sagging.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0789","title":"Magnetic strap slack detection","question":"Can a weak magnetic marker reveal local slack before a strap visibly sags?","prediction":"Small probe-force compliance increases before gross displacement.","test":"Use enclosed markers, calibrated weak forces, and independent tension measurements.","contrary_outcome":"Probe response changes only after visible sagging.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0790","id":"S6-0790","volume":"900v6","title":"Electrode-free wetness split","prediction":"Opposed guarded electrodes weight the sides differently.","test":"Use controlled water films and held-out two-sided distributions at low voltage.","contrary":"Signals depend only on total water mass.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0790","title":"Electrode-free wetness split","question":"Can external capacitance distinguish water on the two sides of a thin insulating sheet?","prediction":"Opposed guarded electrodes weight the sides differently.","test":"Use controlled water films and held-out two-sided distributions at low voltage.","contrary_outcome":"Signals depend only on total water mass.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0791","id":"S6-0791","volume":"900v6","title":"Acoustic pore vent closure","prediction":"The closure redirects dissipative flow paths.","test":"Measure low-level sound through benign pore models with multiple vent states.","contrary":"Attenuation changes only in proportion to propagation delay.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0791","title":"Acoustic pore vent closure","question":"Can closing one vent in a porous sample change attenuation more than phase delay?","prediction":"The closure redirects dissipative flow paths.","test":"Measure low-level sound through benign pore models with multiple vent states.","contrary_outcome":"Attenuation changes only in proportion to propagation delay.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0792","id":"S6-0792","volume":"900v6","title":"Layered cord acoustic location","prediction":"The slip changes local wave speed independently of source amplitude.","test":"Tap benign cords gently with multiple sensors and concealed slip locations.","contrary":"Localization fails across different tap strengths and positions.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0792","title":"Layered cord acoustic location","question":"Can arrival-time differences locate a slipped braid segment despite unknown tap strength?","prediction":"The slip changes local wave speed independently of source amplitude.","test":"Tap benign cords gently with multiple sensors and concealed slip locations.","contrary_outcome":"Localization fails across different tap strengths and positions.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0793","id":"S6-0793","volume":"900v6","title":"Optical crack wetting ordering","prediction":"Filling changes optical path while geometry stays fixed.","test":"Use benign transparent coupons, controlled water ingress, and independent gap measurements.","contrary":"Color changes are explained only by crack opening.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0793","title":"Optical crack wetting ordering","question":"Can reflected color distinguish a dry crack from a water-filled crack before either changes width?","prediction":"Filling changes optical path while geometry stays fixed.","test":"Use benign transparent coupons, controlled water ingress, and independent gap measurements.","contrary_outcome":"Color changes are explained only by crack opening.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0794","id":"S6-0794","volume":"900v6","title":"Floating raft drying seam","prediction":"Solid bridges strengthen separation resistance while shrinkage creates compression slack.","test":"Test benign particle rafts with force and geometry measurements.","contrary":"Both stiffness and strength vary together with density.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0794","title":"Floating raft drying seam","question":"Can drying a narrow raft seam increase tensile strength while decreasing compressive stiffness?","prediction":"Solid bridges strengthen separation resistance while shrinkage creates compression slack.","test":"Test benign particle rafts with force and geometry measurements.","contrary_outcome":"Both stiffness and strength vary together with density.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0795","id":"S6-0795","volume":"900v6","title":"Thermal cavity pressure lag","prediction":"Delayed gas heating from internal thermal mass shifts the peak.","test":"Measure low-pressure air cavities with internal and wall thermometry.","contrary":"Pressure peaks with mean gas temperature as predicted without extra delay.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0795","title":"Thermal cavity pressure lag","question":"Can a brief safe heating pulse produce a pressure maximum after the cavity wall has begun cooling?","prediction":"Delayed gas heating from internal thermal mass shifts the peak.","test":"Measure low-pressure air cavities with internal and wall thermometry.","contrary_outcome":"Pressure peaks with mean gas temperature as predicted without extra delay.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0796","id":"S6-0796","volume":"900v6","title":"Soft valve water hammer","prediction":"Partial collapse creates a rapid final pinch despite slow actuation.","test":"Use low-head water, multiple pressure sensors, and high-speed valve imaging.","contrary":"Peak pressure increases monotonically with actuator speed.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0796","title":"Soft valve water hammer","question":"Can a slow soft-valve closure produce a sharper local pressure peak than a faster closure?","prediction":"Partial collapse creates a rapid final pinch despite slow actuation.","test":"Use low-head water, multiple pressure sensors, and high-speed valve imaging.","contrary_outcome":"Peak pressure increases monotonically with actuator speed.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0797","id":"S6-0797","volume":"900v6","title":"Porous sediment dye return","prediction":"Slow pore exchange releases a delayed retained fraction.","test":"Measure food-safe dye in inert porous pockets with tubing controls.","contrary":"Washout is single-peaked after instrument response is removed.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0797","title":"Porous sediment dye return","question":"Can clear water emerge from a sediment pocket before a second dye peak appears during washout?","prediction":"Slow pore exchange releases a delayed retained fraction.","test":"Measure food-safe dye in inert porous pockets with tubing controls.","contrary_outcome":"Washout is single-peaked after instrument response is removed.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0798","id":"S6-0798","volume":"900v6","title":"Folded foil thermal anisotropy","prediction":"Changing layer contacts reroutes conduction.","test":"Use mild heating and calibrated thermal maps at several fold states.","contrary":"Heat spreading direction follows only the outer foil orientation.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0798","title":"Folded foil thermal anisotropy","question":"Can unfolding a foil partly reverse its preferred direction of heat spreading?","prediction":"Changing layer contacts reroutes conduction.","test":"Use mild heating and calibrated thermal maps at several fold states.","contrary_outcome":"Heat spreading direction follows only the outer foil orientation.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0799","id":"S6-0799","volume":"900v6","title":"Hanging strip humidity node","prediction":"Nonuniform swelling redistributes curvature.","test":"Map benign paper-strip shape and moisture during controlled humidity steps.","contrary":"The node remains fixed or moves only with endpoint drift.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0799","title":"Hanging strip humidity node","question":"Can a humidity step move a strip's bending node while its endpoints stay fixed?","prediction":"Nonuniform swelling redistributes curvature.","test":"Map benign paper-strip shape and moisture during controlled humidity steps.","contrary_outcome":"The node remains fixed or moves only with endpoint drift.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0799","title":"Hanging strip humidity node","question":"Can a humidity step move a strip's bending node while its endpoints stay fixed?","prediction":"Nonuniform swelling redistributes curvature.","test":"Map benign paper-strip shape and moisture during controlled humidity steps.","contrary_outcome":"The node remains fixed or moves only with endpoint drift.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0800","id":"S6-0800","volume":"900v6","title":"Granular boundary pulse filtering","prediction":"Wall compliance filters contact impulses.","test":"Measure inert-disk boundary forces with interchangeable equal-position walls.","contrary":"Fluctuation reduction requires a proportional mean-pressure reduction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0800","title":"Granular boundary pulse filtering","question":"Can a soft wall remove high-frequency force fluctuations while preserving mean granular pressure?","prediction":"Wall compliance filters contact impulses.","test":"Measure inert-disk boundary forces with interchangeable equal-position walls.","contrary_outcome":"Fluctuation reduction requires a proportional mean-pressure reduction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0801","id":"S6-0801","volume":"900v6","title":"Magnetic particle pore unblock","prediction":"Local orientation opens a critical throat.","test":"Use enclosed mixed beads in transparent low-pressure water cells.","contrary":"Flow restarts only after bulk grain motion.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0801","title":"Magnetic particle pore unblock","question":"Can a weak field rotate one particle enough to unblock water flow without moving the surrounding bed?","prediction":"Local orientation opens a critical throat.","test":"Use enclosed mixed beads in transparent low-pressure water cells.","contrary_outcome":"Flow restarts only after bulk grain motion.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0802","id":"S6-0802","volume":"900v6","title":"Capacitive hinge delamination","prediction":"Electrode placement produces layer-specific response ratios.","test":"Test benign insulating laminates with concealed calibrated delaminations and low-voltage sensing.","contrary":"Only total debonded area is recoverable.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0802","title":"Capacitive hinge delamination","question":"Can capacitance identify which layer of a two-layer hinge has debonded?","prediction":"Electrode placement produces layer-specific response ratios.","test":"Test benign insulating laminates with concealed calibrated delaminations and low-voltage sensing.","contrary_outcome":"Only total debonded area is recoverable.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0803","id":"S6-0803","volume":"900v6","title":"Resistive fabric damp crease","prediction":"Water stabilizes intermittent fiber contacts.","test":"Measure low-current conductive cloth with controlled moisture and optical contact tracking.","contrary":"Noise suppression is explained entirely by a mean-conductivity increase.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0803","title":"Resistive fabric damp crease","question":"Can dampening one crease suppress resistance fluctuations during motion without much changing mean resistance?","prediction":"Water stabilizes intermittent fiber contacts.","test":"Measure low-current conductive cloth with controlled moisture and optical contact tracking.","contrary_outcome":"Noise suppression is explained entirely by a mean-conductivity increase.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0803","title":"Resistive fabric damp crease","question":"Can dampening one crease suppress resistance fluctuations during motion without much changing mean resistance?","prediction":"Water stabilizes intermittent fiber contacts.","test":"Measure low-current conductive cloth with controlled moisture and optical contact tracking.","contrary_outcome":"Noise suppression is explained entirely by a mean-conductivity increase.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0804","id":"S6-0804","volume":"900v6","title":"Optical foam collapse location","prediction":"Drainage concentrates weakness at thin shared borders.","test":"Image benign aqueous foams and evaluate held-out collapse predictions.","contrary":"Area alone performs as well after uncertainty matching.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0804","title":"Optical foam collapse location","question":"Can border-thickness maps predict which foam cell collapses next better than cell area?","prediction":"Drainage concentrates weakness at thin shared borders.","test":"Image benign aqueous foams and evaluate held-out collapse predictions.","contrary_outcome":"Area alone performs as well after uncertainty matching.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0805","id":"S6-0805","volume":"900v6","title":"Wave packet porous shore","prediction":"Temporary storage returns water with a phase lag.","test":"Measure gentle wave packets, pore water levels, and energy flux.","contrary":"Large delay always requires comparable energy loss.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0805","title":"Wave packet porous shore","question":"Can a porous shoreline delay the reflected wave packet without strongly lowering its energy?","prediction":"Temporary storage returns water with a phase lag.","test":"Measure gentle wave packets, pore water levels, and energy flux.","contrary_outcome":"Large delay always requires comparable energy loss.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0806","id":"S6-0806","volume":"900v6","title":"Elastic clip humidity threshold","prediction":"Swelling shifts geometry and friction in opposite directions.","test":"Use folded benign cellulose clips with force and moisture measurements.","contrary":"Both thresholds shift together after geometry correction.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0806","title":"Elastic clip humidity threshold","question":"Can humidity lower a paper clip's opening threshold while increasing its closing threshold?","prediction":"Swelling shifts geometry and friction in opposite directions.","test":"Use folded benign cellulose clips with force and moisture measurements.","contrary_outcome":"Both thresholds shift together after geometry correction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0807","id":"S6-0807","volume":"900v6","title":"Water bridge torsion partition","prediction":"Twist relocates pinning sites that govern liquid partition.","test":"Measure water bridges with torque, force, and postrupture volume imaging.","contrary":"Partition changes are proportional to rupture-force changes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0807","title":"Water bridge torsion partition","question":"Can twisting a bridge before stretching change retained volumes without changing rupture force substantially?","prediction":"Twist relocates pinning sites that govern liquid partition.","test":"Measure water bridges with torque, force, and postrupture volume imaging.","contrary_outcome":"Partition changes are proportional to rupture-force changes.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0808","id":"S6-0808","volume":"900v6","title":"Dead cavity acoustic humidity","prediction":"Exchange time creates a distinctive differential signal.","test":"Use quiet acoustic probes and independent humidity sensors in benign ducts.","contrary":"Differential response cannot distinguish exchange from sensor lag.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0808","title":"Dead cavity acoustic humidity","question":"Can a side cavity's humidity response lag the main duct enough to separate ventilation from ambient humidity drift?","prediction":"Exchange time creates a distinctive differential signal.","test":"Use quiet acoustic probes and independent humidity sensors in benign ducts.","contrary_outcome":"Differential response cannot distinguish exchange from sensor lag.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0809","id":"S6-0809","volume":"900v6","title":"Folded mesh capillary load","prediction":"Bridges form preferentially across the fold contacts.","test":"Measure benign wet mesh force curves and bridge images with equal-water flat controls.","contrary":"Stiffness changes depend only on total water mass.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0809","title":"Folded mesh capillary load","question":"Can water bridges change a mesh's apparent fold stiffness more than its flat-sheet stiffness?","prediction":"Bridges form preferentially across the fold contacts.","test":"Measure benign wet mesh force curves and bridge images with equal-water flat controls.","contrary_outcome":"Stiffness changes depend only on total water mass.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0810","id":"S6-0810","volume":"900v6","title":"Gel channel corner opening","prediction":"Constraint converts expansion into local interface separation.","test":"Use benign bonded gels with transparent channels and pressure-flow measurements.","contrary":"Every local gap narrows monotonically during swelling.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0810","title":"Gel channel corner opening","question":"Can modest swelling open a previously closed corner channel while narrowing the main channel?","prediction":"Constraint converts expansion into local interface separation.","test":"Use benign bonded gels with transparent channels and pressure-flow measurements.","contrary_outcome":"Every local gap narrows monotonically during swelling.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0811","id":"S6-0811","volume":"900v6","title":"Granular plate lift asymmetry","prediction":"Frictional rearrangement preserves directional preparation.","test":"Use photoelastic disks, small plate motions, and restored-boundary force maps.","contrary":"Original force statistics return after reinsertion.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0811","title":"Granular plate lift asymmetry","question":"Can slowly lifting a buried plate leave different force paths above and below it after reinsertion?","prediction":"Frictional rearrangement preserves directional preparation.","test":"Use photoelastic disks, small plate motions, and restored-boundary force maps.","contrary_outcome":"Original force statistics return after reinsertion.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0812","id":"S6-0812","volume":"900v6","title":"Thermal paper lamination order","prediction":"Different locked-in moisture gradients persist through bonding.","test":"Use benign paper-polymer layers with measured moisture and mild thermal steps.","contrary":"Curl is determined only by final composition and thickness.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0812","title":"Thermal paper lamination order","question":"Can reversing lamination order change transient curl at equal final layer thickness and composition?","prediction":"Different locked-in moisture gradients persist through bonding.","test":"Use benign paper-polymer layers with measured moisture and mild thermal steps.","contrary_outcome":"Curl is determined only by final composition and thickness.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0813","id":"S6-0813","volume":"900v6","title":"Bubble curtain thermal mixing","prediction":"Buoyancy distributes mixing along the column height.","test":"Use safe-temperature water, low air flow, and calibrated power and temperature profiles.","contrary":"Stratification reduction depends only on total input power.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0813","title":"Bubble curtain thermal mixing","question":"Can sparse bubbles reduce thermal stratification more than mechanical stirring at equal measured input power?","prediction":"Buoyancy distributes mixing along the column height.","test":"Use safe-temperature water, low air flow, and calibrated power and temperature profiles.","contrary_outcome":"Stratification reduction depends only on total input power.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0814","id":"S6-0814","volume":"900v6","title":"Acoustic thread knot census","prediction":"Distinct reflection delays preserve location information.","test":"Use gentle mechanical pulses and independently imaged knot positions.","contrary":"Reflections merge or vary too strongly with tightness for reliable counting.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0814","title":"Acoustic thread knot census","question":"Can echo timing count separated knots in a cord despite unknown knot tightness?","prediction":"Distinct reflection delays preserve location information.","test":"Use gentle mechanical pulses and independently imaged knot positions.","contrary_outcome":"Reflections merge or vary too strongly with tightness for reliable counting.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0814","title":"Acoustic thread knot census","question":"Can echo timing count separated knots in a cord despite unknown knot tightness?","prediction":"Distinct reflection delays preserve location information.","test":"Use gentle mechanical pulses and independently imaged knot positions.","contrary_outcome":"Reflections merge or vary too strongly with tightness for reliable counting.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0815","id":"S6-0815","volume":"900v6","title":"Reflective film trapped water","prediction":"Added local mass shifts the measured compliance map.","test":"Use low-amplitude excitation, optical motion measurement, and concealed calibrated patches.","contrary":"Localization follows support irregularities rather than patch location.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0815","title":"Reflective film trapped water","question":"Can a trapped water patch be located beneath a reflective film from its vibration response alone?","prediction":"Added local mass shifts the measured compliance map.","test":"Use low-amplitude excitation, optical motion measurement, and concealed calibrated patches.","contrary_outcome":"Localization follows support irregularities rather than patch location.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0816","id":"S6-0816","volume":"900v6","title":"Soluble rim support reversal","prediction":"The load path transfers from rim support to an interior contact.","test":"Use low-energy sugar-rim models with force and shape imaging.","contrary":"Bowing retains its initial sign until collapse.","layers":[1],"categories":["physical","energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0816","title":"Soluble rim support reversal","question":"Can dissolving an outer rim make a loaded disk bow in the opposite direction before failure?","prediction":"The load path transfers from rim support to an interior contact.","test":"Use low-energy sugar-rim models with force and shape imaging.","contrary_outcome":"Bowing retains its initial sign until collapse.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0817","id":"S6-0817","volume":"900v6","title":"Viscoelastic wedge retreat","prediction":"Stored substrate strain releases asymmetrically.","test":"Measure low-load wedge motion, force, and contact geometry during partial unloading.","contrary":"Wedge displacement always retreats with decreasing load.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0817","title":"Viscoelastic wedge retreat","question":"Can removing part of a wedge load briefly drive it deeper into a soft contact?","prediction":"Stored substrate strain releases asymmetrically.","test":"Measure low-load wedge motion, force, and contact geometry during partial unloading.","contrary_outcome":"Wedge displacement always retreats with decreasing load.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0818","id":"S6-0818","volume":"900v6","title":"Conductive foam shear bands","prediction":"The two deformations redistribute conductive contacts differently.","test":"Use low-current benign conductive foam with independent strain imaging.","contrary":"Potential maps depend only on total resistance and electrode spacing.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0818","title":"Conductive foam shear bands","question":"Can electrical potential maps distinguish a shear band from a compression band at equal total resistance?","prediction":"The two deformations redistribute conductive contacts differently.","test":"Use low-current benign conductive foam with independent strain imaging.","contrary_outcome":"Potential maps depend only on total resistance and electrode spacing.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0819","id":"S6-0819","volume":"900v6","title":"Capillary fence splash capture","prediction":"Liquid bridges enlarge the effective capture target.","test":"Use low-speed water droplets, benign fibers, and measured captured mass.","contrary":"Capture improvement equals only the reduction in open area.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0819","title":"Capillary fence splash capture","question":"Can a sparse wetted fence capture droplets more effectively than a dry fence with the same open area?","prediction":"Liquid bridges enlarge the effective capture target.","test":"Use low-speed water droplets, benign fibers, and measured captured mass.","contrary_outcome":"Capture improvement equals only the reduction in open area.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0820","id":"S6-0820","volume":"900v6","title":"Air pocket roof resonance","prediction":"Local compliance changes the mode-shape pattern.","test":"Use low-amplitude excitation and blinded air-pocket position-volume combinations.","contrary":"Only total air volume is identifiable.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0820","title":"Air pocket roof resonance","question":"Can a water-filled cavity's roof vibration identify the position of a trapped air pocket independently of its volume?","prediction":"Local compliance changes the mode-shape pattern.","test":"Use low-amplitude excitation and blinded air-pocket position-volume combinations.","contrary_outcome":"Only total air volume is identifiable.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0821","id":"S6-0821","volume":"900v6","title":"Optical grain wetness direction","prediction":"Interface placement changes angular scattering.","test":"Use inert bead models with controlled water distributions and calibrated lighting.","contrary":"Signals depend only on total water and average brightness.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0821","title":"Optical grain wetness direction","question":"Can reflected-light anisotropy distinguish moisture between grains from moisture coating their exposed tops?","prediction":"Interface placement changes angular scattering.","test":"Use inert bead models with controlled water distributions and calibrated lighting.","contrary_outcome":"Signals depend only on total water and average brightness.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0822","id":"S6-0822","volume":"900v6","title":"Gel seam diffusion arrest","prediction":"Interface closure removes connected transport paths.","test":"Use benign food-dye gels, pressure maps, and matched bulk-compression controls.","contrary":"Delay is explained entirely by thickness and bulk diffusivity.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0822","title":"Gel seam diffusion arrest","question":"Can pressing a gel seam delay tracer transport more than compressing the same thickness away from the seam?","prediction":"Interface closure removes connected transport paths.","test":"Use benign food-dye gels, pressure maps, and matched bulk-compression controls.","contrary_outcome":"Delay is explained entirely by thickness and bulk diffusivity.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0823","id":"S6-0823","volume":"900v6","title":"Magnetic spring contact state","prediction":"Incremental susceptibility of the assembly changes at contact.","test":"Use enclosed weak magnets, low-force springs, and independent contact microscopy.","contrary":"Signals track only overall spring length.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0823","title":"Magnetic spring contact state","question":"Can weak magnetic probing identify whether adjacent spring turns touch without moving them visibly?","prediction":"Incremental susceptibility of the assembly changes at contact.","test":"Use enclosed weak magnets, low-force springs, and independent contact microscopy.","contrary_outcome":"Signals track only overall spring length.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0824","id":"S6-0824","volume":"900v6","title":"Thermal weave contact drift","prediction":"Fiber contacts relax and redistribute conduction.","test":"Measure mild heat flux, contact pressure, and strap geometry.","contrary":"Conductance is stationary once temperatures and length stabilize.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0824","title":"Thermal weave contact drift","question":"Can a woven thermal strap change conductance during a fixed-temperature hold while its length stays constant?","prediction":"Fiber contacts relax and redistribute conduction.","test":"Measure mild heat flux, contact pressure, and strap geometry.","contrary_outcome":"Conductance is stationary once temperatures and length stabilize.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0825","id":"S6-0825","volume":"900v6","title":"Surface raft confined drying","prediction":"Constrained shrinkage transmits tension remotely.","test":"Dry benign particle films with movable bands and full strain imaging.","contrary":"Cracks start only at the band or initial defects.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0825","title":"Surface raft confined drying","question":"Can a narrow confinement band cause drying cracks to start outside the band?","prediction":"Constrained shrinkage transmits tension remotely.","test":"Dry benign particle films with movable bands and full strain imaging.","contrary_outcome":"Cracks start only at the band or initial defects.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0826","id":"S6-0826","volume":"900v6","title":"Channel bubble expansion pause","prediction":"The pause allows contact-line relaxation before further expansion.","test":"Use rated low-pressure water channels with measured bubble geometry and time-matched controls.","contrary":"Clearance depends only on final pressure and bubble volume.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0826","title":"Channel bubble expansion pause","question":"Can pausing a modest pressure decrease improve bubble clearance more than a continuous decrease to the same endpoint?","prediction":"The pause allows contact-line relaxation before further expansion.","test":"Use rated low-pressure water channels with measured bubble geometry and time-matched controls.","contrary_outcome":"Clearance depends only on final pressure and bubble volume.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0827","id":"S6-0827","volume":"900v6","title":"Cord torsional humidity lag","prediction":"Different structural relaxation times separate torsion from extension.","test":"Measure benign cords with angle, length, and mass tracking.","contrary":"Twist stops whenever length and water mass stabilize.","layers":[1,2],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0827","title":"Cord torsional humidity lag","question":"Can humidity-driven twist continue after axial length has stabilized in a cellulose cord?","prediction":"Different structural relaxation times separate torsion from extension.","test":"Measure benign cords with angle, length, and mass tracking.","contrary_outcome":"Twist stops whenever length and water mass stabilize.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0827","title":"Cord torsional humidity lag","question":"Can humidity-driven twist continue after axial length has stabilized in a cellulose cord?","prediction":"Different structural relaxation times separate torsion from extension.","test":"Measure benign cords with angle, length, and mass tracking.","contrary_outcome":"Twist stops whenever length and water mass stabilize.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0828","id":"S6-0828","volume":"900v6","title":"Porous coating peel wetness","prediction":"Interfacial water changes adhesion ahead of bulk hydration.","test":"Use benign coatings with independent swelling and interface imaging.","contrary":"Peel force changes only after resolved swelling.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0828","title":"Porous coating peel wetness","question":"Can wetting beneath a porous coating reduce peel force before measurable coating swelling?","prediction":"Interfacial water changes adhesion ahead of bulk hydration.","test":"Use benign coatings with independent swelling and interface imaging.","contrary_outcome":"Peel force changes only after resolved swelling.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0829","id":"S6-0829","volume":"900v6","title":"Acoustic ring contact topology","prediction":"Contact topology changes mode symmetry.","test":"Use quiet excitation, independently measured contacts, and concealed configurations.","contrary":"Spectra identify total force but not contact topology.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0829","title":"Acoustic ring contact topology","question":"Can three microphone positions distinguish a ring touching a wall at one point from two points at equal contact force?","prediction":"Contact topology changes mode symmetry.","test":"Use quiet excitation, independently measured contacts, and concealed configurations.","contrary_outcome":"Spectra identify total force but not contact topology.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0830","id":"S6-0830","volume":"900v6","title":"Optical film hinge slack","prediction":"Small transverse motion amplifies the slack geometry.","test":"Use benign film hinges with calibrated slack and independent force sensing.","contrary":"Optical detection has no advantage at matched noise.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0830","title":"Optical film hinge slack","question":"Can a projected line detect local hinge slack before a load-displacement curve resolves it?","prediction":"Small transverse motion amplifies the slack geometry.","test":"Use benign film hinges with calibrated slack and independent force sensing.","contrary_outcome":"Optical detection has no advantage at matched noise.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0831","id":"S6-0831","volume":"900v6","title":"Split reservoir drying order","prediction":"Vapor exchange changes local evaporation while liquid supply stays coupled.","test":"Weigh benign water reservoirs with separate humidity and liquid-path measurements.","contrary":"Drying order follows exposed area alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0831","title":"Split reservoir drying order","question":"Can opening a vapor connection reverse which of two connected wet reservoirs dries first?","prediction":"Vapor exchange changes local evaporation while liquid supply stays coupled.","test":"Weigh benign water reservoirs with separate humidity and liquid-path measurements.","contrary_outcome":"Drying order follows exposed area alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0832","id":"S6-0832","volume":"900v6","title":"Foam block corner drainage","prediction":"Stress redistribution opens a remote connected pore path.","test":"Use benign open-cell foam with pressure and water tracking.","contrary":"Remote drainage changes only after water reaches the compressed corner.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0832","title":"Foam block corner drainage","question":"Can compressing one dry corner accelerate water drainage from an opposite wet corner?","prediction":"Stress redistribution opens a remote connected pore path.","test":"Use benign open-cell foam with pressure and water tracking.","contrary_outcome":"Remote drainage changes only after water reaches the compressed corner.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0833","id":"S6-0833","volume":"900v6","title":"Flexible grille sound phase","prediction":"Membrane compliance modifies reactive coupling.","test":"Measure complex low-level sound transmission with independent grille motion.","contrary":"Phase and amplitude changes remain proportional across pretension.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0833","title":"Flexible grille sound phase","question":"Can changing a grille's pretension alter transmitted phase more than amplitude at quiet sound levels?","prediction":"Membrane compliance modifies reactive coupling.","test":"Measure complex low-level sound transmission with independent grille motion.","contrary_outcome":"Phase and amplitude changes remain proportional across pretension.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0834","id":"S6-0834","volume":"900v6","title":"Particle coating dissolution recoil","prediction":"Asymmetric dissolution-driven transport adds a transient opposing force.","test":"Use benign sugar-coated beads, low loads, and dissolved-tracer velocity controls.","contrary":"Motion is fully explained by buoyancy and imposed flow.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0834","title":"Particle coating dissolution recoil","question":"Can a partially dissolving coating make a tethered bead move against steady weak flow?","prediction":"Asymmetric dissolution-driven transport adds a transient opposing force.","test":"Use benign sugar-coated beads, low loads, and dissolved-tracer velocity controls.","contrary_outcome":"Motion is fully explained by buoyancy and imposed flow.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0835","id":"S6-0835","volume":"900v6","title":"Contact-line island memory","prediction":"Residual surface chemistry preserves a wetting pattern.","test":"Use pure-water cycles on benign surfaces with profilometry and clean-surface controls.","contrary":"Later contours depend only on measurable roughness and contamination mass.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0835","title":"Contact-line island memory","question":"Can a dried wetting island bias a later droplet's perimeter without measurable surface-height change?","prediction":"Residual surface chemistry preserves a wetting pattern.","test":"Use pure-water cycles on benign surfaces with profilometry and clean-surface controls.","contrary_outcome":"Later contours depend only on measurable roughness and contamination mass.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0836","id":"S6-0836","volume":"900v6","title":"Thermal shell contact switch","prediction":"Geometric compatibility transfers support force.","test":"Use modest temperature changes, small polymer shells, and individual support load cells.","contrary":"Support fractions remain constant after uniform expansion correction.","layers":[1],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0836","title":"Thermal shell contact switch","question":"Can thermal expansion make a shell change which of two supports carries most load without changing total load?","prediction":"Geometric compatibility transfers support force.","test":"Use modest temperature changes, small polymer shells, and individual support load cells.","contrary_outcome":"Support fractions remain constant after uniform expansion correction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0837","id":"S6-0837","volume":"900v6","title":"Resistive cord abrasion warning","prediction":"Intermittent coating contacts appear before a persistent electrical break.","test":"Cycle benign conductive cord under mild abrasion with microscopy and held-out lifetime tests.","contrary":"Noise adds no predictive value over cycle count and mean resistance.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0837","title":"Resistive cord abrasion warning","question":"Can resistance fluctuation bursts predict later abrasion failure better than mean resistance?","prediction":"Intermittent coating contacts appear before a persistent electrical break.","test":"Cycle benign conductive cord under mild abrasion with microscopy and held-out lifetime tests.","contrary_outcome":"Noise adds no predictive value over cycle count and mean resistance.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0838","id":"S6-0838","volume":"900v6","title":"Soft channel acoustic fill","prediction":"Different air-path connectivity changes resonance and loss.","test":"Use transparent validation channels, quiet sound, and concealed fill states.","contrary":"Responses depend only on total water volume.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0838","title":"Soft channel acoustic fill","question":"Can low-level acoustic response distinguish a wall-adhering water film from a central water plug of equal volume?","prediction":"Different air-path connectivity changes resonance and loss.","test":"Use transparent validation channels, quiet sound, and concealed fill states.","contrary_outcome":"Responses depend only on total water volume.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0838","title":"Soft channel acoustic fill","question":"Can low-level acoustic response distinguish a wall-adhering water film from a central water plug of equal volume?","prediction":"Different air-path connectivity changes resonance and loss.","test":"Use transparent validation channels, quiet sound, and concealed fill states.","contrary_outcome":"Responses depend only on total water volume.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0839","id":"S6-0839","volume":"900v6","title":"Floating leaf fold flow","prediction":"The fold creates localized three-dimensional blockage.","test":"Measure low-speed water velocity beneath folded and flat polymer sheets.","contrary":"Flow changes follow submerged projected area alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0839","title":"Floating leaf fold flow","question":"Can a fold in a benign floating sheet redirect underlying water more than an equal submerged flat area?","prediction":"The fold creates localized three-dimensional blockage.","test":"Measure low-speed water velocity beneath folded and flat polymer sheets.","contrary_outcome":"Flow changes follow submerged projected area alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0840","id":"S6-0840","volume":"900v6","title":"Gel interface pressure memory","prediction":"Slow internal redistribution supports a transient pressure difference.","test":"Use benign layered gels with pore-pressure sensors and mass balance.","contrary":"Pressure returns immediately to baseline or follows external load alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0840","title":"Gel interface pressure memory","question":"Can a compressed gel interface retain a pressure offset after external load removal without net water loss?","prediction":"Slow internal redistribution supports a transient pressure difference.","test":"Use benign layered gels with pore-pressure sensors and mass balance.","contrary_outcome":"Pressure returns immediately to baseline or follows external load alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0841","id":"S6-0841","volume":"900v6","title":"Reservoir lip capillary release","prediction":"A connected meniscus changes pressure before bulk spilling.","test":"Measure water-front motion, lip geometry, and pressure during controlled lowering.","contrary":"Upstream motion begins only after water spills.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0841","title":"Reservoir lip capillary release","question":"Can lowering a reservoir lip release a water front upstream before overflow starts?","prediction":"A connected meniscus changes pressure before bulk spilling.","test":"Measure water-front motion, lip geometry, and pressure during controlled lowering.","contrary_outcome":"Upstream motion begins only after water spills.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0842","id":"S6-0842","volume":"900v6","title":"Flexible wick contact duty","prediction":"Pauses redistribute stored liquid between contacts.","test":"Map benign wick moisture with matched total water access and evaporation.","contrary":"Uniformity depends only on absorbed water mass.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0842","title":"Flexible wick contact duty","question":"Can brief repeated reservoir contacts supply a wick more evenly than one continuous contact of equal duration?","prediction":"Pauses redistribute stored liquid between contacts.","test":"Map benign wick moisture with matched total water access and evaporation.","contrary_outcome":"Uniformity depends only on absorbed water mass.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0843","id":"S6-0843","volume":"900v6","title":"Bubble collar drainage order","prediction":"Unequal liquid films change local contact-line thresholds.","test":"Image low-pressure water channels with controlled drainage direction and matched bubble volume.","contrary":"Depinning order is fixed by channel geometry alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0843","title":"Bubble collar drainage order","question":"Can drainage around a trapped bubble reverse which end depins first?","prediction":"Unequal liquid films change local contact-line thresholds.","test":"Image low-pressure water channels with controlled drainage direction and matched bubble volume.","contrary_outcome":"Depinning order is fixed by channel geometry alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0844","id":"S6-0844","volume":"900v6","title":"Wet mesh shear reservoir","prediction":"Contact rearrangement creates additional bridge sites.","test":"Weigh benign meshes and image bridges through controlled shear cycles.","contrary":"Retention depends only on final projected area and water exposure.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0844","title":"Wet mesh shear reservoir","question":"Can a sheared wet mesh retain more water after unloading than an unsheared mesh with equal final outline?","prediction":"Contact rearrangement creates additional bridge sites.","test":"Weigh benign meshes and image bridges through controlled shear cycles.","contrary_outcome":"Retention depends only on final projected area and water exposure.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0845","id":"S6-0845","volume":"900v6","title":"Droplet support compliance delay","prediction":"Deformation spreads neck thinning over time.","test":"Compare matched-wetting soft and rigid supports with force and geometry imaging.","contrary":"Longer detachment always requires a lower peak force.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0845","title":"Droplet support compliance delay","question":"Can support compliance delay droplet detachment without lowering its peak measured support force?","prediction":"Deformation spreads neck thinning over time.","test":"Compare matched-wetting soft and rigid supports with force and geometry imaging.","contrary_outcome":"Longer detachment always requires a lower peak force.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0846","id":"S6-0846","volume":"900v6","title":"Porous joint evaporation switch","prediction":"The joint controls liquid connectivity to remote pores.","test":"Measure benign porous assemblies with spatial thermal and moisture maps.","contrary":"Only the sealed region changes evaporation rate.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0846","title":"Porous joint evaporation switch","question":"Can sealing a small joint move the dominant evaporation zone far from the sealed area?","prediction":"The joint controls liquid connectivity to remote pores.","test":"Measure benign porous assemblies with spatial thermal and moisture maps.","contrary_outcome":"Only the sealed region changes evaporation rate.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0847","id":"S6-0847","volume":"900v6","title":"Capillary coil gravity reversal","prediction":"Multiple pinned menisci preserve the earlier pressure partition.","test":"Image transparent water coils during slow inversion and controlled depinning.","contrary":"Liquid redistributes immediately to the new hydrostatic state.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0847","title":"Capillary coil gravity reversal","question":"Can turning a partially filled coil upside down leave its liquid distribution temporarily unchanged?","prediction":"Multiple pinned menisci preserve the earlier pressure partition.","test":"Image transparent water coils during slow inversion and controlled depinning.","contrary_outcome":"Liquid redistributes immediately to the new hydrostatic state.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0848","id":"S6-0848","volume":"900v6","title":"Two-drop unequal support release","prediction":"Support release timing controls the last connected contact line.","test":"Merge water droplets on independently retractable supports with volume imaging.","contrary":"Retention follows initial droplet size regardless of release order.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0848","title":"Two-drop unequal support release","question":"Can releasing the smaller droplet's support determine where most merged water remains?","prediction":"Support release timing controls the last connected contact line.","test":"Merge water droplets on independently retractable supports with volume imaging.","contrary_outcome":"Retention follows initial droplet size regardless of release order.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0849","id":"S6-0849","volume":"900v6","title":"Water film edge compression","prediction":"Lateral liquid displacement feeds the center.","test":"Measure benign wet sheets with independent substrate and film profilometry.","contrary":"Central thickness changes require local substrate displacement.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0849","title":"Water film edge compression","question":"Can compressing a wet sheet's perimeter increase central film thickness without central substrate motion?","prediction":"Lateral liquid displacement feeds the center.","test":"Measure benign wet sheets with independent substrate and film profilometry.","contrary_outcome":"Central thickness changes require local substrate displacement.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0849","title":"Water film edge compression","question":"Can compressing a wet sheet's perimeter increase central film thickness without central substrate motion?","prediction":"Lateral liquid displacement feeds the center.","test":"Measure benign wet sheets with independent substrate and film profilometry.","contrary_outcome":"Central thickness changes require local substrate displacement.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0850","id":"S6-0850","volume":"900v6","title":"Porous bridge air vent order","prediction":"The first opening determines which gas pockets remain isolated.","test":"Use transparent benign pore bridges with matched final vent state.","contrary":"Refill time depends only on final vent geometry.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0850","title":"Porous bridge air vent order","question":"Can opening upstream and downstream vents in opposite orders change later refill time?","prediction":"The first opening determines which gas pockets remain isolated.","test":"Use transparent benign pore bridges with matched final vent state.","contrary_outcome":"Refill time depends only on final vent geometry.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0851","id":"S6-0851","volume":"900v6","title":"Granular net release front","prediction":"Tension redistribution destabilizes successive uphill contacts.","test":"Track small inert bead-net models with measured boundary forces.","contrary":"Collapse propagates only downhill or from directly moved contacts.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0851","title":"Granular net release front","question":"Can relaxing one boundary of a bead-supported net move a collapse front against gravity?","prediction":"Tension redistribution destabilizes successive uphill contacts.","test":"Track small inert bead-net models with measured boundary forces.","contrary_outcome":"Collapse propagates only downhill or from directly moved contacts.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0852","id":"S6-0852","volume":"900v6","title":"Disk packing internal twist","prediction":"Force chains reroute through microslip.","test":"Use photoelastic disks, small controlled inclusion rotations, and displacement uncertainty calibration.","contrary":"Distant force changes require resolved bulk motion.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0852","title":"Disk packing internal twist","question":"Can rotating an internal inclusion change distant contact forces without detectable bulk displacement?","prediction":"Force chains reroute through microslip.","test":"Use photoelastic disks, small controlled inclusion rotations, and displacement uncertainty calibration.","contrary_outcome":"Distant force changes require resolved bulk motion.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0853","id":"S6-0853","volume":"900v6","title":"Bead heap split support","prediction":"Arch geometry changes failure sensitivity.","test":"Test small inert bead heaps above instrumented supports with controlled spacing.","contrary":"Stability is determined solely by total support load.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0853","title":"Bead heap split support","question":"Can two supports carrying equal total load have different stability margins depending on their separation?","prediction":"Arch geometry changes failure sensitivity.","test":"Test small inert bead heaps above instrumented supports with controlled spacing.","contrary_outcome":"Stability is determined solely by total support load.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0854","id":"S6-0854","volume":"900v6","title":"Granular lid rebound delay","prediction":"Stored lid force relaxes over a separate timescale.","test":"Image inert grains under interchangeable lids with measured force histories.","contrary":"Expansion timing depends only on final confinement pressure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0854","title":"Granular lid rebound delay","question":"Can a compliant lid delay bed expansion after confinement release while not changing final packing?","prediction":"Stored lid force relaxes over a separate timescale.","test":"Image inert grains under interchangeable lids with measured force histories.","contrary_outcome":"Expansion timing depends only on final confinement pressure.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0855","id":"S6-0855","volume":"900v6","title":"Wet grain film continuity","prediction":"Thin films reconnect isolated capillary regions.","test":"Measure small inert clusters with microscopy, controlled humidity, and tensile force sensing.","contrary":"Strength follows resolved bridge volume alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0855","title":"Wet grain film continuity","question":"Can a liquid-film connection strengthen a bead cluster without adding measurable bridge volume?","prediction":"Thin films reconnect isolated capillary regions.","test":"Measure small inert clusters with microscopy, controlled humidity, and tensile force sensing.","contrary_outcome":"Strength follows resolved bridge volume alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0856","id":"S6-0856","volume":"900v6","title":"Particle raft sliding boundary","prediction":"Sliding equalizes contact force before rupture.","test":"Use benign floating particle arrays with locked and sliding boundary controls.","contrary":"Failure load decreases or stays unchanged at matched geometry.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0856","title":"Particle raft sliding boundary","question":"Can allowing one boundary to slide increase a raft's tensile failure load?","prediction":"Sliding equalizes contact force before rupture.","test":"Use benign floating particle arrays with locked and sliding boundary controls.","contrary_outcome":"Failure load decreases or stays unchanged at matched geometry.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0857","id":"S6-0857","volume":"900v6","title":"Tapping arch recovery interval","prediction":"Contact aging rebuilds stability between disturbances.","test":"Test small inert-bead arches with measured taps and randomized intervals.","contrary":"Survival depends only on tap count and amplitude.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0857","title":"Tapping arch recovery interval","question":"Can longer intervals between identical taps increase arch survival despite equal total impulse?","prediction":"Contact aging rebuilds stability between disturbances.","test":"Test small inert-bead arches with measured taps and randomized intervals.","contrary_outcome":"Survival depends only on tap count and amplitude.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0858","id":"S6-0858","volume":"900v6","title":"Granular wall scratch direction","prediction":"Directional contact geometry biases frictional release.","test":"Shear inert particles against rotated benign patterned walls with force mapping.","contrary":"Slip preference follows imposed load only.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0858","title":"Granular wall scratch direction","question":"Can shallow wall scratches reverse the preferred slip direction of a bead layer?","prediction":"Directional contact geometry biases frictional release.","test":"Shear inert particles against rotated benign patterned walls with force mapping.","contrary_outcome":"Slip preference follows imposed load only.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0858","title":"Granular wall scratch direction","question":"Can shallow wall scratches reverse the preferred slip direction of a bead layer?","prediction":"Directional contact geometry biases frictional release.","test":"Shear inert particles against rotated benign patterned walls with force mapping.","contrary_outcome":"Slip preference follows imposed load only.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0859","id":"S6-0859","volume":"900v6","title":"Sparse particle bridge wash","prediction":"Initial capillary bridges form before erosion dominates.","test":"Measure inert micro-scale model bridges with safe water delivery and force records.","contrary":"Every increase in water exposure reduces strength monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0859","title":"Sparse particle bridge wash","question":"Can weak water flow strengthen a dry particle bridge before stronger flow destroys it?","prediction":"Initial capillary bridges form before erosion dominates.","test":"Measure inert micro-scale model bridges with safe water delivery and force records.","contrary_outcome":"Every increase in water exposure reduces strength monotonically.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0860","id":"S6-0860","volume":"900v6","title":"Layered grains force timing","prediction":"Viscoelastic contact relaxation adds dynamic delay.","test":"Use benign polymer beads, gentle pulses, and matched static force curves.","contrary":"Delay is predicted entirely by static compliance and total mass.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0860","title":"Layered grains force timing","question":"Can a thin soft-grain layer delay force transmission more than a thicker rigid-grain layer of equal static compliance?","prediction":"Viscoelastic contact relaxation adds dynamic delay.","test":"Use benign polymer beads, gentle pulses, and matched static force curves.","contrary_outcome":"Delay is predicted entirely by static compliance and total mass.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0861","id":"S6-0861","volume":"900v6","title":"Warm contact cyclic seating","prediction":"Repeated seating stabilizes microcontact geometry.","test":"Measure mild thermal contacts through repeated cycles with fixed-pressure controls.","contrary":"Fluctuation reduction follows mean-conductance increase alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0861","title":"Warm contact cyclic seating","question":"Can small thermal cycles reduce contact-temperature fluctuations without changing mean conductance?","prediction":"Repeated seating stabilizes microcontact geometry.","test":"Measure mild thermal contacts through repeated cycles with fixed-pressure controls.","contrary_outcome":"Fluctuation reduction follows mean-conductance increase alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0862","id":"S6-0862","volume":"900v6","title":"Thermal cavity partial vent","prediction":"A restricted jet mixes internal hot air more effectively.","test":"Use low-power enclosures with measured airflow and spatial temperature fields.","contrary":"Cooling rate increases monotonically with vent area.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0862","title":"Thermal cavity partial vent","question":"Can partial vent opening cool a cavity faster initially than full opening?","prediction":"A restricted jet mixes internal hot air more effectively.","test":"Use low-power enclosures with measured airflow and spatial temperature fields.","contrary_outcome":"Cooling rate increases monotonically with vent area.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0863","id":"S6-0863","volume":"900v6","title":"Water film thermal leveling","prediction":"Internal liquid circulation transports heat laterally.","test":"Use safe-temperature plates, evaporation-suppressed controls, and velocity measurements.","contrary":"Equalization is fully predicted by stationary-film conduction.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0863","title":"Water film thermal leveling","question":"Can a thin water film equalize temperature across a plate before appreciable evaporation occurs?","prediction":"Internal liquid circulation transports heat laterally.","test":"Use safe-temperature plates, evaporation-suppressed controls, and velocity measurements.","contrary_outcome":"Equalization is fully predicted by stationary-film conduction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0864","id":"S6-0864","volume":"900v6","title":"Porous insulation contact pulse","prediction":"Fiber rearrangement interrupts previously connected solid paths.","test":"Measure benign fiber insulation at modest temperature differences with restored-thickness checks.","contrary":"Heat leakage returns to baseline whenever thickness recovers.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0864","title":"Porous insulation contact pulse","question":"Can briefly compressing insulation leave lower heat leakage after recovery?","prediction":"Fiber rearrangement interrupts previously connected solid paths.","test":"Measure benign fiber insulation at modest temperature differences with restored-thickness checks.","contrary_outcome":"Heat leakage returns to baseline whenever thickness recovers.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0865","id":"S6-0865","volume":"900v6","title":"Thermal ring gap closure","prediction":"Expansion-driven rotation unloads a geometrically constrained support.","test":"Measure small rings with individual support forces and optical shape tracking.","contrary":"Every support force rises monotonically with expansion.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0865","title":"Thermal ring gap closure","question":"Can warming a ring reduce contact at one support even as its circumference increases?","prediction":"Expansion-driven rotation unloads a geometrically constrained support.","test":"Measure small rings with individual support forces and optical shape tracking.","contrary_outcome":"Every support force rises monotonically with expansion.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0866","id":"S6-0866","volume":"900v6","title":"Cooling surface humidity lead","prediction":"Local vapor accumulation identifies the first nucleation region.","test":"Use modest cooling, calibrated humidity probes, and blinded condensation maps.","contrary":"Humidity adds no predictive value beyond temperature and roughness.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0866","title":"Cooling surface humidity lead","question":"Can surface humidity predict condensation location earlier than temperature alone?","prediction":"Local vapor accumulation identifies the first nucleation region.","test":"Use modest cooling, calibrated humidity probes, and blinded condensation maps.","contrary_outcome":"Humidity adds no predictive value beyond temperature and roughness.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0867","id":"S6-0867","volume":"900v6","title":"Layered thermal pulse direction","prediction":"The path of internal gradients leaves a different viscoelastic strain history.","test":"Use benign laminates at safe temperatures with full thermal and strain maps.","contrary":"Recovered strain is determined only by final temperature.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0867","title":"Layered thermal pulse direction","question":"Can reversing a heat pulse direction change transient strain while final temperature distribution matches?","prediction":"The path of internal gradients leaves a different viscoelastic strain history.","test":"Use benign laminates at safe temperatures with full thermal and strain maps.","contrary_outcome":"Recovered strain is determined only by final temperature.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0868","id":"S6-0868","volume":"900v6","title":"Enclosure corner heat storage","prediction":"The corner intercepts a recirculation hot spot.","test":"Measure low-power enclosure flow and temperature with matched masses and supports.","contrary":"Peak reduction decreases strictly with heater distance.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0868","title":"Enclosure corner heat storage","question":"Can adding a small thermal mass at a corner reduce a remote temperature peak more than adding it near the heater?","prediction":"The corner intercepts a recirculation hot spot.","test":"Measure low-power enclosure flow and temperature with matched masses and supports.","contrary_outcome":"Peak reduction decreases strictly with heater distance.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0869","id":"S6-0869","volume":"900v6","title":"Thermal strap sliding anchor","prediction":"Strain relief prevents contact-pressure drift.","test":"Cycle safe-temperature thermal straps with force and heat-flux sensing.","contrary":"Conductance drift is unchanged once initial pressure is matched.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0869","title":"Thermal strap sliding anchor","question":"Can a sliding anchor improve thermal cycling stability while preserving initial conductance?","prediction":"Strain relief prevents contact-pressure drift.","test":"Cycle safe-temperature thermal straps with force and heat-flux sensing.","contrary_outcome":"Conductance drift is unchanged once initial pressure is matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0869","title":"Thermal strap sliding anchor","question":"Can a sliding anchor improve thermal cycling stability while preserving initial conductance?","prediction":"Strain relief prevents contact-pressure drift.","test":"Cycle safe-temperature thermal straps with force and heat-flux sensing.","contrary_outcome":"Conductance drift is unchanged once initial pressure is matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0870","id":"S6-0870","volume":"900v6","title":"Melting bead contact sequence","prediction":"Early cavities change later contact area and heat concentration.","test":"Use small safe-temperature beads with calorimetry and ice-shape imaging.","contrary":"Melt patterns depend only on total delivered heat and final contacts.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0870","title":"Melting bead contact sequence","question":"Can the order of contacts between warm beads and ice determine melt location at equal heat input?","prediction":"Early cavities change later contact area and heat concentration.","test":"Use small safe-temperature beads with calorimetry and ice-shape imaging.","contrary_outcome":"Melt patterns depend only on total delivered heat and final contacts.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0871","id":"S6-0871","volume":"900v6","title":"Quiet membrane contact release","prediction":"Boundary release shifts reactive response first.","test":"Use low-level sweeps, independent contact imaging, and calibrated phase-amplitude noise.","contrary":"Phase detection offers no earlier reliable release estimate.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0871","title":"Quiet membrane contact release","question":"Can acoustic phase identify the moment a membrane loses a concealed support before amplitude does?","prediction":"Boundary release shifts reactive response first.","test":"Use low-level sweeps, independent contact imaging, and calibrated phase-amplitude noise.","contrary_outcome":"Phase detection offers no earlier reliable release estimate.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0872","id":"S6-0872","volume":"900v6","title":"Elastic pulse porous backing","prediction":"Distributed contact delays spread reflection timing.","test":"Use gentle pulses on benign plates with force and displacement sensing.","contrary":"Pulse broadening requires a proportional impulse reduction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0872","title":"Elastic pulse porous backing","question":"Can a porous backing broaden a reflected mechanical pulse without substantially changing its integrated impulse?","prediction":"Distributed contact delays spread reflection timing.","test":"Use gentle pulses on benign plates with force and displacement sensing.","contrary_outcome":"Pulse broadening requires a proportional impulse reduction.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0873","id":"S6-0873","volume":"900v6","title":"Acoustic ring liquid seam","prediction":"The seam changes contact stiffness locally.","test":"Measure low-amplitude ring modes with movable water seams and rigid-mass controls.","contrary":"Axis rotation follows only mass location.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0873","title":"Acoustic ring liquid seam","question":"Can a water seam rotate a ring's preferred vibration axis while total added mass stays fixed?","prediction":"The seam changes contact stiffness locally.","test":"Measure low-amplitude ring modes with movable water seams and rigid-mass controls.","contrary_outcome":"Axis rotation follows only mass location.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0874","id":"S6-0874","volume":"900v6","title":"Fabric seam compression damping","prediction":"Early compression suppresses rubbing while later contact recruits new losses.","test":"Measure benign fabric spectra across controlled seam pressures with temperature checks.","contrary":"Damping varies monotonically with pressure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0874","title":"Fabric seam compression damping","question":"Can compressing a seam reduce vibration damping before increasing it at higher pressure?","prediction":"Early compression suppresses rubbing while later contact recruits new losses.","test":"Measure benign fabric spectra across controlled seam pressures with temperature checks.","contrary_outcome":"Damping varies monotonically with pressure.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0875","id":"S6-0875","volume":"900v6","title":"String crossing pulse polarity","prediction":"Contact state changes transmitted transverse motion sign.","test":"Send gentle pulses through benign crossed strings with independent slip imaging.","contrary":"Polarity is determined only by crossing angle and tension.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0875","title":"String crossing pulse polarity","question":"Can pulse polarity reveal whether two touching strings are stuck or sliding?","prediction":"Contact state changes transmitted transverse motion sign.","test":"Send gentle pulses through benign crossed strings with independent slip imaging.","contrary_outcome":"Polarity is determined only by crossing angle and tension.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0876","id":"S6-0876","volume":"900v6","title":"Soft cavity partition rest","prediction":"Viscoelastic edge seating changes leakage and damping.","test":"Measure quiet cavity spectra with imaged final geometry and rigid-partition controls.","contrary":"Responses coincide once final position is restored.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0876","title":"Soft cavity partition rest","question":"Can acoustic response retain a signature of a partition's previous position after it returns to the same location?","prediction":"Viscoelastic edge seating changes leakage and damping.","test":"Measure quiet cavity spectra with imaged final geometry and rigid-partition controls.","contrary_outcome":"Responses coincide once final position is restored.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0877","id":"S6-0877","volume":"900v6","title":"Beam moisture edge sensor","prediction":"Asymmetric loading changes spatial response early.","test":"Use benign beams with controlled water drops and calibrated spatial-frequency sensitivity.","contrary":"Localization begins only after a resolvable frequency shift.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0877","title":"Beam moisture edge sensor","question":"Can mode-shape asymmetry locate edge wetting on a beam before mean resonance frequency resolves added water?","prediction":"Asymmetric loading changes spatial response early.","test":"Use benign beams with controlled water drops and calibrated spatial-frequency sensitivity.","contrary_outcome":"Localization begins only after a resolvable frequency shift.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0878","id":"S6-0878","volume":"900v6","title":"Acoustic cloth pore closure","prediction":"Closure changes airflow resistance differently from inertial loading.","test":"Compare benign cloth under compression and matched nonblocking added mass.","contrary":"The ratio cannot separate the mechanisms on held-out samples.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0878","title":"Acoustic cloth pore closure","question":"Can an attenuation ratio at two frequencies distinguish pore closure from added fabric mass?","prediction":"Closure changes airflow resistance differently from inertial loading.","test":"Compare benign cloth under compression and matched nonblocking added mass.","contrary_outcome":"The ratio cannot separate the mechanisms on held-out samples.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0878","title":"Acoustic cloth pore closure","question":"Can an attenuation ratio at two frequencies distinguish pore closure from added fabric mass?","prediction":"Closure changes airflow resistance differently from inertial loading.","test":"Compare benign cloth under compression and matched nonblocking added mass.","contrary_outcome":"The ratio cannot separate the mechanisms on held-out samples.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0879","id":"S6-0879","volume":"900v6","title":"Loose joint echo recovery","prediction":"Permanent slip leaves a changed reflection path despite recovered load.","test":"Use low-energy frames with independent joint displacement and gentle pulses.","contrary":"Echo changes recover whenever applied force returns.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0879","title":"Loose joint echo recovery","question":"Can the recovery of an echo after unloading indicate whether a joint slipped permanently?","prediction":"Permanent slip leaves a changed reflection path despite recovered load.","test":"Use low-energy frames with independent joint displacement and gentle pulses.","contrary_outcome":"Echo changes recover whenever applied force returns.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0880","id":"S6-0880","volume":"900v6","title":"Water-backed membrane mode pair","prediction":"Depth and tension shift the modes in different ratios.","test":"Measure low-amplitude modes with independent water-depth and tension controls.","contrary":"The inferred parameters remain degenerate within uncertainty.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0880","title":"Water-backed membrane mode pair","question":"Can two membrane modes distinguish water depth from membrane tension over a fixed fill range?","prediction":"Depth and tension shift the modes in different ratios.","test":"Measure low-amplitude modes with independent water-depth and tension controls.","contrary_outcome":"The inferred parameters remain degenerate within uncertainty.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0881","id":"S6-0881","volume":"900v6","title":"Grid-based drop pinning map","prediction":"Local curvature anomalies predict the last releasing contact segment.","test":"Use water droplets, independent perimeter imaging, and blinded tilt releases.","contrary":"Predictions are no better than using initial footprint shape alone.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0881","title":"Grid-based drop pinning map","question":"Can projected-grid distortion locate a droplet's strongest pinning arc before a tilt test?","prediction":"Local curvature anomalies predict the last releasing contact segment.","test":"Use water droplets, independent perimeter imaging, and blinded tilt releases.","contrary_outcome":"Predictions are no better than using initial footprint shape alone.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0882","id":"S6-0882","volume":"900v6","title":"Optical wrinkle contact release","prediction":"The two motions have different angular reflection signatures.","test":"Use benign films with independent gap and curvature measurements under two lights.","contrary":"Signatures collapse when average brightness is matched.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0882","title":"Optical wrinkle contact release","question":"Can a wrinkle's reflected intensity distinguish lift-off from local flattening at equal projected width?","prediction":"The two motions have different angular reflection signatures.","test":"Use benign films with independent gap and curvature measurements under two lights.","contrary_outcome":"Signatures collapse when average brightness is matched.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0883","id":"S6-0883","volume":"900v6","title":"Transparent pore bubble shadow","prediction":"Parallax and shadow differences constrain the hidden dimension.","test":"Use calibrated water-air pore models with concealed bubble depths.","contrary":"Depth estimates fail after bubble size is varied.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0883","title":"Transparent pore bubble shadow","question":"Can two diffuse illumination directions resolve bubble depth in a transparent pore network?","prediction":"Parallax and shadow differences constrain the hidden dimension.","test":"Use calibrated water-air pore models with concealed bubble depths.","contrary_outcome":"Depth estimates fail after bubble size is varied.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0884","id":"S6-0884","volume":"900v6","title":"Polarized gel contact recovery","prediction":"Residual internal strain persists after geometric recovery.","test":"Use benign photoelastic gels with independent load cycling and bulk strain checks.","contrary":"Polarization returns to baseline whenever the outline recovers.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0884","title":"Polarized gel contact recovery","question":"Can polarized stress patterns detect incomplete recovery after a gel's external shape returns?","prediction":"Residual internal strain persists after geometric recovery.","test":"Use benign photoelastic gels with independent load cycling and bulk strain checks.","contrary_outcome":"Polarization returns to baseline whenever the outline recovers.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0885","id":"S6-0885","volume":"900v6","title":"Surface film optical rupture warning","prediction":"Correlated motion identifies an unstable region.","test":"Use benign water films with independent thickness maps and held-out rupture trials.","contrary":"Correlation adds no prediction beyond minimum measured thickness.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0885","title":"Surface film optical rupture warning","question":"Can spatial image correlation predict a thinning film's rupture location before thickness minima alone?","prediction":"Correlated motion identifies an unstable region.","test":"Use benign water films with independent thickness maps and held-out rupture trials.","contrary_outcome":"Correlation adds no prediction beyond minimum measured thickness.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0886","id":"S6-0886","volume":"900v6","title":"Projected shadow raft strain","prediction":"Shadow geometry responds to collective curvature.","test":"Use inert rafts with independent side-view validation and controlled lighting.","contrary":"Recovered strain follows particle reflectance rather than raft shape.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0886","title":"Projected shadow raft strain","question":"Can crossed shadows recover out-of-plane strain in a floating particle raft without tracking individual particles?","prediction":"Shadow geometry responds to collective curvature.","test":"Use inert rafts with independent side-view validation and controlled lighting.","contrary_outcome":"Recovered strain follows particle reflectance rather than raft shape.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0887","id":"S6-0887","volume":"900v6","title":"Optical seam air invasion","prediction":"Meniscus creation changes pattern topology, not only intensity.","test":"Use benign water seams with microscope connectivity labels.","contrary":"Patterns depend only on mean film thickness.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0887","title":"Optical seam air invasion","question":"Can reflected pattern changes distinguish incoming air from a shrinking water film beneath a transparent seam?","prediction":"Meniscus creation changes pattern topology, not only intensity.","test":"Use benign water seams with microscope connectivity labels.","contrary_outcome":"Patterns depend only on mean film thickness.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0888","id":"S6-0888","volume":"900v6","title":"Low-light droplet merger timing","prediction":"Merger changes spatial image mapping sharply.","test":"Compare patterned and uniform targets with high-speed video ground truth.","contrary":"Timing precision is unchanged at matched photon count.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0888","title":"Low-light droplet merger timing","question":"Can a single photodiode behind a patterned target time droplet merger more accurately than mean brightness sensing?","prediction":"Merger changes spatial image mapping sharply.","test":"Compare patterned and uniform targets with high-speed video ground truth.","contrary_outcome":"Timing precision is unchanged at matched photon count.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0889","id":"S6-0889","volume":"900v6","title":"Scattering gel interface slip","prediction":"Microscopic interface rearrangement decorrelates a preferred direction.","test":"Use benign gels, low-intensity light, and independent high-resolution displacement sensing.","contrary":"Decorrelation appears equally in bonded controls.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0889","title":"Scattering gel interface slip","question":"Can directional scattering detect slip between clear gel layers before visible marker displacement?","prediction":"Microscopic interface rearrangement decorrelates a preferred direction.","test":"Use benign gels, low-intensity light, and independent high-resolution displacement sensing.","contrary_outcome":"Decorrelation appears equally in bonded controls.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0889","title":"Scattering gel interface slip","question":"Can directional scattering detect slip between clear gel layers before visible marker displacement?","prediction":"Microscopic interface rearrangement decorrelates a preferred direction.","test":"Use benign gels, low-intensity light, and independent high-resolution displacement sensing.","contrary_outcome":"Decorrelation appears equally in bonded controls.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0890","id":"S6-0890","volume":"900v6","title":"Optical wet cord twist","prediction":"Texture phase changes differently along the cord for twist.","test":"Use benign cellulose cords with independent endpoint and local angle references.","contrary":"Estimates confuse rigid rotation and distributed twist on held-out motions.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0890","title":"Optical wet cord twist","question":"Can two viewing directions separate moisture-induced twist from simple rotation of a textured cord?","prediction":"Texture phase changes differently along the cord for twist.","test":"Use benign cellulose cords with independent endpoint and local angle references.","contrary_outcome":"Estimates confuse rigid rotation and distributed twist on held-out motions.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0891","id":"S6-0891","volume":"900v6","title":"Magnetic mesh wrinkle motion","prediction":"Local orientation changes create a traveling field signature.","test":"Use enclosed weak magnets, spatial sensors, and optical wrinkle ground truth.","contrary":"The signal reflects only whole-mesh displacement.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0891","title":"Magnetic mesh wrinkle motion","question":"Can weak magnetic sensing locate a moving wrinkle in steel mesh without contacting it?","prediction":"Local orientation changes create a traveling field signature.","test":"Use enclosed weak magnets, spatial sensors, and optical wrinkle ground truth.","contrary_outcome":"The signal reflects only whole-mesh displacement.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0892","id":"S6-0892","volume":"900v6","title":"Capacitive dry seam reopening","prediction":"A small gap changes the field before a resolved air front forms.","test":"Use low-voltage sensing with independently calibrated gap and optical thresholds.","contrary":"Electrical detection offers no reliable lead over optics.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0892","title":"Capacitive dry seam reopening","question":"Can capacitance reveal a previously wetted seam reopening before air becomes optically visible?","prediction":"A small gap changes the field before a resolved air front forms.","test":"Use low-voltage sensing with independently calibrated gap and optical thresholds.","contrary_outcome":"Electrical detection offers no reliable lead over optics.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0893","id":"S6-0893","volume":"900v6","title":"Conductive pad contact history","prediction":"Contact recruitment preserves loading-path memory.","test":"Measure low-current benign conductive pads with pressure and displacement maps.","contrary":"Resistance maps are unique functions of final compression.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0893","title":"Conductive pad contact history","question":"Can identical final compression produce different resistance maps after central versus peripheral loading?","prediction":"Contact recruitment preserves loading-path memory.","test":"Measure low-current benign conductive pads with pressure and displacement maps.","contrary_outcome":"Resistance maps are unique functions of final compression.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0894","id":"S6-0894","volume":"900v6","title":"Static sheet edge relaxation","prediction":"Strain modifies leakage paths and surface contacts.","test":"Map small charges on insulating films with grounded-frame and no-release controls.","contrary":"Charge decay is independent of strain after handling artifacts are removed.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0894","title":"Static sheet edge relaxation","question":"Can releasing mechanical tension change charge decay locally without changing humidity?","prediction":"Strain modifies leakage paths and surface contacts.","test":"Map small charges on insulating films with grounded-frame and no-release controls.","contrary_outcome":"Charge decay is independent of strain after handling artifacts are removed.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0895","id":"S6-0895","volume":"900v6","title":"Inductive loop seam crossing","prediction":"Current continuity changes the induced response.","test":"Use benign foil loops with independently measured seam resistance and controlled pressure.","contrary":"Signals identify geometry but cannot resolve electrical continuity.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0895","title":"Inductive loop seam crossing","question":"Can a low-power coil distinguish a closed conductive seam from a merely touching seam of equal geometry?","prediction":"Current continuity changes the induced response.","test":"Use benign foil loops with independently measured seam resistance and controlled pressure.","contrary_outcome":"Signals identify geometry but cannot resolve electrical continuity.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0896","id":"S6-0896","volume":"900v6","title":"Electrical water-front branching","prediction":"A thin precursor path changes the voltage field before bulk filling.","test":"Use low-current transparent branch models with blinded next-branch predictions.","contrary":"Prediction is no better than geometric entry-pressure estimates.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0896","title":"Electrical water-front branching","question":"Can distributed potential measurements identify which branch a saline front will enter next?","prediction":"A thin precursor path changes the voltage field before bulk filling.","test":"Use low-current transparent branch models with blinded next-branch predictions.","contrary_outcome":"Prediction is no better than geometric entry-pressure estimates.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0897","id":"S6-0897","volume":"900v6","title":"Weak-field raft recovery","prediction":"Aligned boundary particles guide contact reconnection.","test":"Use enclosed weakly magnetic particles with inert rafts and nonmagnetic sham pulses.","contrary":"Recovery depends only on waiting time and initial strain.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0897","title":"Weak-field raft recovery","question":"Can a short magnetic alignment pulse speed a mixed particle raft's mechanical recovery after shear?","prediction":"Aligned boundary particles guide contact reconnection.","test":"Use enclosed weakly magnetic particles with inert rafts and nonmagnetic sham pulses.","contrary_outcome":"Recovery depends only on waiting time and initial strain.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0898","id":"S6-0898","volume":"900v6","title":"Resistive film crack humidity","prediction":"Adsorbed water stabilizes intermittent microscopic contacts.","test":"Use low-current benign films with humidity control and independent gap imaging.","contrary":"Noise changes follow only bulk resistance and temperature.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0898","title":"Resistive film crack humidity","question":"Can humidity change resistance fluctuation statistics at a crack without changing its mean opening?","prediction":"Adsorbed water stabilizes intermittent microscopic contacts.","test":"Use low-current benign films with humidity control and independent gap imaging.","contrary_outcome":"Noise changes follow only bulk resistance and temperature.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0899","id":"S6-0899","volume":"900v6","title":"Capacitive layered drying order","prediction":"Depth-weighted signals separate layer water contents.","test":"Use benign paper laminates with independent layer weighing and concealed drying directions.","contrary":"Only total moisture is identifiable.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0899","title":"Capacitive layered drying order","question":"Can multi-electrode sensing identify which layer dries first in a laminated porous sheet?","prediction":"Depth-weighted signals separate layer water contents.","test":"Use benign paper laminates with independent layer weighing and concealed drying directions.","contrary_outcome":"Only total moisture is identifiable.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":null,"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v6--S6-0900","id":"S6-0900","volume":"900v6","title":"Magnetic contact release clock","prediction":"Aged contacts require longer force accumulation before release.","test":"Measure enclosed low-energy magnetic hinges across randomized rests with independent friction tests.","contrary":"Delay is set only by field ramp and elastic stiffness.","layers":[1,2],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v6/Hypotheses.json","original":{"id":"S6-0900","title":"Magnetic contact release clock","question":"Can the delay between a weak field reversal and first motion estimate contact age in a small hinged element?","prediction":"Aged contacts require longer force accumulation before release.","test":"Measure enclosed low-energy magnetic hinges across randomized rests with independent friction tests.","contrary_outcome":"Delay is set only by field ramp and elastic stiffness.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"lead":{"id":"S6-0900","title":"Magnetic contact release clock","question":"Can the delay between a weak field reversal and first motion estimate contact age in a small hinged element?","prediction":"Aged contacts require longer force accumulation before release.","test":"Measure enclosed low-energy magnetic hinges across randomized rests with independent friction tests.","contrary_outcome":"Delay is set only by field ramp and elastic stiffness.","status":"Speculative; not demonstrated or proved","originality":"Worldwide originality unverified; local avoidance screening cannot certify novelty","composition":"Individually authored record; no Cartesian expansion"},"dossier":null,"selection_source":"sources/90v6/Selected90.json","dossier_source":"sources/9v6/Selected9.json"},{"uid":"900v7--S7-0001","id":"S7-0001","volume":"900v7","title":"A liquid-coated rotating cylinder should develop a persistent dry stripe when centrifugal drainage outruns capillary refill.","prediction":"A liquid-coated rotating cylinder should develop a persistent dry stripe when centrifugal drainage outruns capillary refill.","test":"Map film thickness versus rotation rate.","contrary":"Dry stripes lack a reproducible threshold.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0001","hypothesis":"A liquid-coated rotating cylinder should develop a persistent dry stripe when centrifugal drainage outruns capillary refill.","prediction":"A liquid-coated rotating cylinder should develop a persistent dry stripe when centrifugal drainage outruns capillary refill.","test":"Map film thickness versus rotation rate.","contrary_outcome":"Dry stripes lack a reproducible threshold.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0002","id":"S7-0002","volume":"900v7","title":"A deformable cavity should distinguish a liquid's normal stress from viscosity through its wall-shape asymmetry under steady shear.","prediction":"A deformable cavity should distinguish a liquid's normal stress from viscosity through its wall-shape asymmetry under steady shear.","test":"Test calibrated viscoelastic standards.","contrary":"Shape follows viscous drag alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0002","hypothesis":"A deformable cavity should distinguish a liquid's normal stress from viscosity through its wall-shape asymmetry under steady shear.","prediction":"A deformable cavity should distinguish a liquid's normal stress from viscosity through its wall-shape asymmetry under steady shear.","test":"Test calibrated viscoelastic standards.","contrary_outcome":"Shape follows viscous drag alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0003","id":"S7-0003","volume":"900v7","title":"A confined emulsion should show a recoverable yield threshold when droplets are forced into a single staggered row.","prediction":"A confined emulsion should show a recoverable yield threshold when droplets are forced into a single staggered row.","test":"Measure pressure-flow cycles.","contrary":"Yielding remains irreversible or absent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0003","hypothesis":"A confined emulsion should show a recoverable yield threshold when droplets are forced into a single staggered row.","prediction":"A confined emulsion should show a recoverable yield threshold when droplets are forced into a single staggered row.","test":"Measure pressure-flow cycles.","contrary_outcome":"Yielding remains irreversible or absent.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0004","id":"S7-0004","volume":"900v7","title":"A translating contact line should leave different particle-orientation bands after acceleration and deceleration at equal speed.","prediction":"A translating contact line should leave different particle-orientation bands after acceleration and deceleration at equal speed.","test":"Image inert rods.","contrary":"Bands depend only on instantaneous speed.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0004","hypothesis":"A translating contact line should leave different particle-orientation bands after acceleration and deceleration at equal speed.","prediction":"A translating contact line should leave different particle-orientation bands after acceleration and deceleration at equal speed.","test":"Image inert rods.","contrary_outcome":"Bands depend only on instantaneous speed.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0005","id":"S7-0005","volume":"900v7","title":"A gas bubble should reveal a soft wall's relaxation time through delayed shape recovery after passing a narrow gap.","prediction":"A gas bubble should reveal a soft wall's relaxation time through delayed shape recovery after passing a narrow gap.","test":"Track bubble and wall motion.","contrary":"Recovery is set entirely by liquid viscosity.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0005","hypothesis":"A gas bubble should reveal a soft wall's relaxation time through delayed shape recovery after passing a narrow gap.","prediction":"A gas bubble should reveal a soft wall's relaxation time through delayed shape recovery after passing a narrow gap.","test":"Track bubble and wall motion.","contrary_outcome":"Recovery is set entirely by liquid viscosity.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0006","id":"S7-0006","volume":"900v7","title":"A thin liquid layer should suppress frictional aging between rough solids by interrupting capillary-bridge growth.","prediction":"A thin liquid layer should suppress frictional aging between rough solids by interrupting capillary-bridge growth.","test":"Measure breakaway force versus dwell.","contrary":"Aging persists unchanged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0006","hypothesis":"A thin liquid layer should suppress frictional aging between rough solids by interrupting capillary-bridge growth.","prediction":"A thin liquid layer should suppress frictional aging between rough solids by interrupting capillary-bridge growth.","test":"Measure breakaway force versus dwell.","contrary_outcome":"Aging persists unchanged.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0007","id":"S7-0007","volume":"900v7","title":"A curved channel should separate droplet deformability from size through the phase of cross-stream oscillations.","prediction":"A curved channel should separate droplet deformability from size through the phase of cross-stream oscillations.","test":"Track matched droplets.","contrary":"Phase is determined by size alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0007","hypothesis":"A curved channel should separate droplet deformability from size through the phase of cross-stream oscillations.","prediction":"A curved channel should separate droplet deformability from size through the phase of cross-stream oscillations.","test":"Track matched droplets.","contrary_outcome":"Phase is determined by size alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0008","id":"S7-0008","volume":"900v7","title":"A liquid bridge under torsion should display a finite elastic-like response before contact-line slip.","prediction":"A liquid bridge under torsion should display a finite elastic-like response before contact-line slip.","test":"Measure torque and interface shape.","contrary":"Torque is purely viscous at all resolved times.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0008","hypothesis":"A liquid bridge under torsion should display a finite elastic-like response before contact-line slip.","prediction":"A liquid bridge under torsion should display a finite elastic-like response before contact-line slip.","test":"Measure torque and interface shape.","contrary_outcome":"Torque is purely viscous at all resolved times.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0009","id":"S7-0009","volume":"900v7","title":"A granular suspension should remember the direction of a brief shear reversal in its subsequent acoustic attenuation.","prediction":"A granular suspension should remember the direction of a brief shear reversal in its subsequent acoustic attenuation.","test":"Compare reversed protocols.","contrary":"Attenuation loses directional memory immediately.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0009","hypothesis":"A granular suspension should remember the direction of a brief shear reversal in its subsequent acoustic attenuation.","prediction":"A granular suspension should remember the direction of a brief shear reversal in its subsequent acoustic attenuation.","test":"Compare reversed protocols.","contrary_outcome":"Attenuation loses directional memory immediately.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0010","id":"S7-0010","volume":"900v7","title":"A deformable nozzle should generate a narrower droplet-size distribution when wall recoil is delayed until neck thinning.","prediction":"A deformable nozzle should generate a narrower droplet-size distribution when wall recoil is delayed until neck thinning.","test":"Measure drop sizes and recoil timing.","contrary":"Delayed recoil broadens the distribution.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0010","hypothesis":"A deformable nozzle should generate a narrower droplet-size distribution when wall recoil is delayed until neck thinning.","prediction":"A deformable nozzle should generate a narrower droplet-size distribution when wall recoil is delayed until neck thinning.","test":"Measure drop sizes and recoil timing.","contrary_outcome":"Delayed recoil broadens the distribution.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0011","id":"S7-0011","volume":"900v7","title":"A liquid film flowing over an elastic ridge should select a stable thickness upstream through pressure-induced ridge flattening.","prediction":"A liquid film flowing over an elastic ridge should select a stable thickness upstream through pressure-induced ridge flattening.","test":"Map thickness and ridge shape.","contrary":"No stabilizing thickness appears.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0011","hypothesis":"A liquid film flowing over an elastic ridge should select a stable thickness upstream through pressure-induced ridge flattening.","prediction":"A liquid film flowing over an elastic ridge should select a stable thickness upstream through pressure-induced ridge flattening.","test":"Map thickness and ridge shape.","contrary_outcome":"No stabilizing thickness appears.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0012","id":"S7-0012","volume":"900v7","title":"A floating particle raft should resist tearing when a slack perimeter becomes taut near a growing gap.","prediction":"A floating particle raft should resist tearing when a slack perimeter becomes taut near a growing gap.","test":"Image gap growth.","contrary":"Tension recruitment accelerates tearing.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0012","hypothesis":"A floating particle raft should resist tearing when a slack perimeter becomes taut near a growing gap.","prediction":"A floating particle raft should resist tearing when a slack perimeter becomes taut near a growing gap.","test":"Image gap growth.","contrary_outcome":"Tension recruitment accelerates tearing.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0013","id":"S7-0013","volume":"900v7","title":"A capillary bridge should distinguish bulk viscoelasticity from interfacial elasticity through responses at two support radii.","prediction":"A capillary bridge should distinguish bulk viscoelasticity from interfacial elasticity through responses at two support radii.","test":"Measure calibrated standards.","contrary":"Responses remain nonidentifiable.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0013","hypothesis":"A capillary bridge should distinguish bulk viscoelasticity from interfacial elasticity through responses at two support radii.","prediction":"A capillary bridge should distinguish bulk viscoelasticity from interfacial elasticity through responses at two support radii.","test":"Measure calibrated standards.","contrary_outcome":"Responses remain nonidentifiable.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0014","id":"S7-0014","volume":"900v7","title":"A confined foam should develop a reversible preferred drainage path after one localized compression cycle.","prediction":"A confined foam should develop a reversible preferred drainage path after one localized compression cycle.","test":"Image liquid paths.","contrary":"Preferred paths are irreversible damage effects.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0014","hypothesis":"A confined foam should develop a reversible preferred drainage path after one localized compression cycle.","prediction":"A confined foam should develop a reversible preferred drainage path after one localized compression cycle.","test":"Image liquid paths.","contrary_outcome":"Preferred paths are irreversible damage effects.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0015","id":"S7-0015","volume":"900v7","title":"A droplet should cross a sharp wetting boundary more reliably when its support is released from bending during contact.","prediction":"A droplet should cross a sharp wetting boundary more reliably when its support is released from bending during contact.","test":"Measure crossing thresholds.","contrary":"Release adds no transport benefit.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0015","hypothesis":"A droplet should cross a sharp wetting boundary more reliably when its support is released from bending during contact.","prediction":"A droplet should cross a sharp wetting boundary more reliably when its support is released from bending during contact.","test":"Measure crossing thresholds.","contrary_outcome":"Release adds no transport benefit.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0016","id":"S7-0016","volume":"900v7","title":"A sheared liquid-crystal-free suspension should align nonspherical inert particles through periodic wall dilation at zero mean shear.","prediction":"A sheared liquid-crystal-free suspension should align nonspherical inert particles through periodic wall dilation at zero mean shear.","test":"Measure orientation distributions.","contrary":"Alignment requires nonzero mean shear.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0016","hypothesis":"A sheared liquid-crystal-free suspension should align nonspherical inert particles through periodic wall dilation at zero mean shear.","prediction":"A sheared liquid-crystal-free suspension should align nonspherical inert particles through periodic wall dilation at zero mean shear.","test":"Measure orientation distributions.","contrary_outcome":"Alignment requires nonzero mean shear.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0017","id":"S7-0017","volume":"900v7","title":"A lubricating film should survive longer under intermittent loading when recesses refill during unloading before pressure recovery.","prediction":"A lubricating film should survive longer under intermittent loading when recesses refill during unloading before pressure recovery.","test":"Measure film rupture cycles.","contrary":"Recesses do not extend survival.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0017","hypothesis":"A lubricating film should survive longer under intermittent loading when recesses refill during unloading before pressure recovery.","prediction":"A lubricating film should survive longer under intermittent loading when recesses refill during unloading before pressure recovery.","test":"Measure film rupture cycles.","contrary_outcome":"Recesses do not extend survival.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0018","id":"S7-0018","volume":"900v7","title":"A deformable microchannel should convert a brief droplet collision into a persistent routing change.","prediction":"A deformable microchannel should convert a brief droplet collision into a persistent routing change.","test":"Track outlet choice after collisions.","contrary":"Routing resets immediately.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0018","hypothesis":"A deformable microchannel should convert a brief droplet collision into a persistent routing change.","prediction":"A deformable microchannel should convert a brief droplet collision into a persistent routing change.","test":"Track outlet choice after collisions.","contrary_outcome":"Routing resets immediately.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0019","id":"S7-0019","volume":"900v7","title":"A liquid surface should store a short-lived mechanical memory in a trapped standing-wave pattern after forcing stops.","prediction":"A liquid surface should store a short-lived mechanical memory in a trapped standing-wave pattern after forcing stops.","test":"Measure decay and phase.","contrary":"Pattern vanishes on the ordinary damping timescale.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0019","hypothesis":"A liquid surface should store a short-lived mechanical memory in a trapped standing-wave pattern after forcing stops.","prediction":"A liquid surface should store a short-lived mechanical memory in a trapped standing-wave pattern after forcing stops.","test":"Measure decay and phase.","contrary_outcome":"Pattern vanishes on the ordinary damping timescale.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0020","id":"S7-0020","volume":"900v7","title":"A porous interface should separate evaporation cooling from vapor-transport resistance through local curvature changes.","prediction":"A porous interface should separate evaporation cooling from vapor-transport resistance through local curvature changes.","test":"Measure temperature and flux.","contrary":"Curvature cannot distinguish the mechanisms.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0020","hypothesis":"A porous interface should separate evaporation cooling from vapor-transport resistance through local curvature changes.","prediction":"A porous interface should separate evaporation cooling from vapor-transport resistance through local curvature changes.","test":"Measure temperature and flux.","contrary_outcome":"Curvature cannot distinguish the mechanisms.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0021","id":"S7-0021","volume":"900v7","title":"A thin elastic wall should make bubble breakup occur at a lower pressure drop by storing energy during approach.","prediction":"A thin elastic wall should make bubble breakup occur at a lower pressure drop by storing energy during approach.","test":"Image breakup and wall motion.","contrary":"Stored energy instead promotes coalescence.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0021","hypothesis":"A thin elastic wall should make bubble breakup occur at a lower pressure drop by storing energy during approach.","prediction":"A thin elastic wall should make bubble breakup occur at a lower pressure drop by storing energy during approach.","test":"Image breakup and wall motion.","contrary_outcome":"Stored energy instead promotes coalescence.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0022","id":"S7-0022","volume":"900v7","title":"A rotating droplet should reveal internal viscosity gradients through unequal relaxation of two surface harmonics.","prediction":"A rotating droplet should reveal internal viscosity gradients through unequal relaxation of two surface harmonics.","test":"Prepare benign layered droplets.","contrary":"Harmonics cannot resolve the gradient.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0022","hypothesis":"A rotating droplet should reveal internal viscosity gradients through unequal relaxation of two surface harmonics.","prediction":"A rotating droplet should reveal internal viscosity gradients through unequal relaxation of two surface harmonics.","test":"Prepare benign layered droplets.","contrary_outcome":"Harmonics cannot resolve the gradient.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0023","id":"S7-0023","volume":"900v7","title":"A dense inert suspension should reduce startup stress overshoot when its confining wall expands briefly.","prediction":"A dense inert suspension should reduce startup stress overshoot when its confining wall expands briefly.","test":"Measure stress and volume.","contrary":"Expansion delays rather than reduces the overshoot.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0023","hypothesis":"A dense inert suspension should reduce startup stress overshoot when its confining wall expands briefly.","prediction":"A dense inert suspension should reduce startup stress overshoot when its confining wall expands briefly.","test":"Measure stress and volume.","contrary_outcome":"Expansion delays rather than reduces the overshoot.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0024","id":"S7-0024","volume":"900v7","title":"A liquid bridge array should distribute an applied shear load more evenly through sequential contact-line depinning.","prediction":"A liquid bridge array should distribute an applied shear load more evenly through sequential contact-line depinning.","test":"Measure bridge forces.","contrary":"One bridge still carries the peak.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0024","hypothesis":"A liquid bridge array should distribute an applied shear load more evenly through sequential contact-line depinning.","prediction":"A liquid bridge array should distribute an applied shear load more evenly through sequential contact-line depinning.","test":"Measure bridge forces.","contrary_outcome":"One bridge still carries the peak.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0025","id":"S7-0025","volume":"900v7","title":"A flowing film should route around a heated defect and reunite without entraining a dry pocket.","prediction":"A flowing film should route around a heated defect and reunite without entraining a dry pocket.","test":"Image thermal and thickness fields.","contrary":"Dry pockets remain trapped.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0025","hypothesis":"A flowing film should route around a heated defect and reunite without entraining a dry pocket.","prediction":"A flowing film should route around a heated defect and reunite without entraining a dry pocket.","test":"Image thermal and thickness fields.","contrary_outcome":"Dry pockets remain trapped.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0026","id":"S7-0026","volume":"900v7","title":"A deformable slit should sort droplets by internal relaxation time at matched size and viscosity.","prediction":"A deformable slit should sort droplets by internal relaxation time at matched size and viscosity.","test":"Measure passage under pulsed pressure.","contrary":"Sorting follows static deformation alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0026","hypothesis":"A deformable slit should sort droplets by internal relaxation time at matched size and viscosity.","prediction":"A deformable slit should sort droplets by internal relaxation time at matched size and viscosity.","test":"Measure passage under pulsed pressure.","contrary_outcome":"Sorting follows static deformation alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0027","id":"S7-0027","volume":"900v7","title":"A floating elastic sheet should reveal subsurface shear through the phase of its bending waves.","prediction":"A floating elastic sheet should reveal subsurface shear through the phase of its bending waves.","test":"Compare with velocimetry.","contrary":"Wave phase is dominated by surface forcing.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0027","hypothesis":"A floating elastic sheet should reveal subsurface shear through the phase of its bending waves.","prediction":"A floating elastic sheet should reveal subsurface shear through the phase of its bending waves.","test":"Compare with velocimetry.","contrary_outcome":"Wave phase is dominated by surface forcing.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0028","id":"S7-0028","volume":"900v7","title":"A lubricated hinge should distinguish solid friction from fluid drag through the dependence of recoil on waiting time.","prediction":"A lubricated hinge should distinguish solid friction from fluid drag through the dependence of recoil on waiting time.","test":"Apply calibrated motions.","contrary":"Recoil signatures overlap.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0028","hypothesis":"A lubricated hinge should distinguish solid friction from fluid drag through the dependence of recoil on waiting time.","prediction":"A lubricated hinge should distinguish solid friction from fluid drag through the dependence of recoil on waiting time.","test":"Apply calibrated motions.","contrary_outcome":"Recoil signatures overlap.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0029","id":"S7-0029","volume":"900v7","title":"A capillary rivulet should preserve a stable branching ratio when one downstream branch dries intermittently.","prediction":"A capillary rivulet should preserve a stable branching ratio when one downstream branch dries intermittently.","test":"Measure branch fluxes.","contrary":"Drying causes lasting imbalance.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0029","hypothesis":"A capillary rivulet should preserve a stable branching ratio when one downstream branch dries intermittently.","prediction":"A capillary rivulet should preserve a stable branching ratio when one downstream branch dries intermittently.","test":"Measure branch fluxes.","contrary_outcome":"Drying causes lasting imbalance.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0030","id":"S7-0030","volume":"900v7","title":"A granular-liquid mixture should show a reversible density-wave pulse after a localized volume release.","prediction":"A granular-liquid mixture should show a reversible density-wave pulse after a localized volume release.","test":"Image particle concentration.","contrary":"Release creates only diffuse relaxation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0030","hypothesis":"A granular-liquid mixture should show a reversible density-wave pulse after a localized volume release.","prediction":"A granular-liquid mixture should show a reversible density-wave pulse after a localized volume release.","test":"Image particle concentration.","contrary_outcome":"Release creates only diffuse relaxation.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0031","id":"S7-0031","volume":"900v7","title":"A soft wall should suppress droplet rebound by returning stored energy into internal circulation instead of center-of-mass motion.","prediction":"A soft wall should suppress droplet rebound by returning stored energy into internal circulation instead of center-of-mass motion.","test":"Measure shape and flow.","contrary":"Energy returns mainly as rebound.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0031","hypothesis":"A soft wall should suppress droplet rebound by returning stored energy into internal circulation instead of center-of-mass motion.","prediction":"A soft wall should suppress droplet rebound by returning stored energy into internal circulation instead of center-of-mass motion.","test":"Measure shape and flow.","contrary_outcome":"Energy returns mainly as rebound.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0032","id":"S7-0032","volume":"900v7","title":"A thin liquid layer should reveal a buried surface step through a stationary upstream thickness ripple.","prediction":"A thin liquid layer should reveal a buried surface step through a stationary upstream thickness ripple.","test":"Map calibrated steps.","contrary":"Ripple is masked by ordinary surface roughness.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0032","hypothesis":"A thin liquid layer should reveal a buried surface step through a stationary upstream thickness ripple.","prediction":"A thin liquid layer should reveal a buried surface step through a stationary upstream thickness ripple.","test":"Map calibrated steps.","contrary_outcome":"Ripple is masked by ordinary surface roughness.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0033","id":"S7-0033","volume":"900v7","title":"A foam-filled gap should reduce vibration transfer most at an intermediate liquid fraction.","prediction":"A foam-filled gap should reduce vibration transfer most at an intermediate liquid fraction.","test":"Measure transfer versus drainage state.","contrary":"No reproducible intermediate optimum occurs.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0033","hypothesis":"A foam-filled gap should reduce vibration transfer most at an intermediate liquid fraction.","prediction":"A foam-filled gap should reduce vibration transfer most at an intermediate liquid fraction.","test":"Measure transfer versus drainage state.","contrary_outcome":"No reproducible intermediate optimum occurs.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0034","id":"S7-0034","volume":"900v7","title":"A droplet train should self-space when each droplet temporarily deforms a shared channel wall.","prediction":"A droplet train should self-space when each droplet temporarily deforms a shared channel wall.","test":"Track spacing distributions.","contrary":"Wall coupling amplifies bunching.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0034","hypothesis":"A droplet train should self-space when each droplet temporarily deforms a shared channel wall.","prediction":"A droplet train should self-space when each droplet temporarily deforms a shared channel wall.","test":"Track spacing distributions.","contrary_outcome":"Wall coupling amplifies bunching.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0035","id":"S7-0035","volume":"900v7","title":"A viscoelastic-free liquid bridge should exhibit apparent rate-dependent stiffness solely from contact-line geometry.","prediction":"A viscoelastic-free liquid bridge should exhibit apparent rate-dependent stiffness solely from contact-line geometry.","test":"Measure forces across speeds.","contrary":"Geometry cannot account for the response.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0035","hypothesis":"A viscoelastic-free liquid bridge should exhibit apparent rate-dependent stiffness solely from contact-line geometry.","prediction":"A viscoelastic-free liquid bridge should exhibit apparent rate-dependent stiffness solely from contact-line geometry.","test":"Measure forces across speeds.","contrary_outcome":"Geometry cannot account for the response.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0036","id":"S7-0036","volume":"900v7","title":"A porous moving boundary should extract liquid from a suspension without building a stationary filter cake.","prediction":"A porous moving boundary should extract liquid from a suspension without building a stationary filter cake.","test":"Measure flux and deposits.","contrary":"A persistent cake still forms.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0036","hypothesis":"A porous moving boundary should extract liquid from a suspension without building a stationary filter cake.","prediction":"A porous moving boundary should extract liquid from a suspension without building a stationary filter cake.","test":"Measure flux and deposits.","contrary_outcome":"A persistent cake still forms.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0037","id":"S7-0037","volume":"900v7","title":"A confined film should resist rupture when a flexible ceiling follows long-wavelength thinning.","prediction":"A confined film should resist rupture when a flexible ceiling follows long-wavelength thinning.","test":"Image thickness fluctuations.","contrary":"Ceiling motion accelerates rupture.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0037","hypothesis":"A confined film should resist rupture when a flexible ceiling follows long-wavelength thinning.","prediction":"A confined film should resist rupture when a flexible ceiling follows long-wavelength thinning.","test":"Image thickness fluctuations.","contrary_outcome":"Ceiling motion accelerates rupture.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0038","id":"S7-0038","volume":"900v7","title":"A floating raft should encode a past shear direction in the orientation of its first crack under later tension.","prediction":"A floating raft should encode a past shear direction in the orientation of its first crack under later tension.","test":"Reverse prior shear.","contrary":"Crack orientation has no memory.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0038","hypothesis":"A floating raft should encode a past shear direction in the orientation of its first crack under later tension.","prediction":"A floating raft should encode a past shear direction in the orientation of its first crack under later tension.","test":"Reverse prior shear.","contrary_outcome":"Crack orientation has no memory.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0039","id":"S7-0039","volume":"900v7","title":"A liquid jet should reduce satellite droplets when a compliant outlet briefly retracts during pinch-off.","prediction":"A liquid jet should reduce satellite droplets when a compliant outlet briefly retracts during pinch-off.","test":"Image breakup.","contrary":"Retraction creates more satellites.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0039","hypothesis":"A liquid jet should reduce satellite droplets when a compliant outlet briefly retracts during pinch-off.","prediction":"A liquid jet should reduce satellite droplets when a compliant outlet briefly retracts during pinch-off.","test":"Image breakup.","contrary_outcome":"Retraction creates more satellites.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0040","id":"S7-0040","volume":"900v7","title":"A bubble passing a textured wall should reveal texture direction through signed lateral rotation.","prediction":"A bubble passing a textured wall should reveal texture direction through signed lateral rotation.","test":"Track marked bubbles.","contrary":"Rotation is not tied to texture orientation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0040","hypothesis":"A bubble passing a textured wall should reveal texture direction through signed lateral rotation.","prediction":"A bubble passing a textured wall should reveal texture direction through signed lateral rotation.","test":"Track marked bubbles.","contrary_outcome":"Rotation is not tied to texture orientation.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0041","id":"S7-0041","volume":"900v7","title":"A sheared suspension should show a detectable change in wall-normal force before particle migration becomes visible.","prediction":"A sheared suspension should show a detectable change in wall-normal force before particle migration becomes visible.","test":"Measure force and concentration.","contrary":"Force changes only after migration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0041","hypothesis":"A sheared suspension should show a detectable change in wall-normal force before particle migration becomes visible.","prediction":"A sheared suspension should show a detectable change in wall-normal force before particle migration becomes visible.","test":"Measure force and concentration.","contrary_outcome":"Force changes only after migration.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0042","id":"S7-0042","volume":"900v7","title":"A capillary thread should measure extension-rate history through its minimum-radius trajectory after stretching stops.","prediction":"A capillary thread should measure extension-rate history through its minimum-radius trajectory after stretching stops.","test":"Apply matched final extensions.","contrary":"Trajectories depend only on final geometry.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0042","hypothesis":"A capillary thread should measure extension-rate history through its minimum-radius trajectory after stretching stops.","prediction":"A capillary thread should measure extension-rate history through its minimum-radius trajectory after stretching stops.","test":"Apply matched final extensions.","contrary_outcome":"Trajectories depend only on final geometry.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0043","id":"S7-0043","volume":"900v7","title":"A deformable liquid reservoir should transfer pressure pulses directionally through unequal wall relaxation times.","prediction":"A deformable liquid reservoir should transfer pressure pulses directionally through unequal wall relaxation times.","test":"Measure both directions.","contrary":"Transfer remains reciprocal within uncertainty.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0043","hypothesis":"A deformable liquid reservoir should transfer pressure pulses directionally through unequal wall relaxation times.","prediction":"A deformable liquid reservoir should transfer pressure pulses directionally through unequal wall relaxation times.","test":"Measure both directions.","contrary_outcome":"Transfer remains reciprocal within uncertainty.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0044","id":"S7-0044","volume":"900v7","title":"A draining foam should retain smaller bubbles preferentially near a flexible wall that follows liquid loss.","prediction":"A draining foam should retain smaller bubbles preferentially near a flexible wall that follows liquid loss.","test":"Image bubble distributions.","contrary":"Wall compliance adds no spatial selectivity.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0044","hypothesis":"A draining foam should retain smaller bubbles preferentially near a flexible wall that follows liquid loss.","prediction":"A draining foam should retain smaller bubbles preferentially near a flexible wall that follows liquid loss.","test":"Image bubble distributions.","contrary_outcome":"Wall compliance adds no spatial selectivity.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0045","id":"S7-0045","volume":"900v7","title":"A droplet resting on a membrane should estimate membrane pretension from the shape of its surrounding dimple.","prediction":"A droplet resting on a membrane should estimate membrane pretension from the shape of its surrounding dimple.","test":"Calibrate tension independently.","contrary":"Contact angle variability prevents inversion.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0045","hypothesis":"A droplet resting on a membrane should estimate membrane pretension from the shape of its surrounding dimple.","prediction":"A droplet resting on a membrane should estimate membrane pretension from the shape of its surrounding dimple.","test":"Calibrate tension independently.","contrary_outcome":"Contact angle variability prevents inversion.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0046","id":"S7-0046","volume":"900v7","title":"A liquid film should recover from a local dry spot when a movable edge releases stored liquid.","prediction":"A liquid film should recover from a local dry spot when a movable edge releases stored liquid.","test":"Image repair and residual thickness.","contrary":"Released liquid bypasses the dry spot.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0046","hypothesis":"A liquid film should recover from a local dry spot when a movable edge releases stored liquid.","prediction":"A liquid film should recover from a local dry spot when a movable edge releases stored liquid.","test":"Image repair and residual thickness.","contrary_outcome":"Released liquid bypasses the dry spot.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0047","id":"S7-0047","volume":"900v7","title":"A granular suspension should distinguish oscillatory shear frequency through the spacing of transient concentration bands.","prediction":"A granular suspension should distinguish oscillatory shear frequency through the spacing of transient concentration bands.","test":"Image known forcing.","contrary":"Band spacing is set only by gap width.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0047","hypothesis":"A granular suspension should distinguish oscillatory shear frequency through the spacing of transient concentration bands.","prediction":"A granular suspension should distinguish oscillatory shear frequency through the spacing of transient concentration bands.","test":"Image known forcing.","contrary_outcome":"Band spacing is set only by gap width.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0048","id":"S7-0048","volume":"900v7","title":"A capillary bridge should produce a measurable torsional instability before its axial rupture threshold.","prediction":"A capillary bridge should produce a measurable torsional instability before its axial rupture threshold.","test":"Measure torque and shape.","contrary":"Axial rupture occurs first.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0048","hypothesis":"A capillary bridge should produce a measurable torsional instability before its axial rupture threshold.","prediction":"A capillary bridge should produce a measurable torsional instability before its axial rupture threshold.","test":"Measure torque and shape.","contrary_outcome":"Axial rupture occurs first.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0049","id":"S7-0049","volume":"900v7","title":"A deformable channel should reduce droplet residence-time dispersion through speed-dependent local expansion.","prediction":"A deformable channel should reduce droplet residence-time dispersion through speed-dependent local expansion.","test":"Measure transit distributions.","contrary":"Expansion broadens residence times.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0049","hypothesis":"A deformable channel should reduce droplet residence-time dispersion through speed-dependent local expansion.","prediction":"A deformable channel should reduce droplet residence-time dispersion through speed-dependent local expansion.","test":"Measure transit distributions.","contrary_outcome":"Expansion broadens residence times.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0050","id":"S7-0050","volume":"900v7","title":"A floating particle layer should reveal compression history through the spectrum of small-amplitude waves.","prediction":"A floating particle layer should reveal compression history through the spectrum of small-amplitude waves.","test":"Apply known compression cycles.","contrary":"Spectra depend only on current density.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0050","hypothesis":"A floating particle layer should reveal compression history through the spectrum of small-amplitude waves.","prediction":"A floating particle layer should reveal compression history through the spectrum of small-amplitude waves.","test":"Apply known compression cycles.","contrary_outcome":"Spectra depend only on current density.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0051","id":"S7-0051","volume":"900v7","title":"A liquid meniscus should suppress bubbles entering a side branch when the branch wall can breathe slowly.","prediction":"A liquid meniscus should suppress bubbles entering a side branch when the branch wall can breathe slowly.","test":"Measure gas entry pressure.","contrary":"Compliance lowers gas resistance.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0051","hypothesis":"A liquid meniscus should suppress bubbles entering a side branch when the branch wall can breathe slowly.","prediction":"A liquid meniscus should suppress bubbles entering a side branch when the branch wall can breathe slowly.","test":"Measure gas entry pressure.","contrary_outcome":"Compliance lowers gas resistance.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0052","id":"S7-0052","volume":"900v7","title":"A sheared emulsion should recover its initial stress faster when a brief reverse pulse is applied during unloading.","prediction":"A sheared emulsion should recover its initial stress faster when a brief reverse pulse is applied during unloading.","test":"Measure stress relaxation.","contrary":"Reverse pulse delays recovery.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0052","hypothesis":"A sheared emulsion should recover its initial stress faster when a brief reverse pulse is applied during unloading.","prediction":"A sheared emulsion should recover its initial stress faster when a brief reverse pulse is applied during unloading.","test":"Measure stress relaxation.","contrary_outcome":"Reverse pulse delays recovery.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0053","id":"S7-0053","volume":"900v7","title":"A thin lubricating film should detect local wear through a shifted squeeze-out onset rather than mean thickness.","prediction":"A thin lubricating film should detect local wear through a shifted squeeze-out onset rather than mean thickness.","test":"Machine controlled wear patches.","contrary":"Onset is not wear-specific.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0053","hypothesis":"A thin lubricating film should detect local wear through a shifted squeeze-out onset rather than mean thickness.","prediction":"A thin lubricating film should detect local wear through a shifted squeeze-out onset rather than mean thickness.","test":"Machine controlled wear patches.","contrary_outcome":"Onset is not wear-specific.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0054","id":"S7-0054","volume":"900v7","title":"A porous film support should maintain a uniform evaporation front by redistributing vapor pressure laterally.","prediction":"A porous film support should maintain a uniform evaporation front by redistributing vapor pressure laterally.","test":"Map drying fronts.","contrary":"Lateral connectivity increases nonuniformity.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0054","hypothesis":"A porous film support should maintain a uniform evaporation front by redistributing vapor pressure laterally.","prediction":"A porous film support should maintain a uniform evaporation front by redistributing vapor pressure laterally.","test":"Map drying fronts.","contrary_outcome":"Lateral connectivity increases nonuniformity.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0055","id":"S7-0055","volume":"900v7","title":"A droplet should display a reproducible lateral hop when an underlying elastic ridge snaps away.","prediction":"A droplet should display a reproducible lateral hop when an underlying elastic ridge snaps away.","test":"Track hop displacement.","contrary":"Motion is dominated by random contact-line release.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0055","hypothesis":"A droplet should display a reproducible lateral hop when an underlying elastic ridge snaps away.","prediction":"A droplet should display a reproducible lateral hop when an underlying elastic ridge snaps away.","test":"Track hop displacement.","contrary_outcome":"Motion is dominated by random contact-line release.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0056","id":"S7-0056","volume":"900v7","title":"A confined liquid bridge should separate interface contamination from bulk viscosity through a rotational/axial force ratio.","prediction":"A confined liquid bridge should separate interface contamination from bulk viscosity through a rotational/axial force ratio.","test":"Test controlled benign standards.","contrary":"The ratio remains degenerate.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0056","hypothesis":"A confined liquid bridge should separate interface contamination from bulk viscosity through a rotational/axial force ratio.","prediction":"A confined liquid bridge should separate interface contamination from bulk viscosity through a rotational/axial force ratio.","test":"Test controlled benign standards.","contrary_outcome":"The ratio remains degenerate.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0057","id":"S7-0057","volume":"900v7","title":"A granular-liquid mixture should form a recoverable arch under suction before solid contact jamming.","prediction":"A granular-liquid mixture should form a recoverable arch under suction before solid contact jamming.","test":"Image contacts and pressure.","contrary":"Arch requires permanent particle contact.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0057","hypothesis":"A granular-liquid mixture should form a recoverable arch under suction before solid contact jamming.","prediction":"A granular-liquid mixture should form a recoverable arch under suction before solid contact jamming.","test":"Image contacts and pressure.","contrary_outcome":"Arch requires permanent particle contact.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0058","id":"S7-0058","volume":"900v7","title":"A deformable jet catcher should minimize splash when its bending-wave speed matches radial liquid spreading.","prediction":"A deformable jet catcher should minimize splash when its bending-wave speed matches radial liquid spreading.","test":"Measure splash across stiffness.","contrary":"No matched-timescale minimum appears.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0058","hypothesis":"A deformable jet catcher should minimize splash when its bending-wave speed matches radial liquid spreading.","prediction":"A deformable jet catcher should minimize splash when its bending-wave speed matches radial liquid spreading.","test":"Measure splash across stiffness.","contrary_outcome":"No matched-timescale minimum appears.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0059","id":"S7-0059","volume":"900v7","title":"A floating soft ring should gather a droplet chain by shrinking its enclosed interface without direct contact.","prediction":"A floating soft ring should gather a droplet chain by shrinking its enclosed interface without direct contact.","test":"Track droplets.","contrary":"Droplets escape or coalesce uncontrollably.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0059","hypothesis":"A floating soft ring should gather a droplet chain by shrinking its enclosed interface without direct contact.","prediction":"A floating soft ring should gather a droplet chain by shrinking its enclosed interface without direct contact.","test":"Track droplets.","contrary_outcome":"Droplets escape or coalesce uncontrollably.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0060","id":"S7-0060","volume":"900v7","title":"A liquid film should indicate acceleration direction through unequal recession at opposing patterned edges.","prediction":"A liquid film should indicate acceleration direction through unequal recession at opposing patterned edges.","test":"Apply calibrated pulses.","contrary":"Gravity or hysteresis dominates the indication.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0060","hypothesis":"A liquid film should indicate acceleration direction through unequal recession at opposing patterned edges.","prediction":"A liquid film should indicate acceleration direction through unequal recession at opposing patterned edges.","test":"Apply calibrated pulses.","contrary_outcome":"Gravity or hysteresis dominates the indication.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0061","id":"S7-0061","volume":"900v7","title":"A foam should resist coarsening under periodic gentle decompression by repeatedly reconnecting drainage films.","prediction":"A foam should resist coarsening under periodic gentle decompression by repeatedly reconnecting drainage films.","test":"Measure bubble growth.","contrary":"Decompression accelerates coarsening.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0061","hypothesis":"A foam should resist coarsening under periodic gentle decompression by repeatedly reconnecting drainage films.","prediction":"A foam should resist coarsening under periodic gentle decompression by repeatedly reconnecting drainage films.","test":"Measure bubble growth.","contrary_outcome":"Decompression accelerates coarsening.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0062","id":"S7-0062","volume":"900v7","title":"A capillary ribbon should transport liquid uphill when periodic bending shifts its narrowest point sequentially.","prediction":"A capillary ribbon should transport liquid uphill when periodic bending shifts its narrowest point sequentially.","test":"Measure net mass transfer.","contrary":"Transport vanishes after pressure offsets are removed.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0062","hypothesis":"A capillary ribbon should transport liquid uphill when periodic bending shifts its narrowest point sequentially.","prediction":"A capillary ribbon should transport liquid uphill when periodic bending shifts its narrowest point sequentially.","test":"Measure net mass transfer.","contrary_outcome":"Transport vanishes after pressure offsets are removed.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0063","id":"S7-0063","volume":"900v7","title":"A deformable slit should distinguish a rigid particle from a soft droplet of equal size through different reopening delays.","prediction":"A deformable slit should distinguish a rigid particle from a soft droplet of equal size through different reopening delays.","test":"Track passage events.","contrary":"Delays overlap.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0063","hypothesis":"A deformable slit should distinguish a rigid particle from a soft droplet of equal size through different reopening delays.","prediction":"A deformable slit should distinguish a rigid particle from a soft droplet of equal size through different reopening delays.","test":"Track passage events.","contrary_outcome":"Delays overlap.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0064","id":"S7-0064","volume":"900v7","title":"A sheared liquid should reveal wall-slip onset through a moving thermal pattern before gross velocity changes.","prediction":"A sheared liquid should reveal wall-slip onset through a moving thermal pattern before gross velocity changes.","test":"Measure temperature and velocimetry.","contrary":"Thermal signal appears too late.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0064","hypothesis":"A sheared liquid should reveal wall-slip onset through a moving thermal pattern before gross velocity changes.","prediction":"A sheared liquid should reveal wall-slip onset through a moving thermal pattern before gross velocity changes.","test":"Measure temperature and velocimetry.","contrary_outcome":"Thermal signal appears too late.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0065","id":"S7-0065","volume":"900v7","title":"A floating granular raft should heal a small crack when controlled surface compression redistributes particles.","prediction":"A floating granular raft should heal a small crack when controlled surface compression redistributes particles.","test":"Image crack closure.","contrary":"Compression forms a larger buckle instead.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0065","hypothesis":"A floating granular raft should heal a small crack when controlled surface compression redistributes particles.","prediction":"A floating granular raft should heal a small crack when controlled surface compression redistributes particles.","test":"Image crack closure.","contrary_outcome":"Compression forms a larger buckle instead.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0066","id":"S7-0066","volume":"900v7","title":"A liquid bridge should maintain equal pressure between reservoirs while mechanically isolating their lateral motion.","prediction":"A liquid bridge should maintain equal pressure between reservoirs while mechanically isolating their lateral motion.","test":"Measure pressure and force transfer.","contrary":"Pressure equilibration requires high lateral coupling.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0066","hypothesis":"A liquid bridge should maintain equal pressure between reservoirs while mechanically isolating their lateral motion.","prediction":"A liquid bridge should maintain equal pressure between reservoirs while mechanically isolating their lateral motion.","test":"Measure pressure and force transfer.","contrary_outcome":"Pressure equilibration requires high lateral coupling.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0067","id":"S7-0067","volume":"900v7","title":"A thin film should suppress contact-line stick-slip when the support vibrates normal to the surface at a selected phase.","prediction":"A thin film should suppress contact-line stick-slip when the support vibrates normal to the surface at a selected phase.","test":"Measure front motion.","contrary":"Vibration increases intermittency.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0067","hypothesis":"A thin film should suppress contact-line stick-slip when the support vibrates normal to the surface at a selected phase.","prediction":"A thin film should suppress contact-line stick-slip when the support vibrates normal to the surface at a selected phase.","test":"Measure front motion.","contrary_outcome":"Vibration increases intermittency.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0068","id":"S7-0068","volume":"900v7","title":"A porous elastic interface should reveal its saturation through amplitude-dependent shear damping.","prediction":"A porous elastic interface should reveal its saturation through amplitude-dependent shear damping.","test":"Compare gravimetric states.","contrary":"Damping cannot separate saturation from preload.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0068","hypothesis":"A porous elastic interface should reveal its saturation through amplitude-dependent shear damping.","prediction":"A porous elastic interface should reveal its saturation through amplitude-dependent shear damping.","test":"Compare gravimetric states.","contrary_outcome":"Damping cannot separate saturation from preload.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0069","id":"S7-0069","volume":"900v7","title":"A droplet should rotate toward a preferred orientation when internal circulation meets an anisotropic compliant boundary.","prediction":"A droplet should rotate toward a preferred orientation when internal circulation meets an anisotropic compliant boundary.","test":"Track orientation and flow.","contrary":"No reproducible orientation emerges.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0069","hypothesis":"A droplet should rotate toward a preferred orientation when internal circulation meets an anisotropic compliant boundary.","prediction":"A droplet should rotate toward a preferred orientation when internal circulation meets an anisotropic compliant boundary.","test":"Track orientation and flow.","contrary_outcome":"No reproducible orientation emerges.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0070","id":"S7-0070","volume":"900v7","title":"A confined foam should release gas in equal-volume bursts when a moving wall controls its terminal film area.","prediction":"A confined foam should release gas in equal-volume bursts when a moving wall controls its terminal film area.","test":"Measure burst volumes.","contrary":"Volumes vary with upstream bubble sizes.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0070","hypothesis":"A confined foam should release gas in equal-volume bursts when a moving wall controls its terminal film area.","prediction":"A confined foam should release gas in equal-volume bursts when a moving wall controls its terminal film area.","test":"Measure burst volumes.","contrary_outcome":"Volumes vary with upstream bubble sizes.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0071","id":"S7-0071","volume":"900v7","title":"A liquid film should retain a local thickness maximum over a deformable substrate through pressure-curvature feedback.","prediction":"A liquid film should retain a local thickness maximum over a deformable substrate through pressure-curvature feedback.","test":"Measure equilibrium profiles.","contrary":"Feedback flattens or ruptures the film.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0071","hypothesis":"A liquid film should retain a local thickness maximum over a deformable substrate through pressure-curvature feedback.","prediction":"A liquid film should retain a local thickness maximum over a deformable substrate through pressure-curvature feedback.","test":"Measure equilibrium profiles.","contrary_outcome":"Feedback flattens or ruptures the film.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0072","id":"S7-0072","volume":"900v7","title":"A sheared suspension should show different recovery after clockwise and counterclockwise strain loops with identical endpoints.","prediction":"A sheared suspension should show different recovery after clockwise and counterclockwise strain loops with identical endpoints.","test":"Apply reversed loops.","contrary":"Final rheology is path-independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0072","hypothesis":"A sheared suspension should show different recovery after clockwise and counterclockwise strain loops with identical endpoints.","prediction":"A sheared suspension should show different recovery after clockwise and counterclockwise strain loops with identical endpoints.","test":"Apply reversed loops.","contrary_outcome":"Final rheology is path-independent.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0073","id":"S7-0073","volume":"900v7","title":"A capillary bridge should reveal support tilt from its torsional relaxation even when its static shape appears symmetric.","prediction":"A capillary bridge should reveal support tilt from its torsional relaxation even when its static shape appears symmetric.","test":"Measure calibrated tilts.","contrary":"Relaxation lacks tilt sensitivity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0073","hypothesis":"A capillary bridge should reveal support tilt from its torsional relaxation even when its static shape appears symmetric.","prediction":"A capillary bridge should reveal support tilt from its torsional relaxation even when its static shape appears symmetric.","test":"Measure calibrated tilts.","contrary_outcome":"Relaxation lacks tilt sensitivity.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0074","id":"S7-0074","volume":"900v7","title":"A deformable channel should prevent droplet merging at a junction by storing one droplet temporarily in a side bulge.","prediction":"A deformable channel should prevent droplet merging at a junction by storing one droplet temporarily in a side bulge.","test":"Image arrivals.","contrary":"Storage increases collisions.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0074","hypothesis":"A deformable channel should prevent droplet merging at a junction by storing one droplet temporarily in a side bulge.","prediction":"A deformable channel should prevent droplet merging at a junction by storing one droplet temporarily in a side bulge.","test":"Image arrivals.","contrary_outcome":"Storage increases collisions.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0075","id":"S7-0075","volume":"900v7","title":"A floating elastic strip should measure surface-flow vorticity through its long-time rotation rate after drift correction.","prediction":"A floating elastic strip should measure surface-flow vorticity through its long-time rotation rate after drift correction.","test":"Compare with velocimetry.","contrary":"Translation and shear obscure vorticity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0075","hypothesis":"A floating elastic strip should measure surface-flow vorticity through its long-time rotation rate after drift correction.","prediction":"A floating elastic strip should measure surface-flow vorticity through its long-time rotation rate after drift correction.","test":"Compare with velocimetry.","contrary_outcome":"Translation and shear obscure vorticity.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0076","id":"S7-0076","volume":"900v7","title":"A thin liquid coating should resist particle contamination when periodic substrate curvature transports particles to sacrificial edges.","prediction":"A thin liquid coating should resist particle contamination when periodic substrate curvature transports particles to sacrificial edges.","test":"Map inert particles.","contrary":"Particles remain in the active region.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0076","hypothesis":"A thin liquid coating should resist particle contamination when periodic substrate curvature transports particles to sacrificial edges.","prediction":"A thin liquid coating should resist particle contamination when periodic substrate curvature transports particles to sacrificial edges.","test":"Map inert particles.","contrary_outcome":"Particles remain in the active region.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0077","id":"S7-0077","volume":"900v7","title":"A foam-filled compliant chamber should distinguish acoustic from mechanical excitation through different bubble-motion symmetries.","prediction":"A foam-filled compliant chamber should distinguish acoustic from mechanical excitation through different bubble-motion symmetries.","test":"Apply calibrated inputs.","contrary":"Symmetries overlap.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0077","hypothesis":"A foam-filled compliant chamber should distinguish acoustic from mechanical excitation through different bubble-motion symmetries.","prediction":"A foam-filled compliant chamber should distinguish acoustic from mechanical excitation through different bubble-motion symmetries.","test":"Apply calibrated inputs.","contrary_outcome":"Symmetries overlap.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0078","id":"S7-0078","volume":"900v7","title":"A granular suspension should expose the onset of shear thickening through a propagating wall-deformation front.","prediction":"A granular suspension should expose the onset of shear thickening through a propagating wall-deformation front.","test":"Measure stress and wall shape.","contrary":"Front appears only after full thickening.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0078","hypothesis":"A granular suspension should expose the onset of shear thickening through a propagating wall-deformation front.","prediction":"A granular suspension should expose the onset of shear thickening through a propagating wall-deformation front.","test":"Measure stress and wall shape.","contrary_outcome":"Front appears only after full thickening.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0079","id":"S7-0079","volume":"900v7","title":"A capillary thread should retain a measurable shape memory of a short torsional pulse.","prediction":"A capillary thread should retain a measurable shape memory of a short torsional pulse.","test":"Track relaxation shapes.","contrary":"Memory vanishes immediately.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0079","hypothesis":"A capillary thread should retain a measurable shape memory of a short torsional pulse.","prediction":"A capillary thread should retain a measurable shape memory of a short torsional pulse.","test":"Track relaxation shapes.","contrary_outcome":"Memory vanishes immediately.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0080","id":"S7-0080","volume":"900v7","title":"A deformable droplet trap should release the largest retained droplet first through load-dependent aperture opening.","prediction":"A deformable droplet trap should release the largest retained droplet first through load-dependent aperture opening.","test":"Measure release order.","contrary":"Order is random.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0080","hypothesis":"A deformable droplet trap should release the largest retained droplet first through load-dependent aperture opening.","prediction":"A deformable droplet trap should release the largest retained droplet first through load-dependent aperture opening.","test":"Measure release order.","contrary_outcome":"Order is random.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0081","id":"S7-0081","volume":"900v7","title":"A liquid film should self-level across a tilted support when an elastic perimeter shifts its stored volume.","prediction":"A liquid film should self-level across a tilted support when an elastic perimeter shifts its stored volume.","test":"Map thickness.","contrary":"Redistribution follows gravity and worsens tilt.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0081","hypothesis":"A liquid film should self-level across a tilted support when an elastic perimeter shifts its stored volume.","prediction":"A liquid film should self-level across a tilted support when an elastic perimeter shifts its stored volume.","test":"Map thickness.","contrary_outcome":"Redistribution follows gravity and worsens tilt.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0082","id":"S7-0082","volume":"900v7","title":"A porous interface should suppress vapor bubbles by directing dissolved gas toward a protected vent.","prediction":"A porous interface should suppress vapor bubbles by directing dissolved gas toward a protected vent.","test":"Measure gas emergence locations.","contrary":"Bubbles nucleate throughout the active surface.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0082","hypothesis":"A porous interface should suppress vapor bubbles by directing dissolved gas toward a protected vent.","prediction":"A porous interface should suppress vapor bubbles by directing dissolved gas toward a protected vent.","test":"Measure gas emergence locations.","contrary_outcome":"Bubbles nucleate throughout the active surface.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0083","id":"S7-0083","volume":"900v7","title":"A sheared emulsion should reveal droplet adhesion through an asymmetric stress response to a brief reversal.","prediction":"A sheared emulsion should reveal droplet adhesion through an asymmetric stress response to a brief reversal.","test":"Control interfacial adhesion.","contrary":"Asymmetry is explained by viscosity alone.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0083","hypothesis":"A sheared emulsion should reveal droplet adhesion through an asymmetric stress response to a brief reversal.","prediction":"A sheared emulsion should reveal droplet adhesion through an asymmetric stress response to a brief reversal.","test":"Control interfacial adhesion.","contrary_outcome":"Asymmetry is explained by viscosity alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0084","id":"S7-0084","volume":"900v7","title":"A floating particle monolayer should distinguish impact duration from energy through the radius of a persistent defect ring.","prediction":"A floating particle monolayer should distinguish impact duration from energy through the radius of a persistent defect ring.","test":"Apply shaped impacts.","contrary":"Ring radius follows energy only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0084","hypothesis":"A floating particle monolayer should distinguish impact duration from energy through the radius of a persistent defect ring.","prediction":"A floating particle monolayer should distinguish impact duration from energy through the radius of a persistent defect ring.","test":"Apply shaped impacts.","contrary_outcome":"Ring radius follows energy only.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0085","id":"S7-0085","volume":"900v7","title":"A liquid bridge should reject lateral vibration more strongly when its supports can rotate independently.","prediction":"A liquid bridge should reject lateral vibration more strongly when its supports can rotate independently.","test":"Measure force transmission.","contrary":"Rotation increases bridge instability.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0085","hypothesis":"A liquid bridge should reject lateral vibration more strongly when its supports can rotate independently.","prediction":"A liquid bridge should reject lateral vibration more strongly when its supports can rotate independently.","test":"Measure force transmission.","contrary_outcome":"Rotation increases bridge instability.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0086","id":"S7-0086","volume":"900v7","title":"A deformable channel roof should indicate local flow reversal through a transient sign change in curvature.","prediction":"A deformable channel roof should indicate local flow reversal through a transient sign change in curvature.","test":"Apply calibrated reversals.","contrary":"Curvature tracks pressure alone.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0086","hypothesis":"A deformable channel roof should indicate local flow reversal through a transient sign change in curvature.","prediction":"A deformable channel roof should indicate local flow reversal through a transient sign change in curvature.","test":"Apply calibrated reversals.","contrary_outcome":"Curvature tracks pressure alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0087","id":"S7-0087","volume":"900v7","title":"A thin lubricating layer should recover after starvation when a flexible inlet opens under negative pressure.","prediction":"A thin lubricating layer should recover after starvation when a flexible inlet opens under negative pressure.","test":"Measure friction recovery.","contrary":"Inlet collapse worsens starvation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0087","hypothesis":"A thin lubricating layer should recover after starvation when a flexible inlet opens under negative pressure.","prediction":"A thin lubricating layer should recover after starvation when a flexible inlet opens under negative pressure.","test":"Measure friction recovery.","contrary_outcome":"Inlet collapse worsens starvation.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0088","id":"S7-0088","volume":"900v7","title":"A foam should show a reproducible delay between liquid percolation loss and mechanical stiffening.","prediction":"A foam should show a reproducible delay between liquid percolation loss and mechanical stiffening.","test":"Measure conductivity-free imaging and rheology.","contrary":"Transitions coincide within resolution.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0088","hypothesis":"A foam should show a reproducible delay between liquid percolation loss and mechanical stiffening.","prediction":"A foam should show a reproducible delay between liquid percolation loss and mechanical stiffening.","test":"Measure conductivity-free imaging and rheology.","contrary_outcome":"Transitions coincide within resolution.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0089","id":"S7-0089","volume":"900v7","title":"A capillary droplet conveyor should preserve droplet order while changing spacing through controlled contact-line pinning.","prediction":"A capillary droplet conveyor should preserve droplet order while changing spacing through controlled contact-line pinning.","test":"Track labeled inert droplets.","contrary":"Droplets overtake or merge.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0089","hypothesis":"A capillary droplet conveyor should preserve droplet order while changing spacing through controlled contact-line pinning.","prediction":"A capillary droplet conveyor should preserve droplet order while changing spacing through controlled contact-line pinning.","test":"Track labeled inert droplets.","contrary_outcome":"Droplets overtake or merge.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0090","id":"S7-0090","volume":"900v7","title":"A granular-liquid mixture should retain a pressure-pulse history in its post-pulse permeability.","prediction":"A granular-liquid mixture should retain a pressure-pulse history in its post-pulse permeability.","test":"Apply known histories.","contrary":"Permeability depends only on final packing.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0090","hypothesis":"A granular-liquid mixture should retain a pressure-pulse history in its post-pulse permeability.","prediction":"A granular-liquid mixture should retain a pressure-pulse history in its post-pulse permeability.","test":"Apply known histories.","contrary_outcome":"Permeability depends only on final packing.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0091","id":"S7-0091","volume":"900v7","title":"A floating compliant barrier should separate surface-film motion from bulk flow through differential deformation.","prediction":"A floating compliant barrier should separate surface-film motion from bulk flow through differential deformation.","test":"Measure both fields.","contrary":"Responses remain inseparable.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0091","hypothesis":"A floating compliant barrier should separate surface-film motion from bulk flow through differential deformation.","prediction":"A floating compliant barrier should separate surface-film motion from bulk flow through differential deformation.","test":"Measure both fields.","contrary_outcome":"Responses remain inseparable.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0092","id":"S7-0092","volume":"900v7","title":"A liquid meniscus should act as a mechanical low-pass filter for transmitted normal force.","prediction":"A liquid meniscus should act as a mechanical low-pass filter for transmitted normal force.","test":"Measure force spectra.","contrary":"Filtering requires bridge rupture.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0092","hypothesis":"A liquid meniscus should act as a mechanical low-pass filter for transmitted normal force.","prediction":"A liquid meniscus should act as a mechanical low-pass filter for transmitted normal force.","test":"Measure force spectra.","contrary_outcome":"Filtering requires bridge rupture.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0093","id":"S7-0093","volume":"900v7","title":"A sheared suspension should reduce residual stress when its confinement is released in two stages.","prediction":"A sheared suspension should reduce residual stress when its confinement is released in two stages.","test":"Measure unloading protocols.","contrary":"Two-stage release adds no benefit.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0093","hypothesis":"A sheared suspension should reduce residual stress when its confinement is released in two stages.","prediction":"A sheared suspension should reduce residual stress when its confinement is released in two stages.","test":"Measure unloading protocols.","contrary_outcome":"Two-stage release adds no benefit.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0094","id":"S7-0094","volume":"900v7","title":"A deformable bubble trap should preserve capture efficiency after orientation reversal through shape adaptation.","prediction":"A deformable bubble trap should preserve capture efficiency after orientation reversal through shape adaptation.","test":"Track bubble capture over angles.","contrary":"Reversal releases all trapped gas.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0094","hypothesis":"A deformable bubble trap should preserve capture efficiency after orientation reversal through shape adaptation.","prediction":"A deformable bubble trap should preserve capture efficiency after orientation reversal through shape adaptation.","test":"Track bubble capture over angles.","contrary_outcome":"Reversal releases all trapped gas.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0095","id":"S7-0095","volume":"900v7","title":"A thin film should reveal subsurface adhesion loss through an advancing optical-thickness ridge.","prediction":"A thin film should reveal subsurface adhesion loss through an advancing optical-thickness ridge.","test":"Introduce known debonds.","contrary":"Ridge does not localize adhesion loss.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0095","hypothesis":"A thin film should reveal subsurface adhesion loss through an advancing optical-thickness ridge.","prediction":"A thin film should reveal subsurface adhesion loss through an advancing optical-thickness ridge.","test":"Introduce known debonds.","contrary_outcome":"Ridge does not localize adhesion loss.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0096","id":"S7-0096","volume":"900v7","title":"A porous liquid interface should meter equal evaporated mass per bending cycle through repeatable wet-area exposure.","prediction":"A porous liquid interface should meter equal evaporated mass per bending cycle through repeatable wet-area exposure.","test":"Measure mass loss.","contrary":"Mass depends strongly on cycle duration.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0096","hypothesis":"A porous liquid interface should meter equal evaporated mass per bending cycle through repeatable wet-area exposure.","prediction":"A porous liquid interface should meter equal evaporated mass per bending cycle through repeatable wet-area exposure.","test":"Measure mass loss.","contrary_outcome":"Mass depends strongly on cycle duration.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0097","id":"S7-0097","volume":"900v7","title":"A droplet pair should exchange angular momentum without coalescence when connected by a transient liquid neck.","prediction":"A droplet pair should exchange angular momentum without coalescence when connected by a transient liquid neck.","test":"Image marked internal flow.","contrary":"Neck formation immediately causes coalescence.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0097","hypothesis":"A droplet pair should exchange angular momentum without coalescence when connected by a transient liquid neck.","prediction":"A droplet pair should exchange angular momentum without coalescence when connected by a transient liquid neck.","test":"Image marked internal flow.","contrary_outcome":"Neck formation immediately causes coalescence.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0098","id":"S7-0098","volume":"900v7","title":"A confined foam should preserve a readable pressure threshold history in its final contact network.","prediction":"A confined foam should preserve a readable pressure threshold history in its final contact network.","test":"Apply controlled peaks.","contrary":"Network is dominated by aging noise.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0098","hypothesis":"A confined foam should preserve a readable pressure threshold history in its final contact network.","prediction":"A confined foam should preserve a readable pressure threshold history in its final contact network.","test":"Apply controlled peaks.","contrary_outcome":"Network is dominated by aging noise.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0099","id":"S7-0099","volume":"900v7","title":"A liquid bridge should sense a hidden compliant inclusion through a delayed force recoil after unloading.","prediction":"A liquid bridge should sense a hidden compliant inclusion through a delayed force recoil after unloading.","test":"Test known inclusions.","contrary":"Recoil cannot separate inclusion from support damping.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0099","hypothesis":"A liquid bridge should sense a hidden compliant inclusion through a delayed force recoil after unloading.","prediction":"A liquid bridge should sense a hidden compliant inclusion through a delayed force recoil after unloading.","test":"Test known inclusions.","contrary_outcome":"Recoil cannot separate inclusion from support damping.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0100","id":"S7-0100","volume":"900v7","title":"A deformable flow junction should restore its initial routing after complete pressure release despite temporary clogging.","prediction":"A deformable flow junction should restore its initial routing after complete pressure release despite temporary clogging.","test":"Cycle standardized inert clogs.","contrary":"Routing retains an uncontrolled offset.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0100","hypothesis":"A deformable flow junction should restore its initial routing after complete pressure release despite temporary clogging.","prediction":"A deformable flow junction should restore its initial routing after complete pressure release despite temporary clogging.","test":"Cycle standardized inert clogs.","contrary_outcome":"Routing retains an uncontrolled offset.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0101","id":"S7-0101","volume":"900v7","title":"A patterned dielectric gap should distinguish trapped charge from electrode displacement through different relaxation after grounding.","prediction":"A patterned dielectric gap should distinguish trapped charge from electrode displacement through different relaxation after grounding.","test":"Apply calibrated charges and motions.","contrary":"Relaxation signatures overlap.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0101","hypothesis":"A patterned dielectric gap should distinguish trapped charge from electrode displacement through different relaxation after grounding.","prediction":"A patterned dielectric gap should distinguish trapped charge from electrode displacement through different relaxation after grounding.","test":"Apply calibrated charges and motions.","contrary_outcome":"Relaxation signatures overlap.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0102","id":"S7-0102","volume":"900v7","title":"A flexible electrostatic shutter should reduce its pull-in hysteresis when a lateral stop redirects motion before contact.","prediction":"A flexible electrostatic shutter should reduce its pull-in hysteresis when a lateral stop redirects motion before contact.","test":"Measure voltage-displacement cycles.","contrary":"Hysteresis remains unchanged.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0102","hypothesis":"A flexible electrostatic shutter should reduce its pull-in hysteresis when a lateral stop redirects motion before contact.","prediction":"A flexible electrostatic shutter should reduce its pull-in hysteresis when a lateral stop redirects motion before contact.","test":"Measure voltage-displacement cycles.","contrary_outcome":"Hysteresis remains unchanged.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0103","id":"S7-0103","volume":"900v7","title":"A rotating charged-free dielectric vane should reveal permittivity anisotropy through field-induced torque harmonics.","prediction":"A rotating charged-free dielectric vane should reveal permittivity anisotropy through field-induced torque harmonics.","test":"Test characterized plates.","contrary":"Geometry dominates the harmonics.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0103","hypothesis":"A rotating charged-free dielectric vane should reveal permittivity anisotropy through field-induced torque harmonics.","prediction":"A rotating charged-free dielectric vane should reveal permittivity anisotropy through field-induced torque harmonics.","test":"Test characterized plates.","contrary_outcome":"Geometry dominates the harmonics.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0104","id":"S7-0104","volume":"900v7","title":"A passive charge collector should reject brief electrostatic spikes through a mechanically delayed contact.","prediction":"A passive charge collector should reject brief electrostatic spikes through a mechanically delayed contact.","test":"Apply low-energy calibrated pulses.","contrary":"Short spikes still transfer charge.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0104","hypothesis":"A passive charge collector should reject brief electrostatic spikes through a mechanically delayed contact.","prediction":"A passive charge collector should reject brief electrostatic spikes through a mechanically delayed contact.","test":"Apply low-energy calibrated pulses.","contrary_outcome":"Short spikes still transfer charge.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0105","id":"S7-0105","volume":"900v7","title":"A compliant capacitor should maintain nearly constant gap under uniform pressure through opposing wall motion.","prediction":"A compliant capacitor should maintain nearly constant gap under uniform pressure through opposing wall motion.","test":"Measure capacitance and gap.","contrary":"Gap changes substantially.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0105","hypothesis":"A compliant capacitor should maintain nearly constant gap under uniform pressure through opposing wall motion.","prediction":"A compliant capacitor should maintain nearly constant gap under uniform pressure through opposing wall motion.","test":"Measure capacitance and gap.","contrary_outcome":"Gap changes substantially.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0106","id":"S7-0106","volume":"900v7","title":"A patterned insulating surface should route condensed droplets away from high-field regions through electrowetting gradients at bounded voltage.","prediction":"A patterned insulating surface should route condensed droplets away from high-field regions through electrowetting gradients at bounded voltage.","test":"Track benign droplets.","contrary":"Contact-line pinning prevents routing.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0106","hypothesis":"A patterned insulating surface should route condensed droplets away from high-field regions through electrowetting gradients at bounded voltage.","prediction":"A patterned insulating surface should route condensed droplets away from high-field regions through electrowetting gradients at bounded voltage.","test":"Track benign droplets.","contrary_outcome":"Contact-line pinning prevents routing.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0107","id":"S7-0107","volume":"900v7","title":"A floating electrode should average local gap errors in a capacitive force sensor.","prediction":"A floating electrode should average local gap errors in a capacitive force sensor.","test":"Measure calibration across surface waviness.","contrary":"Averaging increases cross-talk.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0107","hypothesis":"A floating electrode should average local gap errors in a capacitive force sensor.","prediction":"A floating electrode should average local gap errors in a capacitive force sensor.","test":"Measure calibration across surface waviness.","contrary_outcome":"Averaging increases cross-talk.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0108","id":"S7-0108","volume":"900v7","title":"A rotating dielectric disk should reveal moisture gradients through phase-dependent capacitance changes.","prediction":"A rotating dielectric disk should reveal moisture gradients through phase-dependent capacitance changes.","test":"Condition known gradients.","contrary":"Mean moisture alone explains the signal.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0108","hypothesis":"A rotating dielectric disk should reveal moisture gradients through phase-dependent capacitance changes.","prediction":"A rotating dielectric disk should reveal moisture gradients through phase-dependent capacitance changes.","test":"Condition known gradients.","contrary_outcome":"Mean moisture alone explains the signal.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0109","id":"S7-0109","volume":"900v7","title":"A flexible electrostatic actuator should detect partial delamination through a shifted pull-in voltage before visible damage.","prediction":"A flexible electrostatic actuator should detect partial delamination through a shifted pull-in voltage before visible damage.","test":"Seed known defects.","contrary":"Shift is below fabrication variation.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0109","hypothesis":"A flexible electrostatic actuator should detect partial delamination through a shifted pull-in voltage before visible damage.","prediction":"A flexible electrostatic actuator should detect partial delamination through a shifted pull-in voltage before visible damage.","test":"Seed known defects.","contrary_outcome":"Shift is below fabrication variation.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0110","id":"S7-0110","volume":"900v7","title":"A passive discharge path should preserve slow charge measurements while suppressing fast interference.","prediction":"A passive discharge path should preserve slow charge measurements while suppressing fast interference.","test":"Measure response to calibrated histories.","contrary":"Filtering removes the desired signal equally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0110","hypothesis":"A passive discharge path should preserve slow charge measurements while suppressing fast interference.","prediction":"A passive discharge path should preserve slow charge measurements while suppressing fast interference.","test":"Measure response to calibrated histories.","contrary_outcome":"Filtering removes the desired signal equally.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0111","id":"S7-0111","volume":"900v7","title":"A compliant electrode pattern should separate biaxial strain from temperature through three independent capacitance ratios.","prediction":"A compliant electrode pattern should separate biaxial strain from temperature through three independent capacitance ratios.","test":"Calibrate combined loads.","contrary":"Ratios remain nonidentifiable.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0111","hypothesis":"A compliant electrode pattern should separate biaxial strain from temperature through three independent capacitance ratios.","prediction":"A compliant electrode pattern should separate biaxial strain from temperature through three independent capacitance ratios.","test":"Calibrate combined loads.","contrary_outcome":"Ratios remain nonidentifiable.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0112","id":"S7-0112","volume":"900v7","title":"A rolling dielectric contact should reduce triboelectric variability by controlling separation geometry.","prediction":"A rolling dielectric contact should reduce triboelectric variability by controlling separation geometry.","test":"Measure charge distributions.","contrary":"Variability remains unchanged.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0112","hypothesis":"A rolling dielectric contact should reduce triboelectric variability by controlling separation geometry.","prediction":"A rolling dielectric contact should reduce triboelectric variability by controlling separation geometry.","test":"Measure charge distributions.","contrary_outcome":"Variability remains unchanged.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0113","id":"S7-0113","volume":"900v7","title":"A patterned guard electrode should reduce edge-fringing error near a moving liquid interface.","prediction":"A patterned guard electrode should reduce edge-fringing error near a moving liquid interface.","test":"Calibrate level measurements.","contrary":"Guard introduces comparable bias.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0113","hypothesis":"A patterned guard electrode should reduce edge-fringing error near a moving liquid interface.","prediction":"A patterned guard electrode should reduce edge-fringing error near a moving liquid interface.","test":"Calibrate level measurements.","contrary_outcome":"Guard introduces comparable bias.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0114","id":"S7-0114","volume":"900v7","title":"A suspended dielectric beam should estimate gas pressure from electrostatic ring-down after grounding.","prediction":"A suspended dielectric beam should estimate gas pressure from electrostatic ring-down after grounding.","test":"Test known pressures.","contrary":"Charge relaxation dominates damping.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0114","hypothesis":"A suspended dielectric beam should estimate gas pressure from electrostatic ring-down after grounding.","prediction":"A suspended dielectric beam should estimate gas pressure from electrostatic ring-down after grounding.","test":"Test known pressures.","contrary_outcome":"Charge relaxation dominates damping.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0115","id":"S7-0115","volume":"900v7","title":"A flexible charge indicator should retain a visible displacement only above a defined energy threshold.","prediction":"A flexible charge indicator should retain a visible displacement only above a defined energy threshold.","test":"Apply known low-energy charges.","contrary":"Threshold depends unpredictably on humidity.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0115","hypothesis":"A flexible charge indicator should retain a visible displacement only above a defined energy threshold.","prediction":"A flexible charge indicator should retain a visible displacement only above a defined energy threshold.","test":"Apply known low-energy charges.","contrary_outcome":"Threshold depends unpredictably on humidity.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0116","id":"S7-0116","volume":"900v7","title":"A rotating capacitor should distinguish target conductivity from permittivity through angular loss harmonics.","prediction":"A rotating capacitor should distinguish target conductivity from permittivity through angular loss harmonics.","test":"Test standards.","contrary":"Parameters remain confounded.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0116","hypothesis":"A rotating capacitor should distinguish target conductivity from permittivity through angular loss harmonics.","prediction":"A rotating capacitor should distinguish target conductivity from permittivity through angular loss harmonics.","test":"Test standards.","contrary_outcome":"Parameters remain confounded.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0117","id":"S7-0117","volume":"900v7","title":"A passive electrostatic trap should retain inert particles after power removal through geometric field concentration and residual charge.","prediction":"A passive electrostatic trap should retain inert particles after power removal through geometric field concentration and residual charge.","test":"Measure retention time.","contrary":"Particles release immediately or uncontrollably.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0117","hypothesis":"A passive electrostatic trap should retain inert particles after power removal through geometric field concentration and residual charge.","prediction":"A passive electrostatic trap should retain inert particles after power removal through geometric field concentration and residual charge.","test":"Measure retention time.","contrary_outcome":"Particles release immediately or uncontrollably.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0118","id":"S7-0118","volume":"900v7","title":"A compliant insulating spacer should reduce field concentration at a sharp electrode edge through pressure-induced rounding.","prediction":"A compliant insulating spacer should reduce field concentration at a sharp electrode edge through pressure-induced rounding.","test":"Measure safe-field maps.","contrary":"Rounding creates a new hotspot.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0118","hypothesis":"A compliant insulating spacer should reduce field concentration at a sharp electrode edge through pressure-induced rounding.","prediction":"A compliant insulating spacer should reduce field concentration at a sharp electrode edge through pressure-induced rounding.","test":"Measure safe-field maps.","contrary_outcome":"Rounding creates a new hotspot.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0119","id":"S7-0119","volume":"900v7","title":"A patterned capacitive sensor should detect a narrow crack through spatial derivative signals rather than absolute capacitance.","prediction":"A patterned capacitive sensor should detect a narrow crack through spatial derivative signals rather than absolute capacitance.","test":"Scan known cracks.","contrary":"Derivative noise erases sensitivity.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0119","hypothesis":"A patterned capacitive sensor should detect a narrow crack through spatial derivative signals rather than absolute capacitance.","prediction":"A patterned capacitive sensor should detect a narrow crack through spatial derivative signals rather than absolute capacitance.","test":"Scan known cracks.","contrary_outcome":"Derivative noise erases sensitivity.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0120","id":"S7-0120","volume":"900v7","title":"A floating dielectric reference should expose humidity-induced drift in a neighboring displacement capacitor.","prediction":"A floating dielectric reference should expose humidity-induced drift in a neighboring displacement capacitor.","test":"Vary humidity and displacement.","contrary":"Reference fails to predict drift.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0120","hypothesis":"A floating dielectric reference should expose humidity-induced drift in a neighboring displacement capacitor.","prediction":"A floating dielectric reference should expose humidity-induced drift in a neighboring displacement capacitor.","test":"Vary humidity and displacement.","contrary_outcome":"Reference fails to predict drift.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0121","id":"S7-0121","volume":"900v7","title":"A flexible electrostatic latch should reset reliably when a moving grounded shield interrupts its field.","prediction":"A flexible electrostatic latch should reset reliably when a moving grounded shield interrupts its field.","test":"Measure release cycles.","contrary":"Residual charge prevents reset.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0121","hypothesis":"A flexible electrostatic latch should reset reliably when a moving grounded shield interrupts its field.","prediction":"A flexible electrostatic latch should reset reliably when a moving grounded shield interrupts its field.","test":"Measure release cycles.","contrary_outcome":"Residual charge prevents reset.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0122","id":"S7-0122","volume":"900v7","title":"A rotating charged-particle sampler should reduce size bias through controlled residence-time averaging.","prediction":"A rotating charged-particle sampler should reduce size bias through controlled residence-time averaging.","test":"Track inert calibrated particles.","contrary":"Charge-to-mass differences dominate collection.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0122","hypothesis":"A rotating charged-particle sampler should reduce size bias through controlled residence-time averaging.","prediction":"A rotating charged-particle sampler should reduce size bias through controlled residence-time averaging.","test":"Track inert calibrated particles.","contrary_outcome":"Charge-to-mass differences dominate collection.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0123","id":"S7-0123","volume":"900v7","title":"A passive capacitor network should encode the order of two contact events in separate mechanical states.","prediction":"A passive capacitor network should encode the order of two contact events in separate mechanical states.","test":"Reverse event order.","contrary":"Final states are identical.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0123","hypothesis":"A passive capacitor network should encode the order of two contact events in separate mechanical states.","prediction":"A passive capacitor network should encode the order of two contact events in separate mechanical states.","test":"Reverse event order.","contrary_outcome":"Final states are identical.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0124","id":"S7-0124","volume":"900v7","title":"A compliant electrode should spread electrostatic pressure more uniformly over a rough dielectric surface.","prediction":"A compliant electrode should spread electrostatic pressure more uniformly over a rough dielectric surface.","test":"Map deformation.","contrary":"Pressure remains concentrated at asperities.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0124","hypothesis":"A compliant electrode should spread electrostatic pressure more uniformly over a rough dielectric surface.","prediction":"A compliant electrode should spread electrostatic pressure more uniformly over a rough dielectric surface.","test":"Map deformation.","contrary_outcome":"Pressure remains concentrated at asperities.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0125","id":"S7-0125","volume":"900v7","title":"A patterned dielectric should reveal local water intrusion through an anisotropic capacitance change.","prediction":"A patterned dielectric should reveal local water intrusion through an anisotropic capacitance change.","test":"Wet known regions.","contrary":"Response is spatially nonlocal.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0125","hypothesis":"A patterned dielectric should reveal local water intrusion through an anisotropic capacitance change.","prediction":"A patterned dielectric should reveal local water intrusion through an anisotropic capacitance change.","test":"Wet known regions.","contrary_outcome":"Response is spatially nonlocal.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0126","id":"S7-0126","volume":"900v7","title":"A suspended electrostatic vane should distinguish field gradient from uniform field through opposite torsional modes.","prediction":"A suspended electrostatic vane should distinguish field gradient from uniform field through opposite torsional modes.","test":"Apply calibrated fields.","contrary":"Uniform-field leakage dominates.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0126","hypothesis":"A suspended electrostatic vane should distinguish field gradient from uniform field through opposite torsional modes.","prediction":"A suspended electrostatic vane should distinguish field gradient from uniform field through opposite torsional modes.","test":"Apply calibrated fields.","contrary_outcome":"Uniform-field leakage dominates.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0127","id":"S7-0127","volume":"900v7","title":"A flexible capacitor should preserve calibration after repeated rolling through neutral-axis conductor routing.","prediction":"A flexible capacitor should preserve calibration after repeated rolling through neutral-axis conductor routing.","test":"Measure capacitance cycles.","contrary":"Residual curvature shifts calibration.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0127","hypothesis":"A flexible capacitor should preserve calibration after repeated rolling through neutral-axis conductor routing.","prediction":"A flexible capacitor should preserve calibration after repeated rolling through neutral-axis conductor routing.","test":"Measure capacitance cycles.","contrary_outcome":"Residual curvature shifts calibration.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0128","id":"S7-0128","volume":"900v7","title":"A passive charge-transfer switch should close only after mechanical contact pressure stabilizes.","prediction":"A passive charge-transfer switch should close only after mechanical contact pressure stabilizes.","test":"Measure timing and charge.","contrary":"Charge transfers during unstable first contact.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0128","hypothesis":"A passive charge-transfer switch should close only after mechanical contact pressure stabilizes.","prediction":"A passive charge-transfer switch should close only after mechanical contact pressure stabilizes.","test":"Measure timing and charge.","contrary_outcome":"Charge transfers during unstable first contact.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0129","id":"S7-0129","volume":"900v7","title":"A rotating insulating cylinder should reveal surface contamination through a changed charge-decay map.","prediction":"A rotating insulating cylinder should reveal surface contamination through a changed charge-decay map.","test":"Apply benign controlled films.","contrary":"Humidity explains all changes.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0129","hypothesis":"A rotating insulating cylinder should reveal surface contamination through a changed charge-decay map.","prediction":"A rotating insulating cylinder should reveal surface contamination through a changed charge-decay map.","test":"Apply benign controlled films.","contrary_outcome":"Humidity explains all changes.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0130","id":"S7-0130","volume":"900v7","title":"A compliant electrostatic pump analogue should move a finite liquid dose without electrode-liquid contact.","prediction":"A compliant electrostatic pump analogue should move a finite liquid dose without electrode-liquid contact.","test":"Measure dose and leakage.","contrary":"Displacement is dominated by thermal expansion.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0130","hypothesis":"A compliant electrostatic pump analogue should move a finite liquid dose without electrode-liquid contact.","prediction":"A compliant electrostatic pump analogue should move a finite liquid dose without electrode-liquid contact.","test":"Measure dose and leakage.","contrary_outcome":"Displacement is dominated by thermal expansion.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0131","id":"S7-0131","volume":"900v7","title":"A patterned electrode pair should reject common mechanical bending while sensing local indentation.","prediction":"A patterned electrode pair should reject common mechanical bending while sensing local indentation.","test":"Calibrate both deformations.","contrary":"Bending cross-talk remains large.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0131","hypothesis":"A patterned electrode pair should reject common mechanical bending while sensing local indentation.","prediction":"A patterned electrode pair should reject common mechanical bending while sensing local indentation.","test":"Calibrate both deformations.","contrary_outcome":"Bending cross-talk remains large.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0132","id":"S7-0132","volume":"900v7","title":"A floating guard should reduce cable-motion artifacts by following the sensing electrode mechanically.","prediction":"A floating guard should reduce cable-motion artifacts by following the sensing electrode mechanically.","test":"Move cables and target independently.","contrary":"Guard motion adds artifacts.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0132","hypothesis":"A floating guard should reduce cable-motion artifacts by following the sensing electrode mechanically.","prediction":"A floating guard should reduce cable-motion artifacts by following the sensing electrode mechanically.","test":"Move cables and target independently.","contrary_outcome":"Guard motion adds artifacts.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0133","id":"S7-0133","volume":"900v7","title":"A flexible dielectric membrane should show a stable intermediate shape before electrostatic collapse when its tension rises geometrically.","prediction":"A flexible dielectric membrane should show a stable intermediate shape before electrostatic collapse when its tension rises geometrically.","test":"Measure shape-voltage curves.","contrary":"Collapse remains abrupt.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0133","hypothesis":"A flexible dielectric membrane should show a stable intermediate shape before electrostatic collapse when its tension rises geometrically.","prediction":"A flexible dielectric membrane should show a stable intermediate shape before electrostatic collapse when its tension rises geometrically.","test":"Measure shape-voltage curves.","contrary_outcome":"Collapse remains abrupt.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0134","id":"S7-0134","volume":"900v7","title":"A passive discharge indicator should distinguish repeated weak pulses from one strong pulse through two decay times.","prediction":"A passive discharge indicator should distinguish repeated weak pulses from one strong pulse through two decay times.","test":"Apply equal-energy histories.","contrary":"Indicator states remain identical.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0134","hypothesis":"A passive discharge indicator should distinguish repeated weak pulses from one strong pulse through two decay times.","prediction":"A passive discharge indicator should distinguish repeated weak pulses from one strong pulse through two decay times.","test":"Apply equal-energy histories.","contrary_outcome":"Indicator states remain identical.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0135","id":"S7-0135","volume":"900v7","title":"A rotating capacitive probe should separate cylinder eccentricity from dielectric inhomogeneity through paired frequencies.","prediction":"A rotating capacitive probe should separate cylinder eccentricity from dielectric inhomogeneity through paired frequencies.","test":"Test known artifacts.","contrary":"Effects remain inseparable.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0135","hypothesis":"A rotating capacitive probe should separate cylinder eccentricity from dielectric inhomogeneity through paired frequencies.","prediction":"A rotating capacitive probe should separate cylinder eccentricity from dielectric inhomogeneity through paired frequencies.","test":"Test known artifacts.","contrary_outcome":"Effects remain inseparable.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0136","id":"S7-0136","volume":"900v7","title":"A compliant electrostatic gripper should release thin films through a traveling grounded contact front.","prediction":"A compliant electrostatic gripper should release thin films through a traveling grounded contact front.","test":"Measure peel force and film damage.","contrary":"Grounding fails to control release.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0136","hypothesis":"A compliant electrostatic gripper should release thin films through a traveling grounded contact front.","prediction":"A compliant electrostatic gripper should release thin films through a traveling grounded contact front.","test":"Measure peel force and film damage.","contrary_outcome":"Grounding fails to control release.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0137","id":"S7-0137","volume":"900v7","title":"A patterned insulator should reduce charge localization by permitting controlled lateral surface conduction.","prediction":"A patterned insulator should reduce charge localization by permitting controlled lateral surface conduction.","test":"Map charge decay.","contrary":"Conduction erases useful charge too rapidly.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0137","hypothesis":"A patterned insulator should reduce charge localization by permitting controlled lateral surface conduction.","prediction":"A patterned insulator should reduce charge localization by permitting controlled lateral surface conduction.","test":"Map charge decay.","contrary_outcome":"Conduction erases useful charge too rapidly.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0138","id":"S7-0138","volume":"900v7","title":"A suspended capacitor plate should detect asymmetric liquid coating through mode splitting.","prediction":"A suspended capacitor plate should detect asymmetric liquid coating through mode splitting.","test":"Apply known coatings.","contrary":"Splitting is dominated by plate tension.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0138","hypothesis":"A suspended capacitor plate should detect asymmetric liquid coating through mode splitting.","prediction":"A suspended capacitor plate should detect asymmetric liquid coating through mode splitting.","test":"Apply known coatings.","contrary_outcome":"Splitting is dominated by plate tension.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0139","id":"S7-0139","volume":"900v7","title":"A flexible field shield should protect a sensor from contact-induced charge while preserving mechanical compliance.","prediction":"A flexible field shield should protect a sensor from contact-induced charge while preserving mechanical compliance.","test":"Measure sensor artifacts and stiffness.","contrary":"Shielding requires excessive stiffness.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0139","hypothesis":"A flexible field shield should protect a sensor from contact-induced charge while preserving mechanical compliance.","prediction":"A flexible field shield should protect a sensor from contact-induced charge while preserving mechanical compliance.","test":"Measure sensor artifacts and stiffness.","contrary_outcome":"Shielding requires excessive stiffness.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0140","id":"S7-0140","volume":"900v7","title":"A passive capacitive timer should reset fully after grounding despite dielectric absorption.","prediction":"A passive capacitive timer should reset fully after grounding despite dielectric absorption.","test":"Measure repeated cycles.","contrary":"Memory persists and shifts timing.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0140","hypothesis":"A passive capacitive timer should reset fully after grounding despite dielectric absorption.","prediction":"A passive capacitive timer should reset fully after grounding despite dielectric absorption.","test":"Measure repeated cycles.","contrary_outcome":"Memory persists and shifts timing.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0141","id":"S7-0141","volume":"900v7","title":"A rotating dielectric interface should estimate liquid composition from loss-angle modulation while rejecting fill-level changes.","prediction":"A rotating dielectric interface should estimate liquid composition from loss-angle modulation while rejecting fill-level changes.","test":"Test benign standards.","contrary":"Level changes dominate the estimate.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0141","hypothesis":"A rotating dielectric interface should estimate liquid composition from loss-angle modulation while rejecting fill-level changes.","prediction":"A rotating dielectric interface should estimate liquid composition from loss-angle modulation while rejecting fill-level changes.","test":"Test benign standards.","contrary_outcome":"Level changes dominate the estimate.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0142","id":"S7-0142","volume":"900v7","title":"A compliant electrode gap should limit force during accidental pull-in through a rolling stop.","prediction":"A compliant electrode gap should limit force during accidental pull-in through a rolling stop.","test":"Measure contact force.","contrary":"Stop impact remains damaging.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0142","hypothesis":"A compliant electrode gap should limit force during accidental pull-in through a rolling stop.","prediction":"A compliant electrode gap should limit force during accidental pull-in through a rolling stop.","test":"Measure contact force.","contrary_outcome":"Stop impact remains damaging.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0143","id":"S7-0143","volume":"900v7","title":"A patterned capacitor should locate a small droplet from a unique ratio of three channel changes.","prediction":"A patterned capacitor should locate a small droplet from a unique ratio of three channel changes.","test":"Move known droplets.","contrary":"Different locations yield identical ratios.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0143","hypothesis":"A patterned capacitor should locate a small droplet from a unique ratio of three channel changes.","prediction":"A patterned capacitor should locate a small droplet from a unique ratio of three channel changes.","test":"Move known droplets.","contrary_outcome":"Different locations yield identical ratios.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0144","id":"S7-0144","volume":"900v7","title":"A floating charge reference should distinguish source drift from sensor leakage through independent decay rates.","prediction":"A floating charge reference should distinguish source drift from sensor leakage through independent decay rates.","test":"Apply known drift and leaks.","contrary":"Rates remain confounded.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0144","hypothesis":"A floating charge reference should distinguish source drift from sensor leakage through independent decay rates.","prediction":"A floating charge reference should distinguish source drift from sensor leakage through independent decay rates.","test":"Apply known drift and leaks.","contrary_outcome":"Rates remain confounded.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0145","id":"S7-0145","volume":"900v7","title":"A flexible electrostatic resonator should reveal surface wear through a changed voltage dependence of frequency.","prediction":"A flexible electrostatic resonator should reveal surface wear through a changed voltage dependence of frequency.","test":"Abrade known depths.","contrary":"Frequency shifts are not wear-specific.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0145","hypothesis":"A flexible electrostatic resonator should reveal surface wear through a changed voltage dependence of frequency.","prediction":"A flexible electrostatic resonator should reveal surface wear through a changed voltage dependence of frequency.","test":"Abrade known depths.","contrary_outcome":"Frequency shifts are not wear-specific.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0146","id":"S7-0146","volume":"900v7","title":"A passive particle separator should select charge polarity without contacting the particles mechanically.","prediction":"A passive particle separator should select charge polarity without contacting the particles mechanically.","test":"Track calibrated inert particles.","contrary":"Neutral or wrong-polarity particles contaminate outputs equally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0146","hypothesis":"A passive particle separator should select charge polarity without contacting the particles mechanically.","prediction":"A passive particle separator should select charge polarity without contacting the particles mechanically.","test":"Track calibrated inert particles.","contrary_outcome":"Neutral or wrong-polarity particles contaminate outputs equally.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0147","id":"S7-0147","volume":"900v7","title":"A rotating insulating flap should indicate local field direction through a stable mean angle under alternating excitation.","prediction":"A rotating insulating flap should indicate local field direction through a stable mean angle under alternating excitation.","test":"Apply known fields.","contrary":"Angle remains ambiguous.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0147","hypothesis":"A rotating insulating flap should indicate local field direction through a stable mean angle under alternating excitation.","prediction":"A rotating insulating flap should indicate local field direction through a stable mean angle under alternating excitation.","test":"Apply known fields.","contrary_outcome":"Angle remains ambiguous.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0148","id":"S7-0148","volume":"900v7","title":"A compliant capacitor should reject hydrostatic pressure while sensing shear through a floating incompressible core.","prediction":"A compliant capacitor should reject hydrostatic pressure while sensing shear through a floating incompressible core.","test":"Calibrate loads.","contrary":"Pressure produces comparable output.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0148","hypothesis":"A compliant capacitor should reject hydrostatic pressure while sensing shear through a floating incompressible core.","prediction":"A compliant capacitor should reject hydrostatic pressure while sensing shear through a floating incompressible core.","test":"Calibrate loads.","contrary_outcome":"Pressure produces comparable output.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0149","id":"S7-0149","volume":"900v7","title":"A patterned field should prevent droplet merging by holding equal droplets at separated stable positions.","prediction":"A patterned field should prevent droplet merging by holding equal droplets at separated stable positions.","test":"Track controlled droplets.","contrary":"Electrohydrodynamic motion promotes merging.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0149","hypothesis":"A patterned field should prevent droplet merging by holding equal droplets at separated stable positions.","prediction":"A patterned field should prevent droplet merging by holding equal droplets at separated stable positions.","test":"Track controlled droplets.","contrary_outcome":"Electrohydrodynamic motion promotes merging.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0150","id":"S7-0150","volume":"900v7","title":"A suspended electrode should detect a nearby conductive film becoming discontinuous through a damping change.","prediction":"A suspended electrode should detect a nearby conductive film becoming discontinuous through a damping change.","test":"Break controlled films.","contrary":"Damping tracks total metal area only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0150","hypothesis":"A suspended electrode should detect a nearby conductive film becoming discontinuous through a damping change.","prediction":"A suspended electrode should detect a nearby conductive film becoming discontinuous through a damping change.","test":"Break controlled films.","contrary_outcome":"Damping tracks total metal area only.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0151","id":"S7-0151","volume":"900v7","title":"A flexible charge-storage surface should release stored charge more reproducibly when bent through a fixed curvature.","prediction":"A flexible charge-storage surface should release stored charge more reproducibly when bent through a fixed curvature.","test":"Measure transfer distributions.","contrary":"Bending increases variability.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0151","hypothesis":"A flexible charge-storage surface should release stored charge more reproducibly when bent through a fixed curvature.","prediction":"A flexible charge-storage surface should release stored charge more reproducibly when bent through a fixed curvature.","test":"Measure transfer distributions.","contrary_outcome":"Bending increases variability.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0152","id":"S7-0152","volume":"900v7","title":"A passive electrostatic comparator should rank two dielectric sheets by permittivity without knowing their area exactly.","prediction":"A passive electrostatic comparator should rank two dielectric sheets by permittivity without knowing their area exactly.","test":"Test standards.","contrary":"Area mismatch dominates ranking.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0152","hypothesis":"A passive electrostatic comparator should rank two dielectric sheets by permittivity without knowing their area exactly.","prediction":"A passive electrostatic comparator should rank two dielectric sheets by permittivity without knowing their area exactly.","test":"Test standards.","contrary_outcome":"Area mismatch dominates ranking.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0153","id":"S7-0153","volume":"900v7","title":"A rotating capacitor bridge should average parasitic capacitance from support asymmetry.","prediction":"A rotating capacitor bridge should average parasitic capacitance from support asymmetry.","test":"Measure zero drift through rotation.","contrary":"Parasitics rotate with the useful signal.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0153","hypothesis":"A rotating capacitor bridge should average parasitic capacitance from support asymmetry.","prediction":"A rotating capacitor bridge should average parasitic capacitance from support asymmetry.","test":"Measure zero drift through rotation.","contrary_outcome":"Parasitics rotate with the useful signal.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0154","id":"S7-0154","volume":"900v7","title":"A compliant electrode should reduce pull-in sensitivity to initial gap tolerance through geometric stiffening.","prediction":"A compliant electrode should reduce pull-in sensitivity to initial gap tolerance through geometric stiffening.","test":"Test controlled gaps.","contrary":"Threshold remains strongly gap-dependent.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0154","hypothesis":"A compliant electrode should reduce pull-in sensitivity to initial gap tolerance through geometric stiffening.","prediction":"A compliant electrode should reduce pull-in sensitivity to initial gap tolerance through geometric stiffening.","test":"Test controlled gaps.","contrary_outcome":"Threshold remains strongly gap-dependent.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0155","id":"S7-0155","volume":"900v7","title":"A patterned insulating channel should route charged inert particles according to mobility rather than size alone.","prediction":"A patterned insulating channel should route charged inert particles according to mobility rather than size alone.","test":"Measure trajectories.","contrary":"Size fully explains routing.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0155","hypothesis":"A patterned insulating channel should route charged inert particles according to mobility rather than size alone.","prediction":"A patterned insulating channel should route charged inert particles according to mobility rather than size alone.","test":"Measure trajectories.","contrary_outcome":"Size fully explains routing.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0156","id":"S7-0156","volume":"900v7","title":"A floating shield should reduce liquid-level sensor error caused by nearby moving metal.","prediction":"A floating shield should reduce liquid-level sensor error caused by nearby moving metal.","test":"Move controlled metal targets.","contrary":"Shield motion creates equal error.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0156","hypothesis":"A floating shield should reduce liquid-level sensor error caused by nearby moving metal.","prediction":"A floating shield should reduce liquid-level sensor error caused by nearby moving metal.","test":"Move controlled metal targets.","contrary_outcome":"Shield motion creates equal error.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0157","id":"S7-0157","volume":"900v7","title":"A flexible dielectric film should reveal trapped air pockets through local electrostatic deformation thresholds.","prediction":"A flexible dielectric film should reveal trapped air pockets through local electrostatic deformation thresholds.","test":"Apply low-energy fields and image.","contrary":"Thresholds are not pocket-specific.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0157","hypothesis":"A flexible dielectric film should reveal trapped air pockets through local electrostatic deformation thresholds.","prediction":"A flexible dielectric film should reveal trapped air pockets through local electrostatic deformation thresholds.","test":"Apply low-energy fields and image.","contrary_outcome":"Thresholds are not pocket-specific.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0158","id":"S7-0158","volume":"900v7","title":"A passive charge integrator should ignore bipolar interference while accumulating a unipolar input.","prediction":"A passive charge integrator should ignore bipolar interference while accumulating a unipolar input.","test":"Apply calibrated pulse trains.","contrary":"Interference produces a net offset.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0158","hypothesis":"A passive charge integrator should ignore bipolar interference while accumulating a unipolar input.","prediction":"A passive charge integrator should ignore bipolar interference while accumulating a unipolar input.","test":"Apply calibrated pulse trains.","contrary_outcome":"Interference produces a net offset.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0159","id":"S7-0159","volume":"900v7","title":"A rotating electrode should measure surface-potential patches from phase-resolved force without contact.","prediction":"A rotating electrode should measure surface-potential patches from phase-resolved force without contact.","test":"Test known charge patterns.","contrary":"Patch localization fails.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0159","hypothesis":"A rotating electrode should measure surface-potential patches from phase-resolved force without contact.","prediction":"A rotating electrode should measure surface-potential patches from phase-resolved force without contact.","test":"Test known charge patterns.","contrary_outcome":"Patch localization fails.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0160","id":"S7-0160","volume":"900v7","title":"A compliant electrostatic latch should preserve state during supply ripple but release on a deliberate slow ramp.","prediction":"A compliant electrostatic latch should preserve state during supply ripple but release on a deliberate slow ramp.","test":"Apply voltage histories.","contrary":"Ripple causes false release.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0160","hypothesis":"A compliant electrostatic latch should preserve state during supply ripple but release on a deliberate slow ramp.","prediction":"A compliant electrostatic latch should preserve state during supply ripple but release on a deliberate slow ramp.","test":"Apply voltage histories.","contrary_outcome":"Ripple causes false release.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0161","id":"S7-0161","volume":"900v7","title":"A patterned capacitor should distinguish a crack opening from uniform tensile strain through nonlocal channel correlations.","prediction":"A patterned capacitor should distinguish a crack opening from uniform tensile strain through nonlocal channel correlations.","test":"Load known defects.","contrary":"Correlations remain identical.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0161","hypothesis":"A patterned capacitor should distinguish a crack opening from uniform tensile strain through nonlocal channel correlations.","prediction":"A patterned capacitor should distinguish a crack opening from uniform tensile strain through nonlocal channel correlations.","test":"Load known defects.","contrary_outcome":"Correlations remain identical.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0162","id":"S7-0162","volume":"900v7","title":"A suspended dielectric disk should estimate field nonuniformity from amplitude-dependent angular oscillations.","prediction":"A suspended dielectric disk should estimate field nonuniformity from amplitude-dependent angular oscillations.","test":"Apply known gradients.","contrary":"Response follows mean field alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0162","hypothesis":"A suspended dielectric disk should estimate field nonuniformity from amplitude-dependent angular oscillations.","prediction":"A suspended dielectric disk should estimate field nonuniformity from amplitude-dependent angular oscillations.","test":"Apply known gradients.","contrary_outcome":"Response follows mean field alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0163","id":"S7-0163","volume":"900v7","title":"A flexible guard electrode should maintain shielding during large bending without shorting the sensing gap.","prediction":"A flexible guard electrode should maintain shielding during large bending without shorting the sensing gap.","test":"Measure artifacts through cycles.","contrary":"Bending introduces intermittent shorts.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0163","hypothesis":"A flexible guard electrode should maintain shielding during large bending without shorting the sensing gap.","prediction":"A flexible guard electrode should maintain shielding during large bending without shorting the sensing gap.","test":"Measure artifacts through cycles.","contrary_outcome":"Bending introduces intermittent shorts.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0164","id":"S7-0164","volume":"900v7","title":"A passive particle trap should release neutralized particles before oppositely charged particles arrive.","prediction":"A passive particle trap should release neutralized particles before oppositely charged particles arrive.","test":"Control charge histories.","contrary":"Release is too slow to prevent mixing.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0164","hypothesis":"A passive particle trap should release neutralized particles before oppositely charged particles arrive.","prediction":"A passive particle trap should release neutralized particles before oppositely charged particles arrive.","test":"Control charge histories.","contrary_outcome":"Release is too slow to prevent mixing.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0165","id":"S7-0165","volume":"900v7","title":"A rotating dielectric sampler should identify moisture hysteresis from different angular loss profiles during wetting and drying.","prediction":"A rotating dielectric sampler should identify moisture hysteresis from different angular loss profiles during wetting and drying.","test":"Condition known states.","contrary":"Profiles depend only on current moisture.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0165","hypothesis":"A rotating dielectric sampler should identify moisture hysteresis from different angular loss profiles during wetting and drying.","prediction":"A rotating dielectric sampler should identify moisture hysteresis from different angular loss profiles during wetting and drying.","test":"Condition known states.","contrary_outcome":"Profiles depend only on current moisture.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0166","id":"S7-0166","volume":"900v7","title":"A compliant capacitor should preserve its zero after overload by separating its sensing plate from its travel stop.","prediction":"A compliant capacitor should preserve its zero after overload by separating its sensing plate from its travel stop.","test":"Measure calibration.","contrary":"Stop engagement shifts zero permanently.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0166","hypothesis":"A compliant capacitor should preserve its zero after overload by separating its sensing plate from its travel stop.","prediction":"A compliant capacitor should preserve its zero after overload by separating its sensing plate from its travel stop.","test":"Measure calibration.","contrary_outcome":"Stop engagement shifts zero permanently.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0167","id":"S7-0167","volume":"900v7","title":"A patterned electrostatic actuator should create a traveling deformation wave from one slowly swept voltage.","prediction":"A patterned electrostatic actuator should create a traveling deformation wave from one slowly swept voltage.","test":"Image membrane motion.","contrary":"Deformation occurs simultaneously.","layers":[1],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0167","hypothesis":"A patterned electrostatic actuator should create a traveling deformation wave from one slowly swept voltage.","prediction":"A patterned electrostatic actuator should create a traveling deformation wave from one slowly swept voltage.","test":"Image membrane motion.","contrary_outcome":"Deformation occurs simultaneously.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0168","id":"S7-0168","volume":"900v7","title":"A floating reference electrode should expose liquid conductivity drift independently of geometric level change.","prediction":"A floating reference electrode should expose liquid conductivity drift independently of geometric level change.","test":"Calibrate both.","contrary":"Responses remain coupled.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0168","hypothesis":"A floating reference electrode should expose liquid conductivity drift independently of geometric level change.","prediction":"A floating reference electrode should expose liquid conductivity drift independently of geometric level change.","test":"Calibrate both.","contrary_outcome":"Responses remain coupled.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0169","id":"S7-0169","volume":"900v7","title":"A flexible insulating surface should reduce dust adhesion when periodic bending changes local electric-field gradients.","prediction":"A flexible insulating surface should reduce dust adhesion when periodic bending changes local electric-field gradients.","test":"Measure inert dust removal.","contrary":"Bending has no field-specific benefit.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0169","hypothesis":"A flexible insulating surface should reduce dust adhesion when periodic bending changes local electric-field gradients.","prediction":"A flexible insulating surface should reduce dust adhesion when periodic bending changes local electric-field gradients.","test":"Measure inert dust removal.","contrary_outcome":"Bending has no field-specific benefit.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0170","id":"S7-0170","volume":"900v7","title":"A passive charge-threshold counter should advance once per complete charge-discharge cycle.","prediction":"A passive charge-threshold counter should advance once per complete charge-discharge cycle.","test":"Apply known sequences.","contrary":"Partial cycles cause false counts.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0170","hypothesis":"A passive charge-threshold counter should advance once per complete charge-discharge cycle.","prediction":"A passive charge-threshold counter should advance once per complete charge-discharge cycle.","test":"Apply known sequences.","contrary_outcome":"Partial cycles cause false counts.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0171","id":"S7-0171","volume":"900v7","title":"A rotating capacitive array should detect internal void orientation in a dielectric object.","prediction":"A rotating capacitive array should detect internal void orientation in a dielectric object.","test":"Scan known voids.","contrary":"Void orientation is not recoverable.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0171","hypothesis":"A rotating capacitive array should detect internal void orientation in a dielectric object.","prediction":"A rotating capacitive array should detect internal void orientation in a dielectric object.","test":"Scan known voids.","contrary_outcome":"Void orientation is not recoverable.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0172","id":"S7-0172","volume":"900v7","title":"A compliant electrode support should reduce vibration-induced microphonic noise through symmetric force cancellation.","prediction":"A compliant electrode support should reduce vibration-induced microphonic noise through symmetric force cancellation.","test":"Measure noise under shaking.","contrary":"Cancellation fails under realistic mismatch.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0172","hypothesis":"A compliant electrode support should reduce vibration-induced microphonic noise through symmetric force cancellation.","prediction":"A compliant electrode support should reduce vibration-induced microphonic noise through symmetric force cancellation.","test":"Measure noise under shaking.","contrary_outcome":"Cancellation fails under realistic mismatch.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0173","id":"S7-0173","volume":"900v7","title":"A patterned dielectric film should indicate cumulative flexing through a monotonic change in charge-relaxation time.","prediction":"A patterned dielectric film should indicate cumulative flexing through a monotonic change in charge-relaxation time.","test":"Cycle controlled bends.","contrary":"Relaxation changes are nonmonotonic.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0173","hypothesis":"A patterned dielectric film should indicate cumulative flexing through a monotonic change in charge-relaxation time.","prediction":"A patterned dielectric film should indicate cumulative flexing through a monotonic change in charge-relaxation time.","test":"Cycle controlled bends.","contrary_outcome":"Relaxation changes are nonmonotonic.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0174","id":"S7-0174","volume":"900v7","title":"A suspended electrostatic balance should compare tiny normal forces while rejecting horizontal acceleration.","prediction":"A suspended electrostatic balance should compare tiny normal forces while rejecting horizontal acceleration.","test":"Apply calibrated loads and motion.","contrary":"Acceleration cross-talk dominates.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0174","hypothesis":"A suspended electrostatic balance should compare tiny normal forces while rejecting horizontal acceleration.","prediction":"A suspended electrostatic balance should compare tiny normal forces while rejecting horizontal acceleration.","test":"Apply calibrated loads and motion.","contrary_outcome":"Acceleration cross-talk dominates.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0175","id":"S7-0175","volume":"900v7","title":"A flexible field concentrator should amplify small displacement signals while saturating safely at large motion.","prediction":"A flexible field concentrator should amplify small displacement signals while saturating safely at large motion.","test":"Measure transfer curve.","contrary":"Amplification continues into unstable pull-in.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0175","hypothesis":"A flexible field concentrator should amplify small displacement signals while saturating safely at large motion.","prediction":"A flexible field concentrator should amplify small displacement signals while saturating safely at large motion.","test":"Measure transfer curve.","contrary_outcome":"Amplification continues into unstable pull-in.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0176","id":"S7-0176","volume":"900v7","title":"A passive capacitor bridge should detect a wet contaminant before it creates a conductive path.","prediction":"A passive capacitor bridge should detect a wet contaminant before it creates a conductive path.","test":"Dose known droplets.","contrary":"Detection occurs only after leakage begins.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0176","hypothesis":"A passive capacitor bridge should detect a wet contaminant before it creates a conductive path.","prediction":"A passive capacitor bridge should detect a wet contaminant before it creates a conductive path.","test":"Dose known droplets.","contrary_outcome":"Detection occurs only after leakage begins.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0177","id":"S7-0177","volume":"900v7","title":"A rotating charged-free membrane should distinguish aerodynamic torque from electrostatic torque by grounding symmetry.","prediction":"A rotating charged-free membrane should distinguish aerodynamic torque from electrostatic torque by grounding symmetry.","test":"Apply controlled forces.","contrary":"Grounding changes aerodynamic behavior too strongly.","layers":[1],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0177","hypothesis":"A rotating charged-free membrane should distinguish aerodynamic torque from electrostatic torque by grounding symmetry.","prediction":"A rotating charged-free membrane should distinguish aerodynamic torque from electrostatic torque by grounding symmetry.","test":"Apply controlled forces.","contrary_outcome":"Grounding changes aerodynamic behavior too strongly.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0178","id":"S7-0178","volume":"900v7","title":"A compliant dielectric spacer should reduce long-term force drift by unloading regions with high creep.","prediction":"A compliant dielectric spacer should reduce long-term force drift by unloading regions with high creep.","test":"Map pressure and deformation.","contrary":"Load remains on creeping regions.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0178","hypothesis":"A compliant dielectric spacer should reduce long-term force drift by unloading regions with high creep.","prediction":"A compliant dielectric spacer should reduce long-term force drift by unloading regions with high creep.","test":"Map pressure and deformation.","contrary_outcome":"Load remains on creeping regions.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0179","id":"S7-0179","volume":"900v7","title":"A patterned electrode should measure droplet elongation independently of droplet translation.","prediction":"A patterned electrode should measure droplet elongation independently of droplet translation.","test":"Move and deform droplets.","contrary":"Signals remain inseparable.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0179","hypothesis":"A patterned electrode should measure droplet elongation independently of droplet translation.","prediction":"A patterned electrode should measure droplet elongation independently of droplet translation.","test":"Move and deform droplets.","contrary_outcome":"Signals remain inseparable.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0180","id":"S7-0180","volume":"900v7","title":"A floating shield should preserve sensor bandwidth while attenuating slow external field drift.","prediction":"A floating shield should preserve sensor bandwidth while attenuating slow external field drift.","test":"Measure frequency response.","contrary":"Shielding attenuates useful signals equally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0180","hypothesis":"A floating shield should preserve sensor bandwidth while attenuating slow external field drift.","prediction":"A floating shield should preserve sensor bandwidth while attenuating slow external field drift.","test":"Measure frequency response.","contrary_outcome":"Shielding attenuates useful signals equally.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0181","id":"S7-0181","volume":"900v7","title":"A flexible electrostatic switch should show separate trigger and reset thresholds without solid contact.","prediction":"A flexible electrostatic switch should show separate trigger and reset thresholds without solid contact.","test":"Measure voltage cycles.","contrary":"Hysteresis requires contact sticking.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0181","hypothesis":"A flexible electrostatic switch should show separate trigger and reset thresholds without solid contact.","prediction":"A flexible electrostatic switch should show separate trigger and reset thresholds without solid contact.","test":"Measure voltage cycles.","contrary_outcome":"Hysteresis requires contact sticking.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0182","id":"S7-0182","volume":"900v7","title":"A passive particle router should distinguish highly charged slow particles from weakly charged fast particles using two sequential fields.","prediction":"A passive particle router should distinguish highly charged slow particles from weakly charged fast particles using two sequential fields.","test":"Track calibrated particles.","contrary":"Routes remain degenerate.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0182","hypothesis":"A passive particle router should distinguish highly charged slow particles from weakly charged fast particles using two sequential fields.","prediction":"A passive particle router should distinguish highly charged slow particles from weakly charged fast particles using two sequential fields.","test":"Track calibrated particles.","contrary_outcome":"Routes remain degenerate.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0183","id":"S7-0183","volume":"900v7","title":"A rotating capacitive sensor should reveal local bond loss through angle-dependent field penetration.","prediction":"A rotating capacitive sensor should reveal local bond loss through angle-dependent field penetration.","test":"Introduce controlled debonds.","contrary":"Thickness variation masks the signal.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0183","hypothesis":"A rotating capacitive sensor should reveal local bond loss through angle-dependent field penetration.","prediction":"A rotating capacitive sensor should reveal local bond loss through angle-dependent field penetration.","test":"Introduce controlled debonds.","contrary_outcome":"Thickness variation masks the signal.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0184","id":"S7-0184","volume":"900v7","title":"A compliant electrode geometry should maintain approximately constant electrostatic force over a finite stroke.","prediction":"A compliant electrode geometry should maintain approximately constant electrostatic force over a finite stroke.","test":"Measure force-displacement.","contrary":"Force remains strongly gap-dependent.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0184","hypothesis":"A compliant electrode geometry should maintain approximately constant electrostatic force over a finite stroke.","prediction":"A compliant electrode geometry should maintain approximately constant electrostatic force over a finite stroke.","test":"Measure force-displacement.","contrary_outcome":"Force remains strongly gap-dependent.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0185","id":"S7-0185","volume":"900v7","title":"A patterned insulator should retain a readable spatial charge image after uniform mechanical stretching.","prediction":"A patterned insulator should retain a readable spatial charge image after uniform mechanical stretching.","test":"Map surface potential.","contrary":"Stretching scrambles the image.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0185","hypothesis":"A patterned insulator should retain a readable spatial charge image after uniform mechanical stretching.","prediction":"A patterned insulator should retain a readable spatial charge image after uniform mechanical stretching.","test":"Map surface potential.","contrary_outcome":"Stretching scrambles the image.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0186","id":"S7-0186","volume":"900v7","title":"A suspended dielectric ring should detect local liquid contact through a change in torsional damping under a weak field.","prediction":"A suspended dielectric ring should detect local liquid contact through a change in torsional damping under a weak field.","test":"Apply known contacts.","contrary":"Dry support damping dominates.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0186","hypothesis":"A suspended dielectric ring should detect local liquid contact through a change in torsional damping under a weak field.","prediction":"A suspended dielectric ring should detect local liquid contact through a change in torsional damping under a weak field.","test":"Apply known contacts.","contrary_outcome":"Dry support damping dominates.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0187","id":"S7-0187","volume":"900v7","title":"A flexible grounding strip should discharge a moving object without a sharp contact-force pulse.","prediction":"A flexible grounding strip should discharge a moving object without a sharp contact-force pulse.","test":"Measure force and charge.","contrary":"Reliable discharge requires high force.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0187","hypothesis":"A flexible grounding strip should discharge a moving object without a sharp contact-force pulse.","prediction":"A flexible grounding strip should discharge a moving object without a sharp contact-force pulse.","test":"Measure force and charge.","contrary_outcome":"Reliable discharge requires high force.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0188","id":"S7-0188","volume":"900v7","title":"A passive charge reference should distinguish dielectric absorption from an actual leak through a second waiting-time measurement.","prediction":"A passive charge reference should distinguish dielectric absorption from an actual leak through a second waiting-time measurement.","test":"Test known components.","contrary":"Both produce identical decay histories.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0188","hypothesis":"A passive charge reference should distinguish dielectric absorption from an actual leak through a second waiting-time measurement.","prediction":"A passive charge reference should distinguish dielectric absorption from an actual leak through a second waiting-time measurement.","test":"Test known components.","contrary_outcome":"Both produce identical decay histories.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0189","id":"S7-0189","volume":"900v7","title":"A rotating electrode pair should estimate sheet thickness while rejecting permittivity drift through differential fringe fields.","prediction":"A rotating electrode pair should estimate sheet thickness while rejecting permittivity drift through differential fringe fields.","test":"Test standards.","contrary":"Parameters remain confounded.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0189","hypothesis":"A rotating electrode pair should estimate sheet thickness while rejecting permittivity drift through differential fringe fields.","prediction":"A rotating electrode pair should estimate sheet thickness while rejecting permittivity drift through differential fringe fields.","test":"Test standards.","contrary_outcome":"Parameters remain confounded.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0190","id":"S7-0190","volume":"900v7","title":"A compliant electrostatic membrane should warn of approaching collapse through an increasing relaxation time.","prediction":"A compliant electrostatic membrane should warn of approaching collapse through an increasing relaxation time.","test":"Measure step responses near threshold.","contrary":"No resolvable slowdown precedes collapse.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0190","hypothesis":"A compliant electrostatic membrane should warn of approaching collapse through an increasing relaxation time.","prediction":"A compliant electrostatic membrane should warn of approaching collapse through an increasing relaxation time.","test":"Measure step responses near threshold.","contrary_outcome":"No resolvable slowdown precedes collapse.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0191","id":"S7-0191","volume":"900v7","title":"A patterned field should align inert rods before they enter a mechanical sorting slit.","prediction":"A patterned field should align inert rods before they enter a mechanical sorting slit.","test":"Measure alignment and sorting.","contrary":"Field-induced aggregation defeats sorting.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0191","hypothesis":"A patterned field should align inert rods before they enter a mechanical sorting slit.","prediction":"A patterned field should align inert rods before they enter a mechanical sorting slit.","test":"Measure alignment and sorting.","contrary_outcome":"Field-induced aggregation defeats sorting.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0192","id":"S7-0192","volume":"900v7","title":"A floating capacitor plate should self-level over a tilted dielectric support through differential attraction.","prediction":"A floating capacitor plate should self-level over a tilted dielectric support through differential attraction.","test":"Measure tilt stability.","contrary":"Attraction destabilizes the narrow gap.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0192","hypothesis":"A floating capacitor plate should self-level over a tilted dielectric support through differential attraction.","prediction":"A floating capacitor plate should self-level over a tilted dielectric support through differential attraction.","test":"Measure tilt stability.","contrary_outcome":"Attraction destabilizes the narrow gap.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0193","id":"S7-0193","volume":"900v7","title":"A flexible insulating shell should reduce localized charge buildup by changing curvature under attraction.","prediction":"A flexible insulating shell should reduce localized charge buildup by changing curvature under attraction.","test":"Map potential and shape.","contrary":"Deformation concentrates charge further.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0193","hypothesis":"A flexible insulating shell should reduce localized charge buildup by changing curvature under attraction.","prediction":"A flexible insulating shell should reduce localized charge buildup by changing curvature under attraction.","test":"Map potential and shape.","contrary_outcome":"Deformation concentrates charge further.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0194","id":"S7-0194","volume":"900v7","title":"A passive particle collector should preserve arrival-time order in separate electrostatic pockets.","prediction":"A passive particle collector should preserve arrival-time order in separate electrostatic pockets.","test":"Apply labeled inert pulses.","contrary":"Charge redistribution scrambles order.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0194","hypothesis":"A passive particle collector should preserve arrival-time order in separate electrostatic pockets.","prediction":"A passive particle collector should preserve arrival-time order in separate electrostatic pockets.","test":"Apply labeled inert pulses.","contrary_outcome":"Charge redistribution scrambles order.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0195","id":"S7-0195","volume":"900v7","title":"A rotating capacitive reference should reveal support creep through a slowly changing harmonic phase.","prediction":"A rotating capacitive reference should reveal support creep through a slowly changing harmonic phase.","test":"Apply sustained load.","contrary":"Thermal drift produces the same phase change.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0195","hypothesis":"A rotating capacitive reference should reveal support creep through a slowly changing harmonic phase.","prediction":"A rotating capacitive reference should reveal support creep through a slowly changing harmonic phase.","test":"Apply sustained load.","contrary_outcome":"Thermal drift produces the same phase change.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0196","id":"S7-0196","volume":"900v7","title":"A compliant electrode should reduce surface damage during contact charging through progressive area recruitment.","prediction":"A compliant electrode should reduce surface damage during contact charging through progressive area recruitment.","test":"Measure charge and wear.","contrary":"Recruitment does not lower damage.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0196","hypothesis":"A compliant electrode should reduce surface damage during contact charging through progressive area recruitment.","prediction":"A compliant electrode should reduce surface damage during contact charging through progressive area recruitment.","test":"Measure charge and wear.","contrary_outcome":"Recruitment does not lower damage.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0197","id":"S7-0197","volume":"900v7","title":"A patterned dielectric cavity should detect an internal liquid leak through a delayed capacitance recovery after drying.","prediction":"A patterned dielectric cavity should detect an internal liquid leak through a delayed capacitance recovery after drying.","test":"Introduce known leaks.","contrary":"Recovery is not leak-specific.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0197","hypothesis":"A patterned dielectric cavity should detect an internal liquid leak through a delayed capacitance recovery after drying.","prediction":"A patterned dielectric cavity should detect an internal liquid leak through a delayed capacitance recovery after drying.","test":"Introduce known leaks.","contrary_outcome":"Recovery is not leak-specific.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0198","id":"S7-0198","volume":"900v7","title":"A suspended electrostatic pointer should estimate low-frequency field polarity without permanent contact.","prediction":"A suspended electrostatic pointer should estimate low-frequency field polarity without permanent contact.","test":"Reverse calibrated fields.","contrary":"Residual charge makes polarity ambiguous.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0198","hypothesis":"A suspended electrostatic pointer should estimate low-frequency field polarity without permanent contact.","prediction":"A suspended electrostatic pointer should estimate low-frequency field polarity without permanent contact.","test":"Reverse calibrated fields.","contrary_outcome":"Residual charge makes polarity ambiguous.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0199","id":"S7-0199","volume":"900v7","title":"A flexible sensor array should maintain local capacitive calibration after one trace breaks through redundant geometry.","prediction":"A flexible sensor array should maintain local capacitive calibration after one trace breaks through redundant geometry.","test":"Break controlled traces.","contrary":"Calibration fails globally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0199","hypothesis":"A flexible sensor array should maintain local capacitive calibration after one trace breaks through redundant geometry.","prediction":"A flexible sensor array should maintain local capacitive calibration after one trace breaks through redundant geometry.","test":"Break controlled traces.","contrary_outcome":"Calibration fails globally.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0200","id":"S7-0200","volume":"900v7","title":"A passive charge-release mechanism should reset reproducibly after prolonged storage by mechanically exposing a grounded surface.","prediction":"A passive charge-release mechanism should reset reproducibly after prolonged storage by mechanically exposing a grounded surface.","test":"Measure reset after dwell.","contrary":"Stored charge remains trapped.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0200","hypothesis":"A passive charge-release mechanism should reset reproducibly after prolonged storage by mechanically exposing a grounded surface.","prediction":"A passive charge-release mechanism should reset reproducibly after prolonged storage by mechanically exposing a grounded surface.","test":"Measure reset after dwell.","contrary_outcome":"Stored charge remains trapped.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0201","id":"S7-0201","volume":"900v7","title":"A shallow heated cavity should switch convection-roll direction when a movable ceiling crosses a geometric threshold.","prediction":"A shallow heated cavity should switch convection-roll direction when a movable ceiling crosses a geometric threshold.","test":"Image tracer flow.","contrary":"Roll direction remains history-dominated.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0201","hypothesis":"A shallow heated cavity should switch convection-roll direction when a movable ceiling crosses a geometric threshold.","prediction":"A shallow heated cavity should switch convection-roll direction when a movable ceiling crosses a geometric threshold.","test":"Image tracer flow.","contrary_outcome":"Roll direction remains history-dominated.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0202","id":"S7-0202","volume":"900v7","title":"A floating thermal obstacle should suppress a large convection cell by drifting toward its upwelling region.","prediction":"A floating thermal obstacle should suppress a large convection cell by drifting toward its upwelling region.","test":"Track obstacle and flow.","contrary":"Drift strengthens the circulation.","layers":[1],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0202","hypothesis":"A floating thermal obstacle should suppress a large convection cell by drifting toward its upwelling region.","prediction":"A floating thermal obstacle should suppress a large convection cell by drifting toward its upwelling region.","test":"Track obstacle and flow.","contrary_outcome":"Drift strengthens the circulation.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0203","id":"S7-0203","volume":"900v7","title":"A vertical thermal slot should transport inert particles against settling only within a bounded heating range.","prediction":"A vertical thermal slot should transport inert particles against settling only within a bounded heating range.","test":"Measure particle flux.","contrary":"Transport follows bulk buoyancy without a bounded optimum.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0203","hypothesis":"A vertical thermal slot should transport inert particles against settling only within a bounded heating range.","prediction":"A vertical thermal slot should transport inert particles against settling only within a bounded heating range.","test":"Measure particle flux.","contrary_outcome":"Transport follows bulk buoyancy without a bounded optimum.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0204","id":"S7-0204","volume":"900v7","title":"A flexible heated wall should reduce temperature oscillations by deforming out of phase with convection plumes.","prediction":"A flexible heated wall should reduce temperature oscillations by deforming out of phase with convection plumes.","test":"Measure wall motion and temperature.","contrary":"Deformation amplifies oscillations.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0204","hypothesis":"A flexible heated wall should reduce temperature oscillations by deforming out of phase with convection plumes.","prediction":"A flexible heated wall should reduce temperature oscillations by deforming out of phase with convection plumes.","test":"Measure wall motion and temperature.","contrary_outcome":"Deformation amplifies oscillations.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0205","id":"S7-0205","volume":"900v7","title":"A thermally conducting island should redirect a buoyant plume without changing total heater power.","prediction":"A thermally conducting island should redirect a buoyant plume without changing total heater power.","test":"Map plume trajectories.","contrary":"Direction changes only with power imbalance.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0205","hypothesis":"A thermally conducting island should redirect a buoyant plume without changing total heater power.","prediction":"A thermally conducting island should redirect a buoyant plume without changing total heater power.","test":"Map plume trajectories.","contrary_outcome":"Direction changes only with power imbalance.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0206","id":"S7-0206","volume":"900v7","title":"A narrow liquid cavity should retain a thermal-gradient memory after heating stops through slowly relaxing density stratification.","prediction":"A narrow liquid cavity should retain a thermal-gradient memory after heating stops through slowly relaxing density stratification.","test":"Measure restart flow.","contrary":"Restart depends only on current temperature field.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0206","hypothesis":"A narrow liquid cavity should retain a thermal-gradient memory after heating stops through slowly relaxing density stratification.","prediction":"A narrow liquid cavity should retain a thermal-gradient memory after heating stops through slowly relaxing density stratification.","test":"Measure restart flow.","contrary_outcome":"Restart depends only on current temperature field.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0207","id":"S7-0207","volume":"900v7","title":"A porous cold boundary should suppress descending plume intermittency by distributing condensation-like cooling spatially.","prediction":"A porous cold boundary should suppress descending plume intermittency by distributing condensation-like cooling spatially.","test":"Measure plume timing.","contrary":"Intermittency remains unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0207","hypothesis":"A porous cold boundary should suppress descending plume intermittency by distributing condensation-like cooling spatially.","prediction":"A porous cold boundary should suppress descending plume intermittency by distributing condensation-like cooling spatially.","test":"Measure plume timing.","contrary_outcome":"Intermittency remains unchanged.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0208","id":"S7-0208","volume":"900v7","title":"A movable insulating baffle should converge toward a location that reduces heat leakage through a fluid cavity.","prediction":"A movable insulating baffle should converge toward a location that reduces heat leakage through a fluid cavity.","test":"Track position and heat flux.","contrary":"It settles at a higher-leakage position.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0208","hypothesis":"A movable insulating baffle should converge toward a location that reduces heat leakage through a fluid cavity.","prediction":"A movable insulating baffle should converge toward a location that reduces heat leakage through a fluid cavity.","test":"Track position and heat flux.","contrary_outcome":"It settles at a higher-leakage position.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0209","id":"S7-0209","volume":"900v7","title":"A rotating thermal boundary pattern should entrain convection at lower drive amplitude than uniform boundary modulation.","prediction":"A rotating thermal boundary pattern should entrain convection at lower drive amplitude than uniform boundary modulation.","test":"Measure phase locking.","contrary":"Patterning offers no entrainment benefit.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0209","hypothesis":"A rotating thermal boundary pattern should entrain convection at lower drive amplitude than uniform boundary modulation.","prediction":"A rotating thermal boundary pattern should entrain convection at lower drive amplitude than uniform boundary modulation.","test":"Measure phase locking.","contrary_outcome":"Patterning offers no entrainment benefit.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0210","id":"S7-0210","volume":"900v7","title":"A flexible horizontal film should reveal onset of convection below it through a static wrinkle-orientation change.","prediction":"A flexible horizontal film should reveal onset of convection below it through a static wrinkle-orientation change.","test":"Measure flow and shape.","contrary":"Wrinkles respond only to mean temperature.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0210","hypothesis":"A flexible horizontal film should reveal onset of convection below it through a static wrinkle-orientation change.","prediction":"A flexible horizontal film should reveal onset of convection below it through a static wrinkle-orientation change.","test":"Measure flow and shape.","contrary_outcome":"Wrinkles respond only to mean temperature.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0211","id":"S7-0211","volume":"900v7","title":"A shallow thermocapillary channel should reverse circulation when its free-surface length passes a critical ratio.","prediction":"A shallow thermocapillary channel should reverse circulation when its free-surface length passes a critical ratio.","test":"Measure flow versus geometry.","contrary":"Circulation retains the same sign.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0211","hypothesis":"A shallow thermocapillary channel should reverse circulation when its free-surface length passes a critical ratio.","prediction":"A shallow thermocapillary channel should reverse circulation when its free-surface length passes a critical ratio.","test":"Measure flow versus geometry.","contrary_outcome":"Circulation retains the same sign.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0212","id":"S7-0212","volume":"900v7","title":"A suspended thermal fin should self-orient to maximize cooling in a changing buoyant plume.","prediction":"A suspended thermal fin should self-orient to maximize cooling in a changing buoyant plume.","test":"Measure angle and cooling.","contrary":"Orientation is mechanically unstable.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0212","hypothesis":"A suspended thermal fin should self-orient to maximize cooling in a changing buoyant plume.","prediction":"A suspended thermal fin should self-orient to maximize cooling in a changing buoyant plume.","test":"Measure angle and cooling.","contrary_outcome":"Orientation is mechanically unstable.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0213","id":"S7-0213","volume":"900v7","title":"A double cavity connected at unequal heights should rectify alternating heating into net liquid circulation.","prediction":"A double cavity connected at unequal heights should rectify alternating heating into net liquid circulation.","test":"Measure cycle-averaged flow.","contrary":"Net circulation vanishes after pressure correction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0213","hypothesis":"A double cavity connected at unequal heights should rectify alternating heating into net liquid circulation.","prediction":"A double cavity connected at unequal heights should rectify alternating heating into net liquid circulation.","test":"Measure cycle-averaged flow.","contrary_outcome":"Net circulation vanishes after pressure correction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0214","id":"S7-0214","volume":"900v7","title":"A porous thermal screen should reduce plume merging and thereby narrow wall-temperature fluctuations.","prediction":"A porous thermal screen should reduce plume merging and thereby narrow wall-temperature fluctuations.","test":"Image plumes and temperature.","contrary":"Screen increases merging.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0214","hypothesis":"A porous thermal screen should reduce plume merging and thereby narrow wall-temperature fluctuations.","prediction":"A porous thermal screen should reduce plume merging and thereby narrow wall-temperature fluctuations.","test":"Image plumes and temperature.","contrary_outcome":"Screen increases merging.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0215","id":"S7-0215","volume":"900v7","title":"A deformable hot surface should shed a thermal boundary layer through periodic elastic recoil under steady heating.","prediction":"A deformable hot surface should shed a thermal boundary layer through periodic elastic recoil under steady heating.","test":"Measure flow and motion.","contrary":"Only transient recoil occurs.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0215","hypothesis":"A deformable hot surface should shed a thermal boundary layer through periodic elastic recoil under steady heating.","prediction":"A deformable hot surface should shed a thermal boundary layer through periodic elastic recoil under steady heating.","test":"Measure flow and motion.","contrary_outcome":"Only transient recoil occurs.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0216","id":"S7-0216","volume":"900v7","title":"A tilted annular cavity should separate mean temperature from heat-flow direction through asymmetric circulation timing.","prediction":"A tilted annular cavity should separate mean temperature from heat-flow direction through asymmetric circulation timing.","test":"Measure both heat and tracer signals.","contrary":"Timing remains ambiguous.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0216","hypothesis":"A tilted annular cavity should separate mean temperature from heat-flow direction through asymmetric circulation timing.","prediction":"A tilted annular cavity should separate mean temperature from heat-flow direction through asymmetric circulation timing.","test":"Measure both heat and tracer signals.","contrary_outcome":"Timing remains ambiguous.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0217","id":"S7-0217","volume":"900v7","title":"A floating cold plate should stabilize its clearance above a heater through buoyancy feedback.","prediction":"A floating cold plate should stabilize its clearance above a heater through buoyancy feedback.","test":"Measure gap versus power.","contrary":"Gap collapses or diverges.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0217","hypothesis":"A floating cold plate should stabilize its clearance above a heater through buoyancy feedback.","prediction":"A floating cold plate should stabilize its clearance above a heater through buoyancy feedback.","test":"Measure gap versus power.","contrary_outcome":"Gap collapses or diverges.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0218","id":"S7-0218","volume":"900v7","title":"A narrow thermal bridge should expose a hidden contact defect through a sideways shift of its convective plume.","prediction":"A narrow thermal bridge should expose a hidden contact defect through a sideways shift of its convective plume.","test":"Introduce known defects.","contrary":"Plume shift is dominated by ambient drafts.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0218","hypothesis":"A narrow thermal bridge should expose a hidden contact defect through a sideways shift of its convective plume.","prediction":"A narrow thermal bridge should expose a hidden contact defect through a sideways shift of its convective plume.","test":"Introduce known defects.","contrary_outcome":"Plume shift is dominated by ambient drafts.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0219","id":"S7-0219","volume":"900v7","title":"A flexible thermal partition should reduce cross-cavity mixing by following the density interface.","prediction":"A flexible thermal partition should reduce cross-cavity mixing by following the density interface.","test":"Track dye and partition motion.","contrary":"Motion destabilizes the interface.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0219","hypothesis":"A flexible thermal partition should reduce cross-cavity mixing by following the density interface.","prediction":"A flexible thermal partition should reduce cross-cavity mixing by following the density interface.","test":"Track dye and partition motion.","contrary_outcome":"Motion destabilizes the interface.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0220","id":"S7-0220","volume":"900v7","title":"A rotating heater pattern should suppress stagnant thermal pockets without increasing mean flow energy proportionally.","prediction":"A rotating heater pattern should suppress stagnant thermal pockets without increasing mean flow energy proportionally.","test":"Map temperature and velocity.","contrary":"Pocket removal requires equal energy increase.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0220","hypothesis":"A rotating heater pattern should suppress stagnant thermal pockets without increasing mean flow energy proportionally.","prediction":"A rotating heater pattern should suppress stagnant thermal pockets without increasing mean flow energy proportionally.","test":"Map temperature and velocity.","contrary_outcome":"Pocket removal requires equal energy increase.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0221","id":"S7-0221","volume":"900v7","title":"A porous ceiling should delay convection onset by allowing slow pressure equalization without bulk liquid escape.","prediction":"A porous ceiling should delay convection onset by allowing slow pressure equalization without bulk liquid escape.","test":"Measure onset heating.","contrary":"Onset is unchanged.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0221","hypothesis":"A porous ceiling should delay convection onset by allowing slow pressure equalization without bulk liquid escape.","prediction":"A porous ceiling should delay convection onset by allowing slow pressure equalization without bulk liquid escape.","test":"Measure onset heating.","contrary_outcome":"Onset is unchanged.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0222","id":"S7-0222","volume":"900v7","title":"A movable thermal mass should synchronize plume release from two neighboring heaters.","prediction":"A movable thermal mass should synchronize plume release from two neighboring heaters.","test":"Measure release phases.","contrary":"Phases drift independently.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0222","hypothesis":"A movable thermal mass should synchronize plume release from two neighboring heaters.","prediction":"A movable thermal mass should synchronize plume release from two neighboring heaters.","test":"Measure release phases.","contrary_outcome":"Phases drift independently.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0223","id":"S7-0223","volume":"900v7","title":"A curved cold wall should focus descending flow into a drain while leaving the central region quiescent.","prediction":"A curved cold wall should focus descending flow into a drain while leaving the central region quiescent.","test":"Map velocities.","contrary":"Flow spreads through the center.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0223","hypothesis":"A curved cold wall should focus descending flow into a drain while leaving the central region quiescent.","prediction":"A curved cold wall should focus descending flow into a drain while leaving the central region quiescent.","test":"Map velocities.","contrary_outcome":"Flow spreads through the center.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0224","id":"S7-0224","volume":"900v7","title":"A flexible heated strip should estimate local convective heat transfer through its curvature phase lag.","prediction":"A flexible heated strip should estimate local convective heat transfer through its curvature phase lag.","test":"Calibrate known flows.","contrary":"Material relaxation dominates the lag.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0224","hypothesis":"A flexible heated strip should estimate local convective heat transfer through its curvature phase lag.","prediction":"A flexible heated strip should estimate local convective heat transfer through its curvature phase lag.","test":"Calibrate known flows.","contrary_outcome":"Material relaxation dominates the lag.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0225","id":"S7-0225","volume":"900v7","title":"A thermally isolated floating ring should break a convection roll into smaller cells through surface-tension feedback.","prediction":"A thermally isolated floating ring should break a convection roll into smaller cells through surface-tension feedback.","test":"Image flow fields.","contrary":"Ring simply displaces the roll.","layers":[1],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0225","hypothesis":"A thermally isolated floating ring should break a convection roll into smaller cells through surface-tension feedback.","prediction":"A thermally isolated floating ring should break a convection roll into smaller cells through surface-tension feedback.","test":"Image flow fields.","contrary_outcome":"Ring simply displaces the roll.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0226","id":"S7-0226","volume":"900v7","title":"A narrow liquid layer should show a reproducible convection mode change before its mean heat-transfer coefficient jumps.","prediction":"A narrow liquid layer should show a reproducible convection mode change before its mean heat-transfer coefficient jumps.","test":"Measure modes and heat flux.","contrary":"Mode change follows the heat-flux jump.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0226","hypothesis":"A narrow liquid layer should show a reproducible convection mode change before its mean heat-transfer coefficient jumps.","prediction":"A narrow liquid layer should show a reproducible convection mode change before its mean heat-transfer coefficient jumps.","test":"Measure modes and heat flux.","contrary_outcome":"Mode change follows the heat-flux jump.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0227","id":"S7-0227","volume":"900v7","title":"A porous sidewall should reduce convection-driven solute segregation by permitting lateral diffusion without net flow.","prediction":"A porous sidewall should reduce convection-driven solute segregation by permitting lateral diffusion without net flow.","test":"Map benign dye concentration.","contrary":"Segregation remains unchanged.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0227","hypothesis":"A porous sidewall should reduce convection-driven solute segregation by permitting lateral diffusion without net flow.","prediction":"A porous sidewall should reduce convection-driven solute segregation by permitting lateral diffusion without net flow.","test":"Map benign dye concentration.","contrary_outcome":"Segregation remains unchanged.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0228","id":"S7-0228","volume":"900v7","title":"A moving thermal shadow should transport a floating inert object through a traveling surface-tension minimum.","prediction":"A moving thermal shadow should transport a floating inert object through a traveling surface-tension minimum.","test":"Track object and fluid.","contrary":"Bulk airflow explains motion.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0228","hypothesis":"A moving thermal shadow should transport a floating inert object through a traveling surface-tension minimum.","prediction":"A moving thermal shadow should transport a floating inert object through a traveling surface-tension minimum.","test":"Track object and fluid.","contrary_outcome":"Bulk airflow explains motion.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0229","id":"S7-0229","volume":"900v7","title":"A flexible cold boundary should reveal plume impact locations through localized delayed dimples.","prediction":"A flexible cold boundary should reveal plume impact locations through localized delayed dimples.","test":"Compare imaging and velocimetry.","contrary":"Dimples are spatially diffuse.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0229","hypothesis":"A flexible cold boundary should reveal plume impact locations through localized delayed dimples.","prediction":"A flexible cold boundary should reveal plume impact locations through localized delayed dimples.","test":"Compare imaging and velocimetry.","contrary_outcome":"Dimples are spatially diffuse.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0230","id":"S7-0230","volume":"900v7","title":"A coupled thermal cavity pair should oscillate out of phase under steady asymmetric heating.","prediction":"A coupled thermal cavity pair should oscillate out of phase under steady asymmetric heating.","test":"Measure temperatures and flow.","contrary":"Both settle to steady circulation.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0230","hypothesis":"A coupled thermal cavity pair should oscillate out of phase under steady asymmetric heating.","prediction":"A coupled thermal cavity pair should oscillate out of phase under steady asymmetric heating.","test":"Measure temperatures and flow.","contrary_outcome":"Both settle to steady circulation.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0231","id":"S7-0231","volume":"900v7","title":"A suspended heat shield should drift toward a hot spot and lower its peak temperature passively.","prediction":"A suspended heat shield should drift toward a hot spot and lower its peak temperature passively.","test":"Measure motion and thermal map.","contrary":"Shield moves away or traps more heat.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0231","hypothesis":"A suspended heat shield should drift toward a hot spot and lower its peak temperature passively.","prediction":"A suspended heat shield should drift toward a hot spot and lower its peak temperature passively.","test":"Measure motion and thermal map.","contrary_outcome":"Shield moves away or traps more heat.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0232","id":"S7-0232","volume":"900v7","title":"A shallow thermal channel should distinguish heater intermittency from equal mean power through particle residence-time tails.","prediction":"A shallow thermal channel should distinguish heater intermittency from equal mean power through particle residence-time tails.","test":"Measure tracer transit.","contrary":"Tails depend only on mean power.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0232","hypothesis":"A shallow thermal channel should distinguish heater intermittency from equal mean power through particle residence-time tails.","prediction":"A shallow thermal channel should distinguish heater intermittency from equal mean power through particle residence-time tails.","test":"Measure tracer transit.","contrary_outcome":"Tails depend only on mean power.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0233","id":"S7-0233","volume":"900v7","title":"A porous floating mat should suppress evaporation-driven convection while preserving conductive cooling.","prediction":"A porous floating mat should suppress evaporation-driven convection while preserving conductive cooling.","test":"Measure flow and heat flux.","contrary":"Suppression reduces cooling equally.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0233","hypothesis":"A porous floating mat should suppress evaporation-driven convection while preserving conductive cooling.","prediction":"A porous floating mat should suppress evaporation-driven convection while preserving conductive cooling.","test":"Measure flow and heat flux.","contrary_outcome":"Suppression reduces cooling equally.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0234","id":"S7-0234","volume":"900v7","title":"A rotating cold finger should prevent a stable insulating boundary layer through periodic geometric renewal.","prediction":"A rotating cold finger should prevent a stable insulating boundary layer through periodic geometric renewal.","test":"Measure heat transfer.","contrary":"Rotation adds no benefit beyond bulk stirring.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0234","hypothesis":"A rotating cold finger should prevent a stable insulating boundary layer through periodic geometric renewal.","prediction":"A rotating cold finger should prevent a stable insulating boundary layer through periodic geometric renewal.","test":"Measure heat transfer.","contrary_outcome":"Rotation adds no benefit beyond bulk stirring.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0235","id":"S7-0235","volume":"900v7","title":"A flexible convection cell should limit peak wall temperature by expanding its heated gap.","prediction":"A flexible convection cell should limit peak wall temperature by expanding its heated gap.","test":"Measure gap and temperature.","contrary":"Expansion weakens cooling and raises temperature.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0235","hypothesis":"A flexible convection cell should limit peak wall temperature by expanding its heated gap.","prediction":"A flexible convection cell should limit peak wall temperature by expanding its heated gap.","test":"Measure gap and temperature.","contrary_outcome":"Expansion weakens cooling and raises temperature.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0236","id":"S7-0236","volume":"900v7","title":"A thermal gradient should drive a suspended asymmetric vane through liquid surface stresses without direct illumination of the vane.","prediction":"A thermal gradient should drive a suspended asymmetric vane through liquid surface stresses without direct illumination of the vane.","test":"Measure torque and flow.","contrary":"Torque disappears after draft correction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0236","hypothesis":"A thermal gradient should drive a suspended asymmetric vane through liquid surface stresses without direct illumination of the vane.","prediction":"A thermal gradient should drive a suspended asymmetric vane through liquid surface stresses without direct illumination of the vane.","test":"Measure torque and flow.","contrary_outcome":"Torque disappears after draft correction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0237","id":"S7-0237","volume":"900v7","title":"A narrow vertical cavity should reveal density inversion through a sudden reversal of tracer-loop orientation.","prediction":"A narrow vertical cavity should reveal density inversion through a sudden reversal of tracer-loop orientation.","test":"Create controlled thermal states.","contrary":"Loop direction changes gradually or ambiguously.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0237","hypothesis":"A narrow vertical cavity should reveal density inversion through a sudden reversal of tracer-loop orientation.","prediction":"A narrow vertical cavity should reveal density inversion through a sudden reversal of tracer-loop orientation.","test":"Create controlled thermal states.","contrary_outcome":"Loop direction changes gradually or ambiguously.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0238","id":"S7-0238","volume":"900v7","title":"A porous heater support should reduce hot spots by routing buoyant flow through the least-cooled region.","prediction":"A porous heater support should reduce hot spots by routing buoyant flow through the least-cooled region.","test":"Map flow and temperature.","contrary":"Flow bypasses the hot spot.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0238","hypothesis":"A porous heater support should reduce hot spots by routing buoyant flow through the least-cooled region.","prediction":"A porous heater support should reduce hot spots by routing buoyant flow through the least-cooled region.","test":"Map flow and temperature.","contrary_outcome":"Flow bypasses the hot spot.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0239","id":"S7-0239","volume":"900v7","title":"A movable insulating lid should regulate evaporation by changing its clearance in response to liquid cooling.","prediction":"A movable insulating lid should regulate evaporation by changing its clearance in response to liquid cooling.","test":"Measure gap and mass loss.","contrary":"Feedback increases rate fluctuations.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0239","hypothesis":"A movable insulating lid should regulate evaporation by changing its clearance in response to liquid cooling.","prediction":"A movable insulating lid should regulate evaporation by changing its clearance in response to liquid cooling.","test":"Measure gap and mass loss.","contrary_outcome":"Feedback increases rate fluctuations.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0240","id":"S7-0240","volume":"900v7","title":"A curved thermal interface should reduce plume attachment hysteresis during slow heating cycles.","prediction":"A curved thermal interface should reduce plume attachment hysteresis during slow heating cycles.","test":"Track plume paths.","contrary":"Hysteresis remains unchanged.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0240","hypothesis":"A curved thermal interface should reduce plume attachment hysteresis during slow heating cycles.","prediction":"A curved thermal interface should reduce plume attachment hysteresis during slow heating cycles.","test":"Track plume paths.","contrary_outcome":"Hysteresis remains unchanged.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0241","id":"S7-0241","volume":"900v7","title":"A flexible wall should distinguish turbulent plume impacts from steady shear through their different deformation recovery.","prediction":"A flexible wall should distinguish turbulent plume impacts from steady shear through their different deformation recovery.","test":"Apply controlled flows.","contrary":"Recovery signatures overlap.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0241","hypothesis":"A flexible wall should distinguish turbulent plume impacts from steady shear through their different deformation recovery.","prediction":"A flexible wall should distinguish turbulent plume impacts from steady shear through their different deformation recovery.","test":"Apply controlled flows.","contrary_outcome":"Recovery signatures overlap.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0242","id":"S7-0242","volume":"900v7","title":"A thermally driven circulation loop should restart in the same direction after brief power interruptions through asymmetric fluid storage.","prediction":"A thermally driven circulation loop should restart in the same direction after brief power interruptions through asymmetric fluid storage.","test":"Measure restart direction.","contrary":"Direction remains random.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0242","hypothesis":"A thermally driven circulation loop should restart in the same direction after brief power interruptions through asymmetric fluid storage.","prediction":"A thermally driven circulation loop should restart in the same direction after brief power interruptions through asymmetric fluid storage.","test":"Measure restart direction.","contrary_outcome":"Direction remains random.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0243","id":"S7-0243","volume":"900v7","title":"A porous cold plate should collect condensate-like water without disturbing a neighboring convection cell.","prediction":"A porous cold plate should collect condensate-like water without disturbing a neighboring convection cell.","test":"Measure flow and drainage.","contrary":"Drainage repeatedly disrupts circulation.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0243","hypothesis":"A porous cold plate should collect condensate-like water without disturbing a neighboring convection cell.","prediction":"A porous cold plate should collect condensate-like water without disturbing a neighboring convection cell.","test":"Measure flow and drainage.","contrary_outcome":"Drainage repeatedly disrupts circulation.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0244","id":"S7-0244","volume":"900v7","title":"A rotating thermal pattern should reveal fluid relaxation time through a lagging concentration-wave response.","prediction":"A rotating thermal pattern should reveal fluid relaxation time through a lagging concentration-wave response.","test":"Use benign tracer mixtures.","contrary":"Lag is explained by diffusion alone.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0244","hypothesis":"A rotating thermal pattern should reveal fluid relaxation time through a lagging concentration-wave response.","prediction":"A rotating thermal pattern should reveal fluid relaxation time through a lagging concentration-wave response.","test":"Use benign tracer mixtures.","contrary_outcome":"Lag is explained by diffusion alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0245","id":"S7-0245","volume":"900v7","title":"A suspended thermal baffle should reduce temperature stratification by oscillating under alternating buoyancy loads.","prediction":"A suspended thermal baffle should reduce temperature stratification by oscillating under alternating buoyancy loads.","test":"Measure motion and mixing.","contrary":"Oscillation strengthens stratification.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0245","hypothesis":"A suspended thermal baffle should reduce temperature stratification by oscillating under alternating buoyancy loads.","prediction":"A suspended thermal baffle should reduce temperature stratification by oscillating under alternating buoyancy loads.","test":"Measure motion and mixing.","contrary_outcome":"Oscillation strengthens stratification.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0246","id":"S7-0246","volume":"900v7","title":"A shallow cavity should maintain a stable central quiescent zone when heated along a moving perimeter.","prediction":"A shallow cavity should maintain a stable central quiescent zone when heated along a moving perimeter.","test":"Map velocities.","contrary":"The center remains strongly circulated.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0246","hypothesis":"A shallow cavity should maintain a stable central quiescent zone when heated along a moving perimeter.","prediction":"A shallow cavity should maintain a stable central quiescent zone when heated along a moving perimeter.","test":"Map velocities.","contrary_outcome":"The center remains strongly circulated.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0247","id":"S7-0247","volume":"900v7","title":"A porous thermal reservoir should reduce cooling overshoot by releasing stored liquid only after a local temperature minimum.","prediction":"A porous thermal reservoir should reduce cooling overshoot by releasing stored liquid only after a local temperature minimum.","test":"Measure release and temperature.","contrary":"Release occurs at the wrong phase.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0247","hypothesis":"A porous thermal reservoir should reduce cooling overshoot by releasing stored liquid only after a local temperature minimum.","prediction":"A porous thermal reservoir should reduce cooling overshoot by releasing stored liquid only after a local temperature minimum.","test":"Measure release and temperature.","contrary_outcome":"Release occurs at the wrong phase.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0248","id":"S7-0248","volume":"900v7","title":"A deformable thermal channel should route more flow toward a newly heated branch through density-induced wall motion.","prediction":"A deformable thermal channel should route more flow toward a newly heated branch through density-induced wall motion.","test":"Measure branch fluxes.","contrary":"Motion routes flow away from heating.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0248","hypothesis":"A deformable thermal channel should route more flow toward a newly heated branch through density-induced wall motion.","prediction":"A deformable thermal channel should route more flow toward a newly heated branch through density-induced wall motion.","test":"Measure branch fluxes.","contrary_outcome":"Motion routes flow away from heating.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0249","id":"S7-0249","volume":"900v7","title":"A floating heat spreader should distinguish local heating from ambient warming through differential tilt.","prediction":"A floating heat spreader should distinguish local heating from ambient warming through differential tilt.","test":"Apply calibrated thermal fields.","contrary":"Tilt responds equally to both.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0249","hypothesis":"A floating heat spreader should distinguish local heating from ambient warming through differential tilt.","prediction":"A floating heat spreader should distinguish local heating from ambient warming through differential tilt.","test":"Apply calibrated thermal fields.","contrary_outcome":"Tilt responds equally to both.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0250","id":"S7-0250","volume":"900v7","title":"A narrow convection cell should encode the direction of a previous heating sweep in its first restart plume.","prediction":"A narrow convection cell should encode the direction of a previous heating sweep in its first restart plume.","test":"Reverse sweep histories.","contrary":"Restart lacks directional memory.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0250","hypothesis":"A narrow convection cell should encode the direction of a previous heating sweep in its first restart plume.","prediction":"A narrow convection cell should encode the direction of a previous heating sweep in its first restart plume.","test":"Reverse sweep histories.","contrary_outcome":"Restart lacks directional memory.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0251","id":"S7-0251","volume":"900v7","title":"A flexible cold fin should detach accumulated ice through buoyancy-driven oscillation before flow blockage.","prediction":"A flexible cold fin should detach accumulated ice through buoyancy-driven oscillation before flow blockage.","test":"Image benign ice growth.","contrary":"Oscillation starts only after blockage.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0251","hypothesis":"A flexible cold fin should detach accumulated ice through buoyancy-driven oscillation before flow blockage.","prediction":"A flexible cold fin should detach accumulated ice through buoyancy-driven oscillation before flow blockage.","test":"Image benign ice growth.","contrary_outcome":"Oscillation starts only after blockage.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0252","id":"S7-0252","volume":"900v7","title":"A thermally coupled cavity chain should propagate a discrete temperature pulse without external switching.","prediction":"A thermally coupled cavity chain should propagate a discrete temperature pulse without external switching.","test":"Measure pulse travel.","contrary":"Heat spreads diffusively without a distinct pulse.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0252","hypothesis":"A thermally coupled cavity chain should propagate a discrete temperature pulse without external switching.","prediction":"A thermally coupled cavity chain should propagate a discrete temperature pulse without external switching.","test":"Measure pulse travel.","contrary_outcome":"Heat spreads diffusively without a distinct pulse.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0253","id":"S7-0253","volume":"900v7","title":"A porous surface should suppress thermal lensing in an adjacent liquid by distributing heat release over depth.","prediction":"A porous surface should suppress thermal lensing in an adjacent liquid by distributing heat release over depth.","test":"Measure optical distortion.","contrary":"Porosity adds stronger gradients.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0253","hypothesis":"A porous surface should suppress thermal lensing in an adjacent liquid by distributing heat release over depth.","prediction":"A porous surface should suppress thermal lensing in an adjacent liquid by distributing heat release over depth.","test":"Measure optical distortion.","contrary_outcome":"Porosity adds stronger gradients.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0254","id":"S7-0254","volume":"900v7","title":"A rotating insulated vane should measure convection anisotropy from its cycle-averaged torque.","prediction":"A rotating insulated vane should measure convection anisotropy from its cycle-averaged torque.","test":"Compare with flow maps.","contrary":"Torque is dominated by support drag.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0254","hypothesis":"A rotating insulated vane should measure convection anisotropy from its cycle-averaged torque.","prediction":"A rotating insulated vane should measure convection anisotropy from its cycle-averaged torque.","test":"Compare with flow maps.","contrary_outcome":"Torque is dominated by support drag.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0255","id":"S7-0255","volume":"900v7","title":"A movable hot boundary should reduce solute accumulation by periodically reversing the near-wall circulation.","prediction":"A movable hot boundary should reduce solute accumulation by periodically reversing the near-wall circulation.","test":"Map concentration.","contrary":"Reversal traps more solute.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0255","hypothesis":"A movable hot boundary should reduce solute accumulation by periodically reversing the near-wall circulation.","prediction":"A movable hot boundary should reduce solute accumulation by periodically reversing the near-wall circulation.","test":"Map concentration.","contrary_outcome":"Reversal traps more solute.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0256","id":"S7-0256","volume":"900v7","title":"A shallow thermal cavity should separate viscous from thermal diffusion effects through two independently driven boundary phases.","prediction":"A shallow thermal cavity should separate viscous from thermal diffusion effects through two independently driven boundary phases.","test":"Measure phase responses.","contrary":"Parameters remain inseparable.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0256","hypothesis":"A shallow thermal cavity should separate viscous from thermal diffusion effects through two independently driven boundary phases.","prediction":"A shallow thermal cavity should separate viscous from thermal diffusion effects through two independently driven boundary phases.","test":"Measure phase responses.","contrary_outcome":"Parameters remain inseparable.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0257","id":"S7-0257","volume":"900v7","title":"A flexible thermal screen should open preferentially beneath a rising plume and close in surrounding downflow.","prediction":"A flexible thermal screen should open preferentially beneath a rising plume and close in surrounding downflow.","test":"Image opening patterns.","contrary":"Openings are unrelated to plume locations.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0257","hypothesis":"A flexible thermal screen should open preferentially beneath a rising plume and close in surrounding downflow.","prediction":"A flexible thermal screen should open preferentially beneath a rising plume and close in surrounding downflow.","test":"Image opening patterns.","contrary_outcome":"Openings are unrelated to plume locations.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0258","id":"S7-0258","volume":"900v7","title":"A porous floating collector should harvest warm surface liquid while rejecting colder subsurface liquid through buoyancy-set depth.","prediction":"A porous floating collector should harvest warm surface liquid while rejecting colder subsurface liquid through buoyancy-set depth.","test":"Measure sampled temperature.","contrary":"Collector entrains both layers equally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0258","hypothesis":"A porous floating collector should harvest warm surface liquid while rejecting colder subsurface liquid through buoyancy-set depth.","prediction":"A porous floating collector should harvest warm surface liquid while rejecting colder subsurface liquid through buoyancy-set depth.","test":"Measure sampled temperature.","contrary_outcome":"Collector entrains both layers equally.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0259","id":"S7-0259","volume":"900v7","title":"A rotating heater should reduce temperature extremes in a stationary specimen without rotating the specimen itself.","prediction":"A rotating heater should reduce temperature extremes in a stationary specimen without rotating the specimen itself.","test":"Map temperature.","contrary":"Motion creates new hot bands.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0259","hypothesis":"A rotating heater should reduce temperature extremes in a stationary specimen without rotating the specimen itself.","prediction":"A rotating heater should reduce temperature extremes in a stationary specimen without rotating the specimen itself.","test":"Map temperature.","contrary_outcome":"Motion creates new hot bands.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0260","id":"S7-0260","volume":"900v7","title":"A suspended cold disk should stabilize a liquid interface through a restoring thermal-gradient force.","prediction":"A suspended cold disk should stabilize a liquid interface through a restoring thermal-gradient force.","test":"Measure perturbation recovery.","contrary":"Thermal force is destabilizing.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0260","hypothesis":"A suspended cold disk should stabilize a liquid interface through a restoring thermal-gradient force.","prediction":"A suspended cold disk should stabilize a liquid interface through a restoring thermal-gradient force.","test":"Measure perturbation recovery.","contrary_outcome":"Thermal force is destabilizing.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0261","id":"S7-0261","volume":"900v7","title":"A narrow thermal slot should reveal partial obstruction through a new oscillatory plume mode.","prediction":"A narrow thermal slot should reveal partial obstruction through a new oscillatory plume mode.","test":"Introduce known blockages.","contrary":"Mode is not obstruction-specific.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0261","hypothesis":"A narrow thermal slot should reveal partial obstruction through a new oscillatory plume mode.","prediction":"A narrow thermal slot should reveal partial obstruction through a new oscillatory plume mode.","test":"Introduce known blockages.","contrary_outcome":"Mode is not obstruction-specific.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0262","id":"S7-0262","volume":"900v7","title":"A flexible heat exchanger wall should increase mixing only when temperature difference is large.","prediction":"A flexible heat exchanger wall should increase mixing only when temperature difference is large.","test":"Measure mixing versus thermal gradient.","contrary":"Mixing changes are not gradient-selective.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0262","hypothesis":"A flexible heat exchanger wall should increase mixing only when temperature difference is large.","prediction":"A flexible heat exchanger wall should increase mixing only when temperature difference is large.","test":"Measure mixing versus thermal gradient.","contrary_outcome":"Mixing changes are not gradient-selective.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0263","id":"S7-0263","volume":"900v7","title":"A porous side reservoir should preserve thermal circulation during transient gas entry by storing displaced liquid.","prediction":"A porous side reservoir should preserve thermal circulation during transient gas entry by storing displaced liquid.","test":"Inject known bubbles.","contrary":"Circulation stops despite storage.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0263","hypothesis":"A porous side reservoir should preserve thermal circulation during transient gas entry by storing displaced liquid.","prediction":"A porous side reservoir should preserve thermal circulation during transient gas entry by storing displaced liquid.","test":"Inject known bubbles.","contrary_outcome":"Circulation stops despite storage.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0264","id":"S7-0264","volume":"900v7","title":"A rotating thermal reference should cancel directional radiant heating in an airflow calorimeter.","prediction":"A rotating thermal reference should cancel directional radiant heating in an airflow calorimeter.","test":"Apply known radiation.","contrary":"Rotation aliases radiation into the flow channel.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0264","hypothesis":"A rotating thermal reference should cancel directional radiant heating in an airflow calorimeter.","prediction":"A rotating thermal reference should cancel directional radiant heating in an airflow calorimeter.","test":"Apply known radiation.","contrary_outcome":"Rotation aliases radiation into the flow channel.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0265","id":"S7-0265","volume":"900v7","title":"A movable insulating wedge should locate the dominant heat-leak path by settling against it.","prediction":"A movable insulating wedge should locate the dominant heat-leak path by settling against it.","test":"Measure equilibrium and flux maps.","contrary":"Position reflects gravity alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0265","hypothesis":"A movable insulating wedge should locate the dominant heat-leak path by settling against it.","prediction":"A movable insulating wedge should locate the dominant heat-leak path by settling against it.","test":"Measure equilibrium and flux maps.","contrary_outcome":"Position reflects gravity alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0266","id":"S7-0266","volume":"900v7","title":"A shallow heated film should form a stable traveling ridge when its substrate deformation lags temperature.","prediction":"A shallow heated film should form a stable traveling ridge when its substrate deformation lags temperature.","test":"Measure ridge speed and phase.","contrary":"Ridges remain stationary or decay.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0266","hypothesis":"A shallow heated film should form a stable traveling ridge when its substrate deformation lags temperature.","prediction":"A shallow heated film should form a stable traveling ridge when its substrate deformation lags temperature.","test":"Measure ridge speed and phase.","contrary_outcome":"Ridges remain stationary or decay.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0267","id":"S7-0267","volume":"900v7","title":"A porous cooling boundary should distinguish dryout from reduced airflow through separate plume and temperature signatures.","prediction":"A porous cooling boundary should distinguish dryout from reduced airflow through separate plume and temperature signatures.","test":"Apply both faults.","contrary":"Signatures overlap.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0267","hypothesis":"A porous cooling boundary should distinguish dryout from reduced airflow through separate plume and temperature signatures.","prediction":"A porous cooling boundary should distinguish dryout from reduced airflow through separate plume and temperature signatures.","test":"Apply both faults.","contrary_outcome":"Signatures overlap.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0268","id":"S7-0268","volume":"900v7","title":"A flexible thermal reservoir should reduce cyclic stress by shifting its phase-change-free liquid volume between compartments.","prediction":"A flexible thermal reservoir should reduce cyclic stress by shifting its phase-change-free liquid volume between compartments.","test":"Measure stress cycles.","contrary":"Redistribution adds pressure stress.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0268","hypothesis":"A flexible thermal reservoir should reduce cyclic stress by shifting its phase-change-free liquid volume between compartments.","prediction":"A flexible thermal reservoir should reduce cyclic stress by shifting its phase-change-free liquid volume between compartments.","test":"Measure stress cycles.","contrary_outcome":"Redistribution adds pressure stress.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0269","id":"S7-0269","volume":"900v7","title":"A rotating cold boundary should suppress one convection mode while preserving overall heat transfer.","prediction":"A rotating cold boundary should suppress one convection mode while preserving overall heat transfer.","test":"Measure modal energy and flux.","contrary":"Suppression reduces flux proportionally.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0269","hypothesis":"A rotating cold boundary should suppress one convection mode while preserving overall heat transfer.","prediction":"A rotating cold boundary should suppress one convection mode while preserving overall heat transfer.","test":"Measure modal energy and flux.","contrary_outcome":"Suppression reduces flux proportionally.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0270","id":"S7-0270","volume":"900v7","title":"A suspended thermal indicator should respond to heat-flow direction rather than absolute temperature through differential expansion around a loop.","prediction":"A suspended thermal indicator should respond to heat-flow direction rather than absolute temperature through differential expansion around a loop.","test":"Reverse heat flow at fixed mean temperature.","contrary":"Output follows mean temperature.","layers":[1],"categories":["physical","energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0270","hypothesis":"A suspended thermal indicator should respond to heat-flow direction rather than absolute temperature through differential expansion around a loop.","prediction":"A suspended thermal indicator should respond to heat-flow direction rather than absolute temperature through differential expansion around a loop.","test":"Reverse heat flow at fixed mean temperature.","contrary_outcome":"Output follows mean temperature.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0271","id":"S7-0271","volume":"900v7","title":"A narrow thermal cavity should reveal wall roughness through changes in plume-spacing statistics at fixed heating.","prediction":"A narrow thermal cavity should reveal wall roughness through changes in plume-spacing statistics at fixed heating.","test":"Test calibrated roughness.","contrary":"Spacing is insensitive to roughness.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0271","hypothesis":"A narrow thermal cavity should reveal wall roughness through changes in plume-spacing statistics at fixed heating.","prediction":"A narrow thermal cavity should reveal wall roughness through changes in plume-spacing statistics at fixed heating.","test":"Test calibrated roughness.","contrary_outcome":"Spacing is insensitive to roughness.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0272","id":"S7-0272","volume":"900v7","title":"A porous heater should lower the frequency of large thermal eruptions by distributing liquid supply.","prediction":"A porous heater should lower the frequency of large thermal eruptions by distributing liquid supply.","test":"Measure temperature bursts.","contrary":"Eruptions become more frequent.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0272","hypothesis":"A porous heater should lower the frequency of large thermal eruptions by distributing liquid supply.","prediction":"A porous heater should lower the frequency of large thermal eruptions by distributing liquid supply.","test":"Measure temperature bursts.","contrary_outcome":"Eruptions become more frequent.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0273","id":"S7-0273","volume":"900v7","title":"A movable floating barrier should prevent thermal surface currents from carrying debris across a measurement region.","prediction":"A movable floating barrier should prevent thermal surface currents from carrying debris across a measurement region.","test":"Track inert particles.","contrary":"Debris bypasses beneath or around the barrier.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0273","hypothesis":"A movable floating barrier should prevent thermal surface currents from carrying debris across a measurement region.","prediction":"A movable floating barrier should prevent thermal surface currents from carrying debris across a measurement region.","test":"Track inert particles.","contrary_outcome":"Debris bypasses beneath or around the barrier.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0274","id":"S7-0274","volume":"900v7","title":"A flexible cold roof should reduce condensation drop impact by bending downward before detachment.","prediction":"A flexible cold roof should reduce condensation drop impact by bending downward before detachment.","test":"Measure impact force.","contrary":"Motion accelerates drops.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0274","hypothesis":"A flexible cold roof should reduce condensation drop impact by bending downward before detachment.","prediction":"A flexible cold roof should reduce condensation drop impact by bending downward before detachment.","test":"Measure impact force.","contrary_outcome":"Motion accelerates drops.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0275","id":"S7-0275","volume":"900v7","title":"A rotating heat source should distinguish thermal contact resistance from specimen diffusivity through direction-reversal transients.","prediction":"A rotating heat source should distinguish thermal contact resistance from specimen diffusivity through direction-reversal transients.","test":"Test standards.","contrary":"Responses remain confounded.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0275","hypothesis":"A rotating heat source should distinguish thermal contact resistance from specimen diffusivity through direction-reversal transients.","prediction":"A rotating heat source should distinguish thermal contact resistance from specimen diffusivity through direction-reversal transients.","test":"Test standards.","contrary_outcome":"Responses remain confounded.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0276","id":"S7-0276","volume":"900v7","title":"A shallow convection cell should preserve a stable flow orientation after one boundary is briefly removed.","prediction":"A shallow convection cell should preserve a stable flow orientation after one boundary is briefly removed.","test":"Measure recovery.","contrary":"Orientation resets randomly.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0276","hypothesis":"A shallow convection cell should preserve a stable flow orientation after one boundary is briefly removed.","prediction":"A shallow convection cell should preserve a stable flow orientation after one boundary is briefly removed.","test":"Measure recovery.","contrary_outcome":"Orientation resets randomly.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0277","id":"S7-0277","volume":"900v7","title":"A porous thermal shield should reduce heating of a nearby sensor by separating radiative and convective paths geometrically.","prediction":"A porous thermal shield should reduce heating of a nearby sensor by separating radiative and convective paths geometrically.","test":"Measure both transfer channels.","contrary":"One channel bypasses the shield.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0277","hypothesis":"A porous thermal shield should reduce heating of a nearby sensor by separating radiative and convective paths geometrically.","prediction":"A porous thermal shield should reduce heating of a nearby sensor by separating radiative and convective paths geometrically.","test":"Measure both transfer channels.","contrary_outcome":"One channel bypasses the shield.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0278","id":"S7-0278","volume":"900v7","title":"A suspended baffle should oscillate only when plume intermittency exceeds a threshold.","prediction":"A suspended baffle should oscillate only when plume intermittency exceeds a threshold.","test":"Apply controlled heating fluctuations.","contrary":"Steady flow also drives oscillation.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0278","hypothesis":"A suspended baffle should oscillate only when plume intermittency exceeds a threshold.","prediction":"A suspended baffle should oscillate only when plume intermittency exceeds a threshold.","test":"Apply controlled heating fluctuations.","contrary_outcome":"Steady flow also drives oscillation.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0279","id":"S7-0279","volume":"900v7","title":"A flexible thermal conduit should maintain circulation during bending by shifting its hottest segment upward.","prediction":"A flexible thermal conduit should maintain circulation during bending by shifting its hottest segment upward.","test":"Measure flow and geometry.","contrary":"Bending interrupts circulation.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0279","hypothesis":"A flexible thermal conduit should maintain circulation during bending by shifting its hottest segment upward.","prediction":"A flexible thermal conduit should maintain circulation during bending by shifting its hottest segment upward.","test":"Measure flow and geometry.","contrary_outcome":"Bending interrupts circulation.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0280","id":"S7-0280","volume":"900v7","title":"A rotating cold ring should reduce ice bridging by moving the local freezing front around the circumference.","prediction":"A rotating cold ring should reduce ice bridging by moving the local freezing front around the circumference.","test":"Image benign freezing.","contrary":"A continuous bridge still forms.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0280","hypothesis":"A rotating cold ring should reduce ice bridging by moving the local freezing front around the circumference.","prediction":"A rotating cold ring should reduce ice bridging by moving the local freezing front around the circumference.","test":"Image benign freezing.","contrary_outcome":"A continuous bridge still forms.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0281","id":"S7-0281","volume":"900v7","title":"A narrow thermal channel should estimate fluid expansion coefficient from transient hydrostatic pressure before circulation develops.","prediction":"A narrow thermal channel should estimate fluid expansion coefficient from transient hydrostatic pressure before circulation develops.","test":"Test known liquids.","contrary":"Wall expansion dominates the signal.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0281","hypothesis":"A narrow thermal channel should estimate fluid expansion coefficient from transient hydrostatic pressure before circulation develops.","prediction":"A narrow thermal channel should estimate fluid expansion coefficient from transient hydrostatic pressure before circulation develops.","test":"Test known liquids.","contrary_outcome":"Wall expansion dominates the signal.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0282","id":"S7-0282","volume":"900v7","title":"A porous floating blanket should retain cooling after one region dries by lateral liquid redistribution.","prediction":"A porous floating blanket should retain cooling after one region dries by lateral liquid redistribution.","test":"Map temperatures.","contrary":"Dry region remains hot.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0282","hypothesis":"A porous floating blanket should retain cooling after one region dries by lateral liquid redistribution.","prediction":"A porous floating blanket should retain cooling after one region dries by lateral liquid redistribution.","test":"Map temperatures.","contrary_outcome":"Dry region remains hot.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0283","id":"S7-0283","volume":"900v7","title":"A movable thermal shunt should protect a cold region from unintended warming by opening at a differential threshold.","prediction":"A movable thermal shunt should protect a cold region from unintended warming by opening at a differential threshold.","test":"Measure heat leakage.","contrary":"It responds to absolute temperature instead.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0283","hypothesis":"A movable thermal shunt should protect a cold region from unintended warming by opening at a differential threshold.","prediction":"A movable thermal shunt should protect a cold region from unintended warming by opening at a differential threshold.","test":"Measure heat leakage.","contrary_outcome":"It responds to absolute temperature instead.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0284","id":"S7-0284","volume":"900v7","title":"A shallow heated cavity should reduce particle deposition when the heater moves slowly relative to particle settling.","prediction":"A shallow heated cavity should reduce particle deposition when the heater moves slowly relative to particle settling.","test":"Count inert deposits.","contrary":"Moving heating increases deposition.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0284","hypothesis":"A shallow heated cavity should reduce particle deposition when the heater moves slowly relative to particle settling.","prediction":"A shallow heated cavity should reduce particle deposition when the heater moves slowly relative to particle settling.","test":"Count inert deposits.","contrary_outcome":"Moving heating increases deposition.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0285","id":"S7-0285","volume":"900v7","title":"A flexible thermal membrane should reveal a buried heater's position through asymmetric relaxation after shutdown.","prediction":"A flexible thermal membrane should reveal a buried heater's position through asymmetric relaxation after shutdown.","test":"Move calibrated heaters.","contrary":"Thermal diffusion prevents localization.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0285","hypothesis":"A flexible thermal membrane should reveal a buried heater's position through asymmetric relaxation after shutdown.","prediction":"A flexible thermal membrane should reveal a buried heater's position through asymmetric relaxation after shutdown.","test":"Move calibrated heaters.","contrary_outcome":"Thermal diffusion prevents localization.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0286","id":"S7-0286","volume":"900v7","title":"A rotating convection vane should convert plume intermittency into a readable distribution of angular pauses.","prediction":"A rotating convection vane should convert plume intermittency into a readable distribution of angular pauses.","test":"Compare with flow records.","contrary":"Pauses reflect bearing stiction.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0286","hypothesis":"A rotating convection vane should convert plume intermittency into a readable distribution of angular pauses.","prediction":"A rotating convection vane should convert plume intermittency into a readable distribution of angular pauses.","test":"Compare with flow records.","contrary_outcome":"Pauses reflect bearing stiction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0287","id":"S7-0287","volume":"900v7","title":"A porous wall should suppress a temperature-induced pressure pulse by temporarily admitting liquid into reserve pores.","prediction":"A porous wall should suppress a temperature-induced pressure pulse by temporarily admitting liquid into reserve pores.","test":"Measure pressure.","contrary":"Pore entry occurs too slowly.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0287","hypothesis":"A porous wall should suppress a temperature-induced pressure pulse by temporarily admitting liquid into reserve pores.","prediction":"A porous wall should suppress a temperature-induced pressure pulse by temporarily admitting liquid into reserve pores.","test":"Measure pressure.","contrary_outcome":"Pore entry occurs too slowly.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0288","id":"S7-0288","volume":"900v7","title":"A suspended heat spreader should retain a fixed gap above an expanding hot surface through differential geometry.","prediction":"A suspended heat spreader should retain a fixed gap above an expanding hot surface through differential geometry.","test":"Measure clearance.","contrary":"Gap changes strongly.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0288","hypothesis":"A suspended heat spreader should retain a fixed gap above an expanding hot surface through differential geometry.","prediction":"A suspended heat spreader should retain a fixed gap above an expanding hot surface through differential geometry.","test":"Measure clearance.","contrary_outcome":"Gap changes strongly.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0289","id":"S7-0289","volume":"900v7","title":"A narrow thermal loop should reverse circulation after a prescribed heating-order sequence.","prediction":"A narrow thermal loop should reverse circulation after a prescribed heating-order sequence.","test":"Apply reversed sequences.","contrary":"Final direction is sequence-independent.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0289","hypothesis":"A narrow thermal loop should reverse circulation after a prescribed heating-order sequence.","prediction":"A narrow thermal loop should reverse circulation after a prescribed heating-order sequence.","test":"Apply reversed sequences.","contrary_outcome":"Final direction is sequence-independent.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0290","id":"S7-0290","volume":"900v7","title":"A flexible cold finger should warn of ice loading through a frequency shift before its drainage path closes.","prediction":"A flexible cold finger should warn of ice loading through a frequency shift before its drainage path closes.","test":"Measure mode and blockage.","contrary":"Warning comes after closure.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0290","hypothesis":"A flexible cold finger should warn of ice loading through a frequency shift before its drainage path closes.","prediction":"A flexible cold finger should warn of ice loading through a frequency shift before its drainage path closes.","test":"Measure mode and blockage.","contrary_outcome":"Warning comes after closure.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0291","id":"S7-0291","volume":"900v7","title":"A rotating thermal field should align inert anisotropic particles through differential buoyant flow without net bulk rotation.","prediction":"A rotating thermal field should align inert anisotropic particles through differential buoyant flow without net bulk rotation.","test":"Track particles and fluid.","contrary":"Alignment requires bulk rotation.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0291","hypothesis":"A rotating thermal field should align inert anisotropic particles through differential buoyant flow without net bulk rotation.","prediction":"A rotating thermal field should align inert anisotropic particles through differential buoyant flow without net bulk rotation.","test":"Track particles and fluid.","contrary_outcome":"Alignment requires bulk rotation.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0292","id":"S7-0292","volume":"900v7","title":"A porous thermal spacer should reduce local pressure buildup during rapid benign-liquid warming.","prediction":"A porous thermal spacer should reduce local pressure buildup during rapid benign-liquid warming.","test":"Measure pressure and temperature.","contrary":"Storage capacity is insufficient.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0292","hypothesis":"A porous thermal spacer should reduce local pressure buildup during rapid benign-liquid warming.","prediction":"A porous thermal spacer should reduce local pressure buildup during rapid benign-liquid warming.","test":"Measure pressure and temperature.","contrary_outcome":"Storage capacity is insufficient.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0293","id":"S7-0293","volume":"900v7","title":"A movable insulating partition should reduce heat-transfer variability caused by changing fill level.","prediction":"A movable insulating partition should reduce heat-transfer variability caused by changing fill level.","test":"Measure flux across levels.","contrary":"Partition motion adds variability.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0293","hypothesis":"A movable insulating partition should reduce heat-transfer variability caused by changing fill level.","prediction":"A movable insulating partition should reduce heat-transfer variability caused by changing fill level.","test":"Measure flux across levels.","contrary_outcome":"Partition motion adds variability.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0294","id":"S7-0294","volume":"900v7","title":"A shallow liquid cavity should distinguish top heating from bottom cooling at equal mean gradient through transient vorticity sign.","prediction":"A shallow liquid cavity should distinguish top heating from bottom cooling at equal mean gradient through transient vorticity sign.","test":"Measure flow onset.","contrary":"Vorticity signatures remain identical.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0294","hypothesis":"A shallow liquid cavity should distinguish top heating from bottom cooling at equal mean gradient through transient vorticity sign.","prediction":"A shallow liquid cavity should distinguish top heating from bottom cooling at equal mean gradient through transient vorticity sign.","test":"Measure flow onset.","contrary_outcome":"Vorticity signatures remain identical.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0295","id":"S7-0295","volume":"900v7","title":"A flexible heater support should distribute power more evenly by changing contact area at hot spots.","prediction":"A flexible heater support should distribute power more evenly by changing contact area at hot spots.","test":"Map temperature and contact.","contrary":"Area change reinforces hot spots.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0295","hypothesis":"A flexible heater support should distribute power more evenly by changing contact area at hot spots.","prediction":"A flexible heater support should distribute power more evenly by changing contact area at hot spots.","test":"Map temperature and contact.","contrary_outcome":"Area change reinforces hot spots.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0296","id":"S7-0296","volume":"900v7","title":"A rotating cold surface should collect condensate in separated tracks that preserve arrival order.","prediction":"A rotating cold surface should collect condensate in separated tracks that preserve arrival order.","test":"Dose labeled benign droplets.","contrary":"Tracks mix and erase order.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0296","hypothesis":"A rotating cold surface should collect condensate in separated tracks that preserve arrival order.","prediction":"A rotating cold surface should collect condensate in separated tracks that preserve arrival order.","test":"Dose labeled benign droplets.","contrary_outcome":"Tracks mix and erase order.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0297","id":"S7-0297","volume":"900v7","title":"A porous thermal damper should attenuate temperature pulses while preserving slow gradients across a structure.","prediction":"A porous thermal damper should attenuate temperature pulses while preserving slow gradients across a structure.","test":"Measure transfer versus frequency.","contrary":"Pulse suppression erases slow gradients equally.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0297","hypothesis":"A porous thermal damper should attenuate temperature pulses while preserving slow gradients across a structure.","prediction":"A porous thermal damper should attenuate temperature pulses while preserving slow gradients across a structure.","test":"Measure transfer versus frequency.","contrary_outcome":"Pulse suppression erases slow gradients equally.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0298","id":"S7-0298","volume":"900v7","title":"A suspended thermal gate should remain open during steady heat flow but close after a rapid reversal.","prediction":"A suspended thermal gate should remain open during steady heat flow but close after a rapid reversal.","test":"Apply controlled histories.","contrary":"Reversal is not selectively detected.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0298","hypothesis":"A suspended thermal gate should remain open during steady heat flow but close after a rapid reversal.","prediction":"A suspended thermal gate should remain open during steady heat flow but close after a rapid reversal.","test":"Apply controlled histories.","contrary_outcome":"Reversal is not selectively detected.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0299","id":"S7-0299","volume":"900v7","title":"A narrow convection channel should reveal dissolved-gas release through a shifted onset of flow oscillation.","prediction":"A narrow convection channel should reveal dissolved-gas release through a shifted onset of flow oscillation.","test":"Control gas content.","contrary":"Oscillation onset is unrelated to gas release.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0299","hypothesis":"A narrow convection channel should reveal dissolved-gas release through a shifted onset of flow oscillation.","prediction":"A narrow convection channel should reveal dissolved-gas release through a shifted onset of flow oscillation.","test":"Control gas content.","contrary_outcome":"Oscillation onset is unrelated to gas release.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0300","id":"S7-0300","volume":"900v7","title":"A flexible thermal interface should recover its original conductance after repeated local boiling-free drying.","prediction":"A flexible thermal interface should recover its original conductance after repeated local boiling-free drying.","test":"Measure conductance cycles.","contrary":"Drying leaves permanent changes.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0300","hypothesis":"A flexible thermal interface should recover its original conductance after repeated local boiling-free drying.","prediction":"A flexible thermal interface should recover its original conductance after repeated local boiling-free drying.","test":"Measure conductance cycles.","contrary_outcome":"Drying leaves permanent changes.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0301","id":"S7-0301","volume":"900v7","title":"An offset pair of water-level floats should distinguish platform tilt from true reservoir volume change.","prediction":"An offset pair of water-level floats should distinguish platform tilt from true reservoir volume change.","test":"Calibrate independent tilt and volume changes; validate concealed combinations.","contrary":"Both changes remain inseparable after pairing.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0301","hypothesis":"An offset pair of water-level floats should distinguish platform tilt from true reservoir volume change.","prediction":"An offset pair of water-level floats should distinguish platform tilt from true reservoir volume change.","test":"Calibrate independent tilt and volume changes; validate concealed combinations.","contrary_outcome":"Both changes remain inseparable after pairing.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0301","hypothesis":"An offset pair of water-level floats should distinguish platform tilt from true reservoir volume change.","prediction":"An offset pair of water-level floats should distinguish platform tilt from true reservoir volume change.","test":"Calibrate independent tilt and volume changes; validate concealed combinations.","contrary_outcome":"Both changes remain inseparable after pairing.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0302","id":"S7-0302","volume":"900v7","title":"A perforated weighing pan should reduce evaporation-induced balance drift more than a solid pan at matched sample temperature.","prediction":"A perforated weighing pan should reduce evaporation-induced balance drift more than a solid pan at matched sample temperature.","test":"Measure benign water loss and force drift with independently collected vapor.","contrary":"Drift follows water loss identically in both pans.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0302","hypothesis":"A perforated weighing pan should reduce evaporation-induced balance drift more than a solid pan at matched sample temperature.","prediction":"A perforated weighing pan should reduce evaporation-induced balance drift more than a solid pan at matched sample temperature.","test":"Measure benign water loss and force drift with independently collected vapor.","contrary_outcome":"Drift follows water loss identically in both pans.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0302","hypothesis":"A perforated weighing pan should reduce evaporation-induced balance drift more than a solid pan at matched sample temperature.","prediction":"A perforated weighing pan should reduce evaporation-induced balance drift more than a solid pan at matched sample temperature.","test":"Measure benign water loss and force drift with independently collected vapor.","contrary_outcome":"Drift follows water loss identically in both pans.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0303","id":"S7-0303","volume":"900v7","title":"Alternating two capillary pressure taps should reveal a partially blocked tap before either gives a visibly unstable signal.","prediction":"Alternating two capillary pressure taps should reveal a partially blocked tap before either gives a visibly unstable signal.","test":"Introduce concealed benign blockages and compare switching transients with independent pressure.","contrary":"Switching adds no diagnostic value beyond static readings.","layers":[1,2,3],"categories":["physical"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0303","hypothesis":"Alternating two capillary pressure taps should reveal a partially blocked tap before either gives a visibly unstable signal.","prediction":"Alternating two capillary pressure taps should reveal a partially blocked tap before either gives a visibly unstable signal.","test":"Introduce concealed benign blockages and compare switching transients with independent pressure.","contrary_outcome":"Switching adds no diagnostic value beyond static readings.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0303","hypothesis":"Alternating two capillary pressure taps should reveal a partially blocked tap before either gives a visibly unstable signal.","prediction":"Alternating two capillary pressure taps should reveal a partially blocked tap before either gives a visibly unstable signal.","test":"Introduce concealed benign blockages and compare switching transients with independent pressure.","contrary_outcome":"Switching adds no diagnostic value beyond static readings.","status":"speculative; unproved","novelty":"unverified"},"dossier":{"id":"S7-0303","hypothesis":"Alternating two capillary pressure taps should reveal a partially blocked tap before either gives a visibly unstable signal.","prediction":"Alternating two capillary pressure taps should reveal a partially blocked tap before either gives a visibly unstable signal.","test":"Introduce concealed benign blockages and compare switching transients with independent pressure.","contrary_outcome":"Switching adds no diagnostic value beyond static readings.","status":"speculative; unproved","novelty":"unverified"},"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0304","id":"S7-0304","volume":"900v7","title":"A rotating reference target should separate camera thermal drift from real slow deformation in a fixed specimen.","prediction":"A rotating reference target should separate camera thermal drift from real slow deformation in a fixed specimen.","test":"Track a benign creeping strip and rigid target through controlled room-temperature changes.","contrary":"Corrected deformation remains confounded by camera drift.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0304","hypothesis":"A rotating reference target should separate camera thermal drift from real slow deformation in a fixed specimen.","prediction":"A rotating reference target should separate camera thermal drift from real slow deformation in a fixed specimen.","test":"Track a benign creeping strip and rigid target through controlled room-temperature changes.","contrary_outcome":"Corrected deformation remains confounded by camera drift.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0304","hypothesis":"A rotating reference target should separate camera thermal drift from real slow deformation in a fixed specimen.","prediction":"A rotating reference target should separate camera thermal drift from real slow deformation in a fixed specimen.","test":"Track a benign creeping strip and rigid target through controlled room-temperature changes.","contrary_outcome":"Corrected deformation remains confounded by camera drift.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0305","id":"S7-0305","volume":"900v7","title":"A compliant force probe should underestimate intermittent contact more strongly than continuous contact at equal time-averaged load.","prediction":"A compliant force probe should underestimate intermittent contact more strongly than continuous contact at equal time-averaged load.","test":"Compare probe output with a calibrated high-bandwidth reference across duty cycles.","contrary":"Error depends only on mean load.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0305","hypothesis":"A compliant force probe should underestimate intermittent contact more strongly than continuous contact at equal time-averaged load.","prediction":"A compliant force probe should underestimate intermittent contact more strongly than continuous contact at equal time-averaged load.","test":"Compare probe output with a calibrated high-bandwidth reference across duty cycles.","contrary_outcome":"Error depends only on mean load.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0305","hypothesis":"A compliant force probe should underestimate intermittent contact more strongly than continuous contact at equal time-averaged load.","prediction":"A compliant force probe should underestimate intermittent contact more strongly than continuous contact at equal time-averaged load.","test":"Compare probe output with a calibrated high-bandwidth reference across duty cycles.","contrary_outcome":"Error depends only on mean load.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0306","id":"S7-0306","volume":"900v7","title":"Two synchronized thermistors at different immersion depths should identify stem-conduction bias during water-temperature ramps.","prediction":"Two synchronized thermistors at different immersion depths should identify stem-conduction bias during water-temperature ramps.","test":"Compare calibrated water temperatures, depths, and ramp directions.","contrary":"Depth differences reflect genuine water gradients alone.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0306","hypothesis":"Two synchronized thermistors at different immersion depths should identify stem-conduction bias during water-temperature ramps.","prediction":"Two synchronized thermistors at different immersion depths should identify stem-conduction bias during water-temperature ramps.","test":"Compare calibrated water temperatures, depths, and ramp directions.","contrary_outcome":"Depth differences reflect genuine water gradients alone.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0306","hypothesis":"Two synchronized thermistors at different immersion depths should identify stem-conduction bias during water-temperature ramps.","prediction":"Two synchronized thermistors at different immersion depths should identify stem-conduction bias during water-temperature ramps.","test":"Compare calibrated water temperatures, depths, and ramp directions.","contrary_outcome":"Depth differences reflect genuine water gradients alone.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0307","id":"S7-0307","volume":"900v7","title":"A short reversal of a syringe pump should reveal trapped tubing compliance independently of steady hydraulic resistance.","prediction":"A short reversal of a syringe pump should reveal trapped tubing compliance independently of steady hydraulic resistance.","test":"Measure pressure-flow transients with known added compliance and fixed resistance.","contrary":"The parameters remain inseparable in held-out tests.","layers":[1,2,3],"categories":["physical","anomalies","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0307","hypothesis":"A short reversal of a syringe pump should reveal trapped tubing compliance independently of steady hydraulic resistance.","prediction":"A short reversal of a syringe pump should reveal trapped tubing compliance independently of steady hydraulic resistance.","test":"Measure pressure-flow transients with known added compliance and fixed resistance.","contrary_outcome":"The parameters remain inseparable in held-out tests.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0307","hypothesis":"A short reversal of a syringe pump should reveal trapped tubing compliance independently of steady hydraulic resistance.","prediction":"A short reversal of a syringe pump should reveal trapped tubing compliance independently of steady hydraulic resistance.","test":"Measure pressure-flow transients with known added compliance and fixed resistance.","contrary_outcome":"The parameters remain inseparable in held-out tests.","status":"speculative; unproved","novelty":"unverified"},"dossier":{"id":"S7-0307","hypothesis":"A short reversal of a syringe pump should reveal trapped tubing compliance independently of steady hydraulic resistance.","prediction":"A short reversal of a syringe pump should reveal trapped tubing compliance independently of steady hydraulic resistance.","test":"Measure pressure-flow transients with known added compliance and fixed resistance.","contrary_outcome":"The parameters remain inseparable in held-out tests.","status":"speculative; unproved","novelty":"unverified"},"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0308","id":"S7-0308","volume":"900v7","title":"The apparent settling velocity of a bead should vary with observation-window height when wall-induced rotation is unresolved.","prediction":"The apparent settling velocity of a bead should vary with observation-window height when wall-induced rotation is unresolved.","test":"Track full trajectories and compare short-window estimates at several depths.","contrary":"Window position has no effect after local speed matching.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0308","hypothesis":"The apparent settling velocity of a bead should vary with observation-window height when wall-induced rotation is unresolved.","prediction":"The apparent settling velocity of a bead should vary with observation-window height when wall-induced rotation is unresolved.","test":"Track full trajectories and compare short-window estimates at several depths.","contrary_outcome":"Window position has no effect after local speed matching.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0308","hypothesis":"The apparent settling velocity of a bead should vary with observation-window height when wall-induced rotation is unresolved.","prediction":"The apparent settling velocity of a bead should vary with observation-window height when wall-induced rotation is unresolved.","test":"Track full trajectories and compare short-window estimates at several depths.","contrary_outcome":"Window position has no effect after local speed matching.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0309","id":"S7-0309","volume":"900v7","title":"A repeated reference image should detect changing optical refraction in a warming water cell before tracer velocity estimates drift.","prediction":"A repeated reference image should detect changing optical refraction in a warming water cell before tracer velocity estimates drift.","test":"Compare static-grid distortion with independently imposed water motions.","contrary":"Reference changes fail to predict velocity bias.","layers":[1,2],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0309","hypothesis":"A repeated reference image should detect changing optical refraction in a warming water cell before tracer velocity estimates drift.","prediction":"A repeated reference image should detect changing optical refraction in a warming water cell before tracer velocity estimates drift.","test":"Compare static-grid distortion with independently imposed water motions.","contrary_outcome":"Reference changes fail to predict velocity bias.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0309","hypothesis":"A repeated reference image should detect changing optical refraction in a warming water cell before tracer velocity estimates drift.","prediction":"A repeated reference image should detect changing optical refraction in a warming water cell before tracer velocity estimates drift.","test":"Compare static-grid distortion with independently imposed water motions.","contrary_outcome":"Reference changes fail to predict velocity bias.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0310","id":"S7-0310","volume":"900v7","title":"A floating evaporation cover should bias a surface-tension measurement through lateral contact forces even at unchanged water chemistry.","prediction":"A floating evaporation cover should bias a surface-tension measurement through lateral contact forces even at unchanged water chemistry.","test":"Measure force with varied cover clearance and independent surface-tension references.","contrary":"Force is independent of cover position.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0310","hypothesis":"A floating evaporation cover should bias a surface-tension measurement through lateral contact forces even at unchanged water chemistry.","prediction":"A floating evaporation cover should bias a surface-tension measurement through lateral contact forces even at unchanged water chemistry.","test":"Measure force with varied cover clearance and independent surface-tension references.","contrary_outcome":"Force is independent of cover position.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0310","hypothesis":"A floating evaporation cover should bias a surface-tension measurement through lateral contact forces even at unchanged water chemistry.","prediction":"A floating evaporation cover should bias a surface-tension measurement through lateral contact forces even at unchanged water chemistry.","test":"Measure force with varied cover clearance and independent surface-tension references.","contrary_outcome":"Force is independent of cover position.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0311","id":"S7-0311","volume":"900v7","title":"A narrow pressure line should retain a signature of its previous wetting direction after returning to the same fill volume.","prediction":"A narrow pressure line should retain a signature of its previous wetting direction after returning to the same fill volume.","test":"Cycle benign water fills while measuring step-response delay and meniscus distribution.","contrary":"Response depends only on total fill volume.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0311","hypothesis":"A narrow pressure line should retain a signature of its previous wetting direction after returning to the same fill volume.","prediction":"A narrow pressure line should retain a signature of its previous wetting direction after returning to the same fill volume.","test":"Cycle benign water fills while measuring step-response delay and meniscus distribution.","contrary_outcome":"Response depends only on total fill volume.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0311","hypothesis":"A narrow pressure line should retain a signature of its previous wetting direction after returning to the same fill volume.","prediction":"A narrow pressure line should retain a signature of its previous wetting direction after returning to the same fill volume.","test":"Cycle benign water fills while measuring step-response delay and meniscus distribution.","contrary_outcome":"Response depends only on total fill volume.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0312","id":"S7-0312","volume":"900v7","title":"A flexible displacement marker should report a delayed strain maximum relative to the substrate under rapid unloading.","prediction":"A flexible displacement marker should report a delayed strain maximum relative to the substrate under rapid unloading.","test":"Compare marker motion with noncontact substrate measurements across marker stiffnesses.","contrary":"Marker and substrate peaks coincide within uncertainty.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0312","hypothesis":"A flexible displacement marker should report a delayed strain maximum relative to the substrate under rapid unloading.","prediction":"A flexible displacement marker should report a delayed strain maximum relative to the substrate under rapid unloading.","test":"Compare marker motion with noncontact substrate measurements across marker stiffnesses.","contrary_outcome":"Marker and substrate peaks coincide within uncertainty.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0312","hypothesis":"A flexible displacement marker should report a delayed strain maximum relative to the substrate under rapid unloading.","prediction":"A flexible displacement marker should report a delayed strain maximum relative to the substrate under rapid unloading.","test":"Compare marker motion with noncontact substrate measurements across marker stiffnesses.","contrary_outcome":"Marker and substrate peaks coincide within uncertainty.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0313","id":"S7-0313","volume":"900v7","title":"A porous sampling plug should enrich larger suspended particles transiently when its flow first restarts.","prediction":"A porous sampling plug should enrich larger suspended particles transiently when its flow first restarts.","test":"Measure inert-particle sizes in timed fractions against upstream composition.","contrary":"Restart fractions match upstream composition.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0313","hypothesis":"A porous sampling plug should enrich larger suspended particles transiently when its flow first restarts.","prediction":"A porous sampling plug should enrich larger suspended particles transiently when its flow first restarts.","test":"Measure inert-particle sizes in timed fractions against upstream composition.","contrary_outcome":"Restart fractions match upstream composition.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0313","hypothesis":"A porous sampling plug should enrich larger suspended particles transiently when its flow first restarts.","prediction":"A porous sampling plug should enrich larger suspended particles transiently when its flow first restarts.","test":"Measure inert-particle sizes in timed fractions against upstream composition.","contrary_outcome":"Restart fractions match upstream composition.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0314","id":"S7-0314","volume":"900v7","title":"Surface condensation should shift a small optical balance's zero through asymmetric light scattering before its mass resolves added water.","prediction":"Surface condensation should shift a small optical balance's zero through asymmetric light scattering before its mass resolves added water.","test":"Track raw photodetector signals and independent gravimetric condensation.","contrary":"Zero shift follows actual mass alone.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0314","hypothesis":"Surface condensation should shift a small optical balance's zero through asymmetric light scattering before its mass resolves added water.","prediction":"Surface condensation should shift a small optical balance's zero through asymmetric light scattering before its mass resolves added water.","test":"Track raw photodetector signals and independent gravimetric condensation.","contrary_outcome":"Zero shift follows actual mass alone.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0314","hypothesis":"Surface condensation should shift a small optical balance's zero through asymmetric light scattering before its mass resolves added water.","prediction":"Surface condensation should shift a small optical balance's zero through asymmetric light scattering before its mass resolves added water.","test":"Track raw photodetector signals and independent gravimetric condensation.","contrary_outcome":"Zero shift follows actual mass alone.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0315","id":"S7-0315","volume":"900v7","title":"A bidirectional flow calibration should detect asymmetric valve leakage that unidirectional calibration misses.","prediction":"A bidirectional flow calibration should detect asymmetric valve leakage that unidirectional calibration misses.","test":"Use low-head water with independent collected-volume measurements in both directions.","contrary":"Bidirectional data add no leak discrimination.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0315","hypothesis":"A bidirectional flow calibration should detect asymmetric valve leakage that unidirectional calibration misses.","prediction":"A bidirectional flow calibration should detect asymmetric valve leakage that unidirectional calibration misses.","test":"Use low-head water with independent collected-volume measurements in both directions.","contrary_outcome":"Bidirectional data add no leak discrimination.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0315","hypothesis":"A bidirectional flow calibration should detect asymmetric valve leakage that unidirectional calibration misses.","prediction":"A bidirectional flow calibration should detect asymmetric valve leakage that unidirectional calibration misses.","test":"Use low-head water with independent collected-volume measurements in both directions.","contrary_outcome":"Bidirectional data add no leak discrimination.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0316","id":"S7-0316","volume":"900v7","title":"A soft sample holder should rotate a specimen's measured vibration axes during temperature drift even when specimen stiffness is fixed.","prediction":"A soft sample holder should rotate a specimen's measured vibration axes during temperature drift even when specimen stiffness is fixed.","test":"Use rigid reference specimens and independent holder-shape measurements.","contrary":"Axes remain fixed after sensor calibration.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0316","hypothesis":"A soft sample holder should rotate a specimen's measured vibration axes during temperature drift even when specimen stiffness is fixed.","prediction":"A soft sample holder should rotate a specimen's measured vibration axes during temperature drift even when specimen stiffness is fixed.","test":"Use rigid reference specimens and independent holder-shape measurements.","contrary_outcome":"Axes remain fixed after sensor calibration.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0316","hypothesis":"A soft sample holder should rotate a specimen's measured vibration axes during temperature drift even when specimen stiffness is fixed.","prediction":"A soft sample holder should rotate a specimen's measured vibration axes during temperature drift even when specimen stiffness is fixed.","test":"Use rigid reference specimens and independent holder-shape measurements.","contrary_outcome":"Axes remain fixed after sensor calibration.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0317","id":"S7-0317","volume":"900v7","title":"The time delay between two conductivity probes should misestimate a dispersing saline pulse less when based on centroid than peak arrival.","prediction":"The time delay between two conductivity probes should misestimate a dispersing saline pulse less when based on centroid than peak arrival.","test":"Compare both estimates with gravimetric water flow across dispersion levels.","contrary":"Peak and centroid estimates have equal systematic error.","layers":[1,2,3],"categories":["physical"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0317","hypothesis":"The time delay between two conductivity probes should misestimate a dispersing saline pulse less when based on centroid than peak arrival.","prediction":"The time delay between two conductivity probes should misestimate a dispersing saline pulse less when based on centroid than peak arrival.","test":"Compare both estimates with gravimetric water flow across dispersion levels.","contrary_outcome":"Peak and centroid estimates have equal systematic error.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0317","hypothesis":"The time delay between two conductivity probes should misestimate a dispersing saline pulse less when based on centroid than peak arrival.","prediction":"The time delay between two conductivity probes should misestimate a dispersing saline pulse less when based on centroid than peak arrival.","test":"Compare both estimates with gravimetric water flow across dispersion levels.","contrary_outcome":"Peak and centroid estimates have equal systematic error.","status":"speculative; unproved","novelty":"unverified"},"dossier":{"id":"S7-0317","hypothesis":"The time delay between two conductivity probes should misestimate a dispersing saline pulse less when based on centroid than peak arrival.","prediction":"The time delay between two conductivity probes should misestimate a dispersing saline pulse less when based on centroid than peak arrival.","test":"Compare both estimates with gravimetric water flow across dispersion levels.","contrary_outcome":"Peak and centroid estimates have equal systematic error.","status":"speculative; unproved","novelty":"unverified"},"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0318","id":"S7-0318","volume":"900v7","title":"A capillary tube's residual water film should cause repeatable weighing hysteresis when its orientation reverses.","prediction":"A capillary tube's residual water film should cause repeatable weighing hysteresis when its orientation reverses.","test":"Measure tiny collected-water masses and internal film images through tilt cycles.","contrary":"Hysteresis is explained solely by balance tilt sensitivity.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0318","hypothesis":"A capillary tube's residual water film should cause repeatable weighing hysteresis when its orientation reverses.","prediction":"A capillary tube's residual water film should cause repeatable weighing hysteresis when its orientation reverses.","test":"Measure tiny collected-water masses and internal film images through tilt cycles.","contrary_outcome":"Hysteresis is explained solely by balance tilt sensitivity.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0318","hypothesis":"A capillary tube's residual water film should cause repeatable weighing hysteresis when its orientation reverses.","prediction":"A capillary tube's residual water film should cause repeatable weighing hysteresis when its orientation reverses.","test":"Measure tiny collected-water masses and internal film images through tilt cycles.","contrary_outcome":"Hysteresis is explained solely by balance tilt sensitivity.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0319","id":"S7-0319","volume":"900v7","title":"A transparent dummy insert should separate refractive distortion from actual narrowing in images of compressed water channels.","prediction":"A transparent dummy insert should separate refractive distortion from actual narrowing in images of compressed water channels.","test":"Compare fixed internal dimensions with external loading and calibrated dummy geometry.","contrary":"The correction cannot recover known channel dimensions.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0319","hypothesis":"A transparent dummy insert should separate refractive distortion from actual narrowing in images of compressed water channels.","prediction":"A transparent dummy insert should separate refractive distortion from actual narrowing in images of compressed water channels.","test":"Compare fixed internal dimensions with external loading and calibrated dummy geometry.","contrary_outcome":"The correction cannot recover known channel dimensions.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0319","hypothesis":"A transparent dummy insert should separate refractive distortion from actual narrowing in images of compressed water channels.","prediction":"A transparent dummy insert should separate refractive distortion from actual narrowing in images of compressed water channels.","test":"Compare fixed internal dimensions with external loading and calibrated dummy geometry.","contrary_outcome":"The correction cannot recover known channel dimensions.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0320","id":"S7-0320","volume":"900v7","title":"A pulsed light source should create apparent oscillatory particle motion when thermal convection follows its duty cycle.","prediction":"A pulsed light source should create apparent oscillatory particle motion when thermal convection follows its duty cycle.","test":"Compare low-intensity and higher-intensity matched-photon imaging with independent flow sensing.","contrary":"Motion is independent of illumination timing.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0320","hypothesis":"A pulsed light source should create apparent oscillatory particle motion when thermal convection follows its duty cycle.","prediction":"A pulsed light source should create apparent oscillatory particle motion when thermal convection follows its duty cycle.","test":"Compare low-intensity and higher-intensity matched-photon imaging with independent flow sensing.","contrary_outcome":"Motion is independent of illumination timing.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0320","hypothesis":"A pulsed light source should create apparent oscillatory particle motion when thermal convection follows its duty cycle.","prediction":"A pulsed light source should create apparent oscillatory particle motion when thermal convection follows its duty cycle.","test":"Compare low-intensity and higher-intensity matched-photon imaging with independent flow sensing.","contrary_outcome":"Motion is independent of illumination timing.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0321","id":"S7-0321","volume":"900v7","title":"A soft gasket's first leak location should depend on the spatial order of pressure application, even at equal final pressure.","prediction":"A soft gasket's first leak location should depend on the spatial order of pressure application, even at equal final pressure.","test":"Pressurize benign water cells through swapped inlets and image interface gaps.","contrary":"Leak location follows only final pressure and geometry.","layers":[1,2],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0321","hypothesis":"A soft gasket's first leak location should depend on the spatial order of pressure application, even at equal final pressure.","prediction":"A soft gasket's first leak location should depend on the spatial order of pressure application, even at equal final pressure.","test":"Pressurize benign water cells through swapped inlets and image interface gaps.","contrary_outcome":"Leak location follows only final pressure and geometry.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0321","hypothesis":"A soft gasket's first leak location should depend on the spatial order of pressure application, even at equal final pressure.","prediction":"A soft gasket's first leak location should depend on the spatial order of pressure application, even at equal final pressure.","test":"Pressurize benign water cells through swapped inlets and image interface gaps.","contrary_outcome":"Leak location follows only final pressure and geometry.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0322","id":"S7-0322","volume":"900v7","title":"A small trapped air lens should make pressure-sensor response depend on the direction of the preceding pressure ramp.","prediction":"A small trapped air lens should make pressure-sensor response depend on the direction of the preceding pressure ramp.","test":"Measure rated low-pressure cells with imaged lenses and degassed controls.","contrary":"Response is history-independent after current pressure matches.","layers":[1,2],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0322","hypothesis":"A small trapped air lens should make pressure-sensor response depend on the direction of the preceding pressure ramp.","prediction":"A small trapped air lens should make pressure-sensor response depend on the direction of the preceding pressure ramp.","test":"Measure rated low-pressure cells with imaged lenses and degassed controls.","contrary_outcome":"Response is history-independent after current pressure matches.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0322","hypothesis":"A small trapped air lens should make pressure-sensor response depend on the direction of the preceding pressure ramp.","prediction":"A small trapped air lens should make pressure-sensor response depend on the direction of the preceding pressure ramp.","test":"Measure rated low-pressure cells with imaged lenses and degassed controls.","contrary_outcome":"Response is history-independent after current pressure matches.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0323","id":"S7-0323","volume":"900v7","title":"A nonuniform illumination field should bias measured bubble coalescence rates through size-dependent detection loss.","prediction":"A nonuniform illumination field should bias measured bubble coalescence rates through size-dependent detection loss.","test":"Validate image counts against independent high-resolution recordings under swapped light fields.","contrary":"Corrected rates are unchanged across illumination fields.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0323","hypothesis":"A nonuniform illumination field should bias measured bubble coalescence rates through size-dependent detection loss.","prediction":"A nonuniform illumination field should bias measured bubble coalescence rates through size-dependent detection loss.","test":"Validate image counts against independent high-resolution recordings under swapped light fields.","contrary_outcome":"Corrected rates are unchanged across illumination fields.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0323","hypothesis":"A nonuniform illumination field should bias measured bubble coalescence rates through size-dependent detection loss.","prediction":"A nonuniform illumination field should bias measured bubble coalescence rates through size-dependent detection loss.","test":"Validate image counts against independent high-resolution recordings under swapped light fields.","contrary_outcome":"Corrected rates are unchanged across illumination fields.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0324","id":"S7-0324","volume":"900v7","title":"Suspending a granular sample from a flexible support should alter inferred wall friction through support rotation during loading.","prediction":"Suspending a granular sample from a flexible support should alter inferred wall friction through support rotation during loading.","test":"Measure support angle and individual wall forces in inert bead models.","contrary":"Inferred friction is independent of support compliance.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0324","hypothesis":"Suspending a granular sample from a flexible support should alter inferred wall friction through support rotation during loading.","prediction":"Suspending a granular sample from a flexible support should alter inferred wall friction through support rotation during loading.","test":"Measure support angle and individual wall forces in inert bead models.","contrary_outcome":"Inferred friction is independent of support compliance.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0324","hypothesis":"Suspending a granular sample from a flexible support should alter inferred wall friction through support rotation during loading.","prediction":"Suspending a granular sample from a flexible support should alter inferred wall friction through support rotation during loading.","test":"Measure support angle and individual wall forces in inert bead models.","contrary_outcome":"Inferred friction is independent of support compliance.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0325","id":"S7-0325","volume":"900v7","title":"A reference bead at a fixed depth should reveal a false vertical concentration gradient caused by changing water refractive index.","prediction":"A reference bead at a fixed depth should reveal a false vertical concentration gradient caused by changing water refractive index.","test":"Compare bead magnification and independently sampled particle concentrations.","contrary":"The apparent gradient persists after optical correction.","layers":[1,2,3],"categories":["physical"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0325","hypothesis":"A reference bead at a fixed depth should reveal a false vertical concentration gradient caused by changing water refractive index.","prediction":"A reference bead at a fixed depth should reveal a false vertical concentration gradient caused by changing water refractive index.","test":"Compare bead magnification and independently sampled particle concentrations.","contrary_outcome":"The apparent gradient persists after optical correction.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0325","hypothesis":"A reference bead at a fixed depth should reveal a false vertical concentration gradient caused by changing water refractive index.","prediction":"A reference bead at a fixed depth should reveal a false vertical concentration gradient caused by changing water refractive index.","test":"Compare bead magnification and independently sampled particle concentrations.","contrary_outcome":"The apparent gradient persists after optical correction.","status":"speculative; unproved","novelty":"unverified"},"dossier":{"id":"S7-0325","hypothesis":"A reference bead at a fixed depth should reveal a false vertical concentration gradient caused by changing water refractive index.","prediction":"A reference bead at a fixed depth should reveal a false vertical concentration gradient caused by changing water refractive index.","test":"Compare bead magnification and independently sampled particle concentrations.","contrary_outcome":"The apparent gradient persists after optical correction.","status":"speculative; unproved","novelty":"unverified"},"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0326","id":"S7-0326","volume":"900v7","title":"A slow balance should overestimate drying plateaus more often for intermittent evaporation than steady evaporation at equal mass loss.","prediction":"A slow balance should overestimate drying plateaus more often for intermittent evaporation than steady evaporation at equal mass loss.","test":"Compare balance outputs with calibrated high-bandwidth mass records.","contrary":"Plateau errors depend only on total mass loss.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0326","hypothesis":"A slow balance should overestimate drying plateaus more often for intermittent evaporation than steady evaporation at equal mass loss.","prediction":"A slow balance should overestimate drying plateaus more often for intermittent evaporation than steady evaporation at equal mass loss.","test":"Compare balance outputs with calibrated high-bandwidth mass records.","contrary_outcome":"Plateau errors depend only on total mass loss.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0326","hypothesis":"A slow balance should overestimate drying plateaus more often for intermittent evaporation than steady evaporation at equal mass loss.","prediction":"A slow balance should overestimate drying plateaus more often for intermittent evaporation than steady evaporation at equal mass loss.","test":"Compare balance outputs with calibrated high-bandwidth mass records.","contrary_outcome":"Plateau errors depend only on total mass loss.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0327","id":"S7-0327","volume":"900v7","title":"The first electrical reading after electrode reconnection should distinguish bulk saline concentration from contact polarization more poorly than a delayed reading.","prediction":"The first electrical reading after electrode reconnection should distinguish bulk saline concentration from contact polarization more poorly than a delayed reading.","test":"Measure benign saline standards with independently varied reconnection intervals.","contrary":"Early and delayed readings have equal concentration accuracy.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0327","hypothesis":"The first electrical reading after electrode reconnection should distinguish bulk saline concentration from contact polarization more poorly than a delayed reading.","prediction":"The first electrical reading after electrode reconnection should distinguish bulk saline concentration from contact polarization more poorly than a delayed reading.","test":"Measure benign saline standards with independently varied reconnection intervals.","contrary_outcome":"Early and delayed readings have equal concentration accuracy.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0327","hypothesis":"The first electrical reading after electrode reconnection should distinguish bulk saline concentration from contact polarization more poorly than a delayed reading.","prediction":"The first electrical reading after electrode reconnection should distinguish bulk saline concentration from contact polarization more poorly than a delayed reading.","test":"Measure benign saline standards with independently varied reconnection intervals.","contrary_outcome":"Early and delayed readings have equal concentration accuracy.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0328","id":"S7-0328","volume":"900v7","title":"A porous drain collector should report delayed water discharge after true flow stops through continued internal redistribution.","prediction":"A porous drain collector should report delayed water discharge after true flow stops through continued internal redistribution.","test":"Compare inlet cutoff, collector mass, and separately captured outlet water.","contrary":"Collector response stops with the true discharge.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0328","hypothesis":"A porous drain collector should report delayed water discharge after true flow stops through continued internal redistribution.","prediction":"A porous drain collector should report delayed water discharge after true flow stops through continued internal redistribution.","test":"Compare inlet cutoff, collector mass, and separately captured outlet water.","contrary_outcome":"Collector response stops with the true discharge.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0328","hypothesis":"A porous drain collector should report delayed water discharge after true flow stops through continued internal redistribution.","prediction":"A porous drain collector should report delayed water discharge after true flow stops through continued internal redistribution.","test":"Compare inlet cutoff, collector mass, and separately captured outlet water.","contrary_outcome":"Collector response stops with the true discharge.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0329","id":"S7-0329","volume":"900v7","title":"Mechanical contact between two thermocouple wires should create a spatially averaged temperature reading distinct from either local junction temperature.","prediction":"Mechanical contact between two thermocouple wires should create a spatially averaged temperature reading distinct from either local junction temperature.","test":"Use safe-temperature gradients and independent noncontact thermometry.","contrary":"Readings follow only the intended junction temperature.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0329","hypothesis":"Mechanical contact between two thermocouple wires should create a spatially averaged temperature reading distinct from either local junction temperature.","prediction":"Mechanical contact between two thermocouple wires should create a spatially averaged temperature reading distinct from either local junction temperature.","test":"Use safe-temperature gradients and independent noncontact thermometry.","contrary_outcome":"Readings follow only the intended junction temperature.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0329","hypothesis":"Mechanical contact between two thermocouple wires should create a spatially averaged temperature reading distinct from either local junction temperature.","prediction":"Mechanical contact between two thermocouple wires should create a spatially averaged temperature reading distinct from either local junction temperature.","test":"Use safe-temperature gradients and independent noncontact thermometry.","contrary_outcome":"Readings follow only the intended junction temperature.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0330","id":"S7-0330","volume":"900v7","title":"A repeated zero-load interval should reveal slow force-sensor creep but also alter the specimen's own recovery trajectory.","prediction":"A repeated zero-load interval should reveal slow force-sensor creep but also alter the specimen's own recovery trajectory.","test":"Compare continuous and interrupted benign creep tests with a separate reference sensor.","contrary":"Zeroing changes sensor bias without affecting specimen response.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0330","hypothesis":"A repeated zero-load interval should reveal slow force-sensor creep but also alter the specimen's own recovery trajectory.","prediction":"A repeated zero-load interval should reveal slow force-sensor creep but also alter the specimen's own recovery trajectory.","test":"Compare continuous and interrupted benign creep tests with a separate reference sensor.","contrary_outcome":"Zeroing changes sensor bias without affecting specimen response.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0330","hypothesis":"A repeated zero-load interval should reveal slow force-sensor creep but also alter the specimen's own recovery trajectory.","prediction":"A repeated zero-load interval should reveal slow force-sensor creep but also alter the specimen's own recovery trajectory.","test":"Compare continuous and interrupted benign creep tests with a separate reference sensor.","contrary_outcome":"Zeroing changes sensor bias without affecting specimen response.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0331","id":"S7-0331","volume":"900v7","title":"A floating camera fiducial should drift relative to bulk water when a weak surface-tension gradient develops.","prediction":"A floating camera fiducial should drift relative to bulk water when a weak surface-tension gradient develops.","test":"Track fiducials and submerged tracers under mild localized warming.","contrary":"Both follow the same local fluid displacement.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0331","hypothesis":"A floating camera fiducial should drift relative to bulk water when a weak surface-tension gradient develops.","prediction":"A floating camera fiducial should drift relative to bulk water when a weak surface-tension gradient develops.","test":"Track fiducials and submerged tracers under mild localized warming.","contrary_outcome":"Both follow the same local fluid displacement.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0331","hypothesis":"A floating camera fiducial should drift relative to bulk water when a weak surface-tension gradient develops.","prediction":"A floating camera fiducial should drift relative to bulk water when a weak surface-tension gradient develops.","test":"Track fiducials and submerged tracers under mild localized warming.","contrary_outcome":"Both follow the same local fluid displacement.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0332","id":"S7-0332","volume":"900v7","title":"Pressure inferred from meniscus curvature should be biased near a channel corner if the unresolved transverse curvature changes during motion.","prediction":"Pressure inferred from meniscus curvature should be biased near a channel corner if the unresolved transverse curvature changes during motion.","test":"Compare two-view curvature with independent low-pressure sensing.","contrary":"Single-view estimates remain accurate through corner passage.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0332","hypothesis":"Pressure inferred from meniscus curvature should be biased near a channel corner if the unresolved transverse curvature changes during motion.","prediction":"Pressure inferred from meniscus curvature should be biased near a channel corner if the unresolved transverse curvature changes during motion.","test":"Compare two-view curvature with independent low-pressure sensing.","contrary_outcome":"Single-view estimates remain accurate through corner passage.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0332","hypothesis":"Pressure inferred from meniscus curvature should be biased near a channel corner if the unresolved transverse curvature changes during motion.","prediction":"Pressure inferred from meniscus curvature should be biased near a channel corner if the unresolved transverse curvature changes during motion.","test":"Compare two-view curvature with independent low-pressure sensing.","contrary_outcome":"Single-view estimates remain accurate through corner passage.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0333","id":"S7-0333","volume":"900v7","title":"A transparent compression plate should change apparent contact area as it bends even before actual contact grows.","prediction":"A transparent compression plate should change apparent contact area as it bends even before actual contact grows.","test":"Use independent interface microscopy and calibrated plate deflection.","contrary":"Area estimates follow true contact only.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0333","hypothesis":"A transparent compression plate should change apparent contact area as it bends even before actual contact grows.","prediction":"A transparent compression plate should change apparent contact area as it bends even before actual contact grows.","test":"Use independent interface microscopy and calibrated plate deflection.","contrary_outcome":"Area estimates follow true contact only.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0333","hypothesis":"A transparent compression plate should change apparent contact area as it bends even before actual contact grows.","prediction":"A transparent compression plate should change apparent contact area as it bends even before actual contact grows.","test":"Use independent interface microscopy and calibrated plate deflection.","contrary_outcome":"Area estimates follow true contact only.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0334","id":"S7-0334","volume":"900v7","title":"Different sampling-line lengths should reverse the apparent order of two rapid concentration events in a branching flow.","prediction":"Different sampling-line lengths should reverse the apparent order of two rapid concentration events in a branching flow.","test":"Compare synchronized in-situ sensors with collected samples and calibrated transit kernels.","contrary":"Event order survives all line-length differences.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0334","hypothesis":"Different sampling-line lengths should reverse the apparent order of two rapid concentration events in a branching flow.","prediction":"Different sampling-line lengths should reverse the apparent order of two rapid concentration events in a branching flow.","test":"Compare synchronized in-situ sensors with collected samples and calibrated transit kernels.","contrary_outcome":"Event order survives all line-length differences.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0334","hypothesis":"Different sampling-line lengths should reverse the apparent order of two rapid concentration events in a branching flow.","prediction":"Different sampling-line lengths should reverse the apparent order of two rapid concentration events in a branching flow.","test":"Compare synchronized in-situ sensors with collected samples and calibrated transit kernels.","contrary_outcome":"Event order survives all line-length differences.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0335","id":"S7-0335","volume":"900v7","title":"A small inert tracer should preferentially sample faster regions of a deforming pore if excluded from narrow slow zones.","prediction":"A small inert tracer should preferentially sample faster regions of a deforming pore if excluded from narrow slow zones.","test":"Compare tracer velocities with full fluid-velocity maps across pore deformation.","contrary":"Tracer and volume-weighted water speeds agree.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0335","hypothesis":"A small inert tracer should preferentially sample faster regions of a deforming pore if excluded from narrow slow zones.","prediction":"A small inert tracer should preferentially sample faster regions of a deforming pore if excluded from narrow slow zones.","test":"Compare tracer velocities with full fluid-velocity maps across pore deformation.","contrary_outcome":"Tracer and volume-weighted water speeds agree.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0335","hypothesis":"A small inert tracer should preferentially sample faster regions of a deforming pore if excluded from narrow slow zones.","prediction":"A small inert tracer should preferentially sample faster regions of a deforming pore if excluded from narrow slow zones.","test":"Compare tracer velocities with full fluid-velocity maps across pore deformation.","contrary_outcome":"Tracer and volume-weighted water speeds agree.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0336","id":"S7-0336","volume":"900v7","title":"A compliant reservoir wall should make volume inferred from level lag actual injected volume during pressure pulses.","prediction":"A compliant reservoir wall should make volume inferred from level lag actual injected volume during pressure pulses.","test":"Measure low-head water injection, level, wall shape, and external volume independently.","contrary":"Level-derived and injected volumes coincide after static calibration.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0336","hypothesis":"A compliant reservoir wall should make volume inferred from level lag actual injected volume during pressure pulses.","prediction":"A compliant reservoir wall should make volume inferred from level lag actual injected volume during pressure pulses.","test":"Measure low-head water injection, level, wall shape, and external volume independently.","contrary_outcome":"Level-derived and injected volumes coincide after static calibration.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0336","hypothesis":"A compliant reservoir wall should make volume inferred from level lag actual injected volume during pressure pulses.","prediction":"A compliant reservoir wall should make volume inferred from level lag actual injected volume during pressure pulses.","test":"Measure low-head water injection, level, wall shape, and external volume independently.","contrary_outcome":"Level-derived and injected volumes coincide after static calibration.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0337","id":"S7-0337","volume":"900v7","title":"Alternating a load cell's orientation should expose gravity-dependent cable forces that mimic small specimen hysteresis.","prediction":"Alternating a load cell's orientation should expose gravity-dependent cable forces that mimic small specimen hysteresis.","test":"Use rigid load standards, swapped cable routing, and controlled low forces.","contrary":"Hysteresis remains unchanged after cable-force correction.","layers":[1,2],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0337","hypothesis":"Alternating a load cell's orientation should expose gravity-dependent cable forces that mimic small specimen hysteresis.","prediction":"Alternating a load cell's orientation should expose gravity-dependent cable forces that mimic small specimen hysteresis.","test":"Use rigid load standards, swapped cable routing, and controlled low forces.","contrary_outcome":"Hysteresis remains unchanged after cable-force correction.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0337","hypothesis":"Alternating a load cell's orientation should expose gravity-dependent cable forces that mimic small specimen hysteresis.","prediction":"Alternating a load cell's orientation should expose gravity-dependent cable forces that mimic small specimen hysteresis.","test":"Use rigid load standards, swapped cable routing, and controlled low forces.","contrary_outcome":"Hysteresis remains unchanged after cable-force correction.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0338","id":"S7-0338","volume":"900v7","title":"A dye calibration made before gel swelling should systematically misestimate later concentration because optical path and partitioning both change.","prediction":"A dye calibration made before gel swelling should systematically misestimate later concentration because optical path and partitioning both change.","test":"Compare image estimates with extracted dye mass through benign swelling cycles.","contrary":"A single initial calibration remains accurate throughout swelling.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0338","hypothesis":"A dye calibration made before gel swelling should systematically misestimate later concentration because optical path and partitioning both change.","prediction":"A dye calibration made before gel swelling should systematically misestimate later concentration because optical path and partitioning both change.","test":"Compare image estimates with extracted dye mass through benign swelling cycles.","contrary_outcome":"A single initial calibration remains accurate throughout swelling.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0338","hypothesis":"A dye calibration made before gel swelling should systematically misestimate later concentration because optical path and partitioning both change.","prediction":"A dye calibration made before gel swelling should systematically misestimate later concentration because optical path and partitioning both change.","test":"Compare image estimates with extracted dye mass through benign swelling cycles.","contrary_outcome":"A single initial calibration remains accurate throughout swelling.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0339","id":"S7-0339","volume":"900v7","title":"A soft optical window should produce a false flow acceleration when pressure changes but fluid velocity remains constant.","prediction":"A soft optical window should produce a false flow acceleration when pressure changes but fluid velocity remains constant.","test":"Use independently measured water flow and window profilometry during modest pressure steps.","contrary":"Image-derived acceleration reflects actual water motion only.","layers":[1,2,3],"categories":["physical","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0339","hypothesis":"A soft optical window should produce a false flow acceleration when pressure changes but fluid velocity remains constant.","prediction":"A soft optical window should produce a false flow acceleration when pressure changes but fluid velocity remains constant.","test":"Use independently measured water flow and window profilometry during modest pressure steps.","contrary_outcome":"Image-derived acceleration reflects actual water motion only.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0339","hypothesis":"A soft optical window should produce a false flow acceleration when pressure changes but fluid velocity remains constant.","prediction":"A soft optical window should produce a false flow acceleration when pressure changes but fluid velocity remains constant.","test":"Use independently measured water flow and window profilometry during modest pressure steps.","contrary_outcome":"Image-derived acceleration reflects actual water motion only.","status":"speculative; unproved","novelty":"unverified"},"dossier":{"id":"S7-0339","hypothesis":"A soft optical window should produce a false flow acceleration when pressure changes but fluid velocity remains constant.","prediction":"A soft optical window should produce a false flow acceleration when pressure changes but fluid velocity remains constant.","test":"Use independently measured water flow and window profilometry during modest pressure steps.","contrary_outcome":"Image-derived acceleration reflects actual water motion only.","status":"speculative; unproved","novelty":"unverified"},"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0340","id":"S7-0340","volume":"900v7","title":"Two pressure sensors joined by unequal air volumes should show an apparent traveling wave even under spatially uniform pressure forcing.","prediction":"Two pressure sensors joined by unequal air volumes should show an apparent traveling wave even under spatially uniform pressure forcing.","test":"Apply low-pressure common-mode pulses and vary connection volumes.","contrary":"Measured delay is independent of connection volume.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0340","hypothesis":"Two pressure sensors joined by unequal air volumes should show an apparent traveling wave even under spatially uniform pressure forcing.","prediction":"Two pressure sensors joined by unequal air volumes should show an apparent traveling wave even under spatially uniform pressure forcing.","test":"Apply low-pressure common-mode pulses and vary connection volumes.","contrary_outcome":"Measured delay is independent of connection volume.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0340","hypothesis":"Two pressure sensors joined by unequal air volumes should show an apparent traveling wave even under spatially uniform pressure forcing.","prediction":"Two pressure sensors joined by unequal air volumes should show an apparent traveling wave even under spatially uniform pressure forcing.","test":"Apply low-pressure common-mode pulses and vary connection volumes.","contrary_outcome":"Measured delay is independent of connection volume.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0341","id":"S7-0341","volume":"900v7","title":"A slowly rotating sample should produce more reliable mean optical grain orientation than a stationary sample under directional lighting.","prediction":"A slowly rotating sample should produce more reliable mean optical grain orientation than a stationary sample under directional lighting.","test":"Compare inferred orientation with independently labeled inert particles.","contrary":"Rotation offers no reduction in lighting-dependent bias.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0341","hypothesis":"A slowly rotating sample should produce more reliable mean optical grain orientation than a stationary sample under directional lighting.","prediction":"A slowly rotating sample should produce more reliable mean optical grain orientation than a stationary sample under directional lighting.","test":"Compare inferred orientation with independently labeled inert particles.","contrary_outcome":"Rotation offers no reduction in lighting-dependent bias.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0341","hypothesis":"A slowly rotating sample should produce more reliable mean optical grain orientation than a stationary sample under directional lighting.","prediction":"A slowly rotating sample should produce more reliable mean optical grain orientation than a stationary sample under directional lighting.","test":"Compare inferred orientation with independently labeled inert particles.","contrary_outcome":"Rotation offers no reduction in lighting-dependent bias.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0342","id":"S7-0342","volume":"900v7","title":"A capillary collector should lose a larger fraction of its first water sample to wall wetting than later equal-volume samples.","prediction":"A capillary collector should lose a larger fraction of its first water sample to wall wetting than later equal-volume samples.","test":"Weigh sequential samples with independent delivered-volume calibration.","contrary":"Collection efficiency is constant from the first sample.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0342","hypothesis":"A capillary collector should lose a larger fraction of its first water sample to wall wetting than later equal-volume samples.","prediction":"A capillary collector should lose a larger fraction of its first water sample to wall wetting than later equal-volume samples.","test":"Weigh sequential samples with independent delivered-volume calibration.","contrary_outcome":"Collection efficiency is constant from the first sample.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0342","hypothesis":"A capillary collector should lose a larger fraction of its first water sample to wall wetting than later equal-volume samples.","prediction":"A capillary collector should lose a larger fraction of its first water sample to wall wetting than later equal-volume samples.","test":"Weigh sequential samples with independent delivered-volume calibration.","contrary_outcome":"Collection efficiency is constant from the first sample.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0343","id":"S7-0343","volume":"900v7","title":"Paired symmetric strain gauges should reject bending bias only if their adhesive relaxation histories are matched.","prediction":"Paired symmetric strain gauges should reject bending bias only if their adhesive relaxation histories are matched.","test":"Use benign beam loads with deliberately varied bonding histories and optical strain.","contrary":"Pair accuracy is independent of adhesive history.","layers":[1,2,3],"categories":["physical"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0343","hypothesis":"Paired symmetric strain gauges should reject bending bias only if their adhesive relaxation histories are matched.","prediction":"Paired symmetric strain gauges should reject bending bias only if their adhesive relaxation histories are matched.","test":"Use benign beam loads with deliberately varied bonding histories and optical strain.","contrary_outcome":"Pair accuracy is independent of adhesive history.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0343","hypothesis":"Paired symmetric strain gauges should reject bending bias only if their adhesive relaxation histories are matched.","prediction":"Paired symmetric strain gauges should reject bending bias only if their adhesive relaxation histories are matched.","test":"Use benign beam loads with deliberately varied bonding histories and optical strain.","contrary_outcome":"Pair accuracy is independent of adhesive history.","status":"speculative; unproved","novelty":"unverified"},"dossier":{"id":"S7-0343","hypothesis":"Paired symmetric strain gauges should reject bending bias only if their adhesive relaxation histories are matched.","prediction":"Paired symmetric strain gauges should reject bending bias only if their adhesive relaxation histories are matched.","test":"Use benign beam loads with deliberately varied bonding histories and optical strain.","contrary_outcome":"Pair accuracy is independent of adhesive history.","status":"speculative; unproved","novelty":"unverified"},"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0344","id":"S7-0344","volume":"900v7","title":"A coarse force sampling rate should make two distinct granular slip events appear as one larger event more often near increasing load.","prediction":"A coarse force sampling rate should make two distinct granular slip events appear as one larger event more often near increasing load.","test":"Compare downsampled and full-bandwidth inert-bed force records.","contrary":"Event merging has no load dependence after rate correction.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0344","hypothesis":"A coarse force sampling rate should make two distinct granular slip events appear as one larger event more often near increasing load.","prediction":"A coarse force sampling rate should make two distinct granular slip events appear as one larger event more often near increasing load.","test":"Compare downsampled and full-bandwidth inert-bed force records.","contrary_outcome":"Event merging has no load dependence after rate correction.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0344","hypothesis":"A coarse force sampling rate should make two distinct granular slip events appear as one larger event more often near increasing load.","prediction":"A coarse force sampling rate should make two distinct granular slip events appear as one larger event more often near increasing load.","test":"Compare downsampled and full-bandwidth inert-bed force records.","contrary_outcome":"Event merging has no load dependence after rate correction.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0345","id":"S7-0345","volume":"900v7","title":"A reference optical cavity should distinguish humidity-driven path changes from fixture expansion in a nearby sample cavity.","prediction":"A reference optical cavity should distinguish humidity-driven path changes from fixture expansion in a nearby sample cavity.","test":"Apply independent mild temperature and humidity steps and validate mixed conditions.","contrary":"Both effects remain inseparable with the reference.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0345","hypothesis":"A reference optical cavity should distinguish humidity-driven path changes from fixture expansion in a nearby sample cavity.","prediction":"A reference optical cavity should distinguish humidity-driven path changes from fixture expansion in a nearby sample cavity.","test":"Apply independent mild temperature and humidity steps and validate mixed conditions.","contrary_outcome":"Both effects remain inseparable with the reference.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0345","hypothesis":"A reference optical cavity should distinguish humidity-driven path changes from fixture expansion in a nearby sample cavity.","prediction":"A reference optical cavity should distinguish humidity-driven path changes from fixture expansion in a nearby sample cavity.","test":"Apply independent mild temperature and humidity steps and validate mixed conditions.","contrary_outcome":"Both effects remain inseparable with the reference.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0346","id":"S7-0346","volume":"900v7","title":"A partially submerged velocity probe should perturb the local water surface enough to alter the flow it measures near a narrow outlet.","prediction":"A partially submerged velocity probe should perturb the local water surface enough to alter the flow it measures near a narrow outlet.","test":"Compare probe and noncontact flow measurements across immersion depths.","contrary":"Measured flow is independent of probe insertion.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0346","hypothesis":"A partially submerged velocity probe should perturb the local water surface enough to alter the flow it measures near a narrow outlet.","prediction":"A partially submerged velocity probe should perturb the local water surface enough to alter the flow it measures near a narrow outlet.","test":"Compare probe and noncontact flow measurements across immersion depths.","contrary_outcome":"Measured flow is independent of probe insertion.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0346","hypothesis":"A partially submerged velocity probe should perturb the local water surface enough to alter the flow it measures near a narrow outlet.","prediction":"A partially submerged velocity probe should perturb the local water surface enough to alter the flow it measures near a narrow outlet.","test":"Compare probe and noncontact flow measurements across immersion depths.","contrary_outcome":"Measured flow is independent of probe insertion.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0347","id":"S7-0347","volume":"900v7","title":"A fixed threshold for acoustic-event detection should create false aging in a drying specimen as propagation loss changes.","prediction":"A fixed threshold for acoustic-event detection should create false aging in a drying specimen as propagation loss changes.","test":"Inject reference pulses while monitoring benign drying and event counts.","contrary":"Corrected event rates show the same aging as uncorrected rates.","layers":[1,2,3],"categories":["physical","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0347","hypothesis":"A fixed threshold for acoustic-event detection should create false aging in a drying specimen as propagation loss changes.","prediction":"A fixed threshold for acoustic-event detection should create false aging in a drying specimen as propagation loss changes.","test":"Inject reference pulses while monitoring benign drying and event counts.","contrary_outcome":"Corrected event rates show the same aging as uncorrected rates.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0347","hypothesis":"A fixed threshold for acoustic-event detection should create false aging in a drying specimen as propagation loss changes.","prediction":"A fixed threshold for acoustic-event detection should create false aging in a drying specimen as propagation loss changes.","test":"Inject reference pulses while monitoring benign drying and event counts.","contrary_outcome":"Corrected event rates show the same aging as uncorrected rates.","status":"speculative; unproved","novelty":"unverified"},"dossier":{"id":"S7-0347","hypothesis":"A fixed threshold for acoustic-event detection should create false aging in a drying specimen as propagation loss changes.","prediction":"A fixed threshold for acoustic-event detection should create false aging in a drying specimen as propagation loss changes.","test":"Inject reference pulses while monitoring benign drying and event counts.","contrary_outcome":"Corrected event rates show the same aging as uncorrected rates.","status":"speculative; unproved","novelty":"unverified"},"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0348","id":"S7-0348","volume":"900v7","title":"A weakly adhered fiducial should slip before a soft substrate reaches its true yield point.","prediction":"A weakly adhered fiducial should slip before a soft substrate reaches its true yield point.","test":"Compare multiple attachment strengths with independently measured substrate deformation.","contrary":"Fiducial slip occurs only after substrate yield.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0348","hypothesis":"A weakly adhered fiducial should slip before a soft substrate reaches its true yield point.","prediction":"A weakly adhered fiducial should slip before a soft substrate reaches its true yield point.","test":"Compare multiple attachment strengths with independently measured substrate deformation.","contrary_outcome":"Fiducial slip occurs only after substrate yield.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0348","hypothesis":"A weakly adhered fiducial should slip before a soft substrate reaches its true yield point.","prediction":"A weakly adhered fiducial should slip before a soft substrate reaches its true yield point.","test":"Compare multiple attachment strengths with independently measured substrate deformation.","contrary_outcome":"Fiducial slip occurs only after substrate yield.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0349","id":"S7-0349","volume":"900v7","title":"A saline calibration solution should show orientation-dependent measured conductivity when slow density stratification develops.","prediction":"A saline calibration solution should show orientation-dependent measured conductivity when slow density stratification develops.","test":"Compare electrode geometries with independent concentration profiles.","contrary":"Conductivity differences are electrode artifacts unrelated to stratification.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0349","hypothesis":"A saline calibration solution should show orientation-dependent measured conductivity when slow density stratification develops.","prediction":"A saline calibration solution should show orientation-dependent measured conductivity when slow density stratification develops.","test":"Compare electrode geometries with independent concentration profiles.","contrary_outcome":"Conductivity differences are electrode artifacts unrelated to stratification.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0349","hypothesis":"A saline calibration solution should show orientation-dependent measured conductivity when slow density stratification develops.","prediction":"A saline calibration solution should show orientation-dependent measured conductivity when slow density stratification develops.","test":"Compare electrode geometries with independent concentration profiles.","contrary_outcome":"Conductivity differences are electrode artifacts unrelated to stratification.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0350","id":"S7-0350","volume":"900v7","title":"An infrared camera should mislocate a wetting front when emissivity changes ahead of surface temperature.","prediction":"An infrared camera should mislocate a wetting front when emissivity changes ahead of surface temperature.","test":"Compare visible moisture maps, contact thermometry, and calibrated emissivity.","contrary":"Thermal-front position follows true temperature alone.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0350","hypothesis":"An infrared camera should mislocate a wetting front when emissivity changes ahead of surface temperature.","prediction":"An infrared camera should mislocate a wetting front when emissivity changes ahead of surface temperature.","test":"Compare visible moisture maps, contact thermometry, and calibrated emissivity.","contrary_outcome":"Thermal-front position follows true temperature alone.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0350","hypothesis":"An infrared camera should mislocate a wetting front when emissivity changes ahead of surface temperature.","prediction":"An infrared camera should mislocate a wetting front when emissivity changes ahead of surface temperature.","test":"Compare visible moisture maps, contact thermometry, and calibrated emissivity.","contrary_outcome":"Thermal-front position follows true temperature alone.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0351","id":"S7-0351","volume":"900v7","title":"A flexible tube's collected outlet volume should lag inlet displacement differently after compression and decompression.","prediction":"A flexible tube's collected outlet volume should lag inlet displacement differently after compression and decompression.","test":"Measure low-head water volumes and cross-section recovery under reversed histories.","contrary":"The same linear delay kernel describes both directions.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0351","hypothesis":"A flexible tube's collected outlet volume should lag inlet displacement differently after compression and decompression.","prediction":"A flexible tube's collected outlet volume should lag inlet displacement differently after compression and decompression.","test":"Measure low-head water volumes and cross-section recovery under reversed histories.","contrary_outcome":"The same linear delay kernel describes both directions.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0351","hypothesis":"A flexible tube's collected outlet volume should lag inlet displacement differently after compression and decompression.","prediction":"A flexible tube's collected outlet volume should lag inlet displacement differently after compression and decompression.","test":"Measure low-head water volumes and cross-section recovery under reversed histories.","contrary_outcome":"The same linear delay kernel describes both directions.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0352","id":"S7-0352","volume":"900v7","title":"A mechanical reference spring should drift during prolonged contact with a warm sample even if room temperature is constant.","prediction":"A mechanical reference spring should drift during prolonged contact with a warm sample even if room temperature is constant.","test":"Measure spring temperature, stiffness, and independent sample force at modest temperatures.","contrary":"Reference stiffness remains constant within calibration uncertainty.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0352","hypothesis":"A mechanical reference spring should drift during prolonged contact with a warm sample even if room temperature is constant.","prediction":"A mechanical reference spring should drift during prolonged contact with a warm sample even if room temperature is constant.","test":"Measure spring temperature, stiffness, and independent sample force at modest temperatures.","contrary_outcome":"Reference stiffness remains constant within calibration uncertainty.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0352","hypothesis":"A mechanical reference spring should drift during prolonged contact with a warm sample even if room temperature is constant.","prediction":"A mechanical reference spring should drift during prolonged contact with a warm sample even if room temperature is constant.","test":"Measure spring temperature, stiffness, and independent sample force at modest temperatures.","contrary_outcome":"Reference stiffness remains constant within calibration uncertainty.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0353","id":"S7-0353","volume":"900v7","title":"A transparent settling cell's meniscus should bias near-surface particle-size estimates more strongly during evaporation than refilling.","prediction":"A transparent settling cell's meniscus should bias near-surface particle-size estimates more strongly during evaporation than refilling.","test":"Track calibrated inert spheres with independent size references and matched liquid levels.","contrary":"Size error depends only on instantaneous liquid level.","layers":[1,2],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0353","hypothesis":"A transparent settling cell's meniscus should bias near-surface particle-size estimates more strongly during evaporation than refilling.","prediction":"A transparent settling cell's meniscus should bias near-surface particle-size estimates more strongly during evaporation than refilling.","test":"Track calibrated inert spheres with independent size references and matched liquid levels.","contrary_outcome":"Size error depends only on instantaneous liquid level.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0353","hypothesis":"A transparent settling cell's meniscus should bias near-surface particle-size estimates more strongly during evaporation than refilling.","prediction":"A transparent settling cell's meniscus should bias near-surface particle-size estimates more strongly during evaporation than refilling.","test":"Track calibrated inert spheres with independent size references and matched liquid levels.","contrary_outcome":"Size error depends only on instantaneous liquid level.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0354","id":"S7-0354","volume":"900v7","title":"A moving contact-line sensor should confuse film deposition with bulk meniscus motion unless both electrode directions are sampled.","prediction":"A moving contact-line sensor should confuse film deposition with bulk meniscus motion unless both electrode directions are sampled.","test":"Compare orthogonal low-voltage signals with microscope film and meniscus maps.","contrary":"One electrode direction resolves both states equally well.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0354","hypothesis":"A moving contact-line sensor should confuse film deposition with bulk meniscus motion unless both electrode directions are sampled.","prediction":"A moving contact-line sensor should confuse film deposition with bulk meniscus motion unless both electrode directions are sampled.","test":"Compare orthogonal low-voltage signals with microscope film and meniscus maps.","contrary_outcome":"One electrode direction resolves both states equally well.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0354","hypothesis":"A moving contact-line sensor should confuse film deposition with bulk meniscus motion unless both electrode directions are sampled.","prediction":"A moving contact-line sensor should confuse film deposition with bulk meniscus motion unless both electrode directions are sampled.","test":"Compare orthogonal low-voltage signals with microscope film and meniscus maps.","contrary_outcome":"One electrode direction resolves both states equally well.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0355","id":"S7-0355","volume":"900v7","title":"A narrow collection funnel should preferentially retain the smallest droplets during a pulsed spray measurement.","prediction":"A narrow collection funnel should preferentially retain the smallest droplets during a pulsed spray measurement.","test":"Use low-speed water sprays with independent droplet sizing and complete mass collection.","contrary":"Retention fraction is independent of droplet size.","layers":[1,2,3],"categories":["measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0355","hypothesis":"A narrow collection funnel should preferentially retain the smallest droplets during a pulsed spray measurement.","prediction":"A narrow collection funnel should preferentially retain the smallest droplets during a pulsed spray measurement.","test":"Use low-speed water sprays with independent droplet sizing and complete mass collection.","contrary_outcome":"Retention fraction is independent of droplet size.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0355","hypothesis":"A narrow collection funnel should preferentially retain the smallest droplets during a pulsed spray measurement.","prediction":"A narrow collection funnel should preferentially retain the smallest droplets during a pulsed spray measurement.","test":"Use low-speed water sprays with independent droplet sizing and complete mass collection.","contrary_outcome":"Retention fraction is independent of droplet size.","status":"speculative; unproved","novelty":"unverified"},"dossier":{"id":"S7-0355","hypothesis":"A narrow collection funnel should preferentially retain the smallest droplets during a pulsed spray measurement.","prediction":"A narrow collection funnel should preferentially retain the smallest droplets during a pulsed spray measurement.","test":"Use low-speed water sprays with independent droplet sizing and complete mass collection.","contrary_outcome":"Retention fraction is independent of droplet size.","status":"speculative; unproved","novelty":"unverified"},"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0356","id":"S7-0356","volume":"900v7","title":"A force probe's protective membrane should create a rate-dependent apparent adhesion in a nonadhesive soft specimen.","prediction":"A force probe's protective membrane should create a rate-dependent apparent adhesion in a nonadhesive soft specimen.","test":"Measure benign contacts with and without characterized membranes.","contrary":"Apparent adhesion remains after membrane-force correction.","layers":[1,2],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0356","hypothesis":"A force probe's protective membrane should create a rate-dependent apparent adhesion in a nonadhesive soft specimen.","prediction":"A force probe's protective membrane should create a rate-dependent apparent adhesion in a nonadhesive soft specimen.","test":"Measure benign contacts with and without characterized membranes.","contrary_outcome":"Apparent adhesion remains after membrane-force correction.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0356","hypothesis":"A force probe's protective membrane should create a rate-dependent apparent adhesion in a nonadhesive soft specimen.","prediction":"A force probe's protective membrane should create a rate-dependent apparent adhesion in a nonadhesive soft specimen.","test":"Measure benign contacts with and without characterized membranes.","contrary_outcome":"Apparent adhesion remains after membrane-force correction.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0357","id":"S7-0357","volume":"900v7","title":"A camera's rolling shutter should create false shear-band inclination in a rapidly relaxing granular layer.","prediction":"A camera's rolling shutter should create false shear-band inclination in a rapidly relaxing granular layer.","test":"Compare synchronized global-shutter reference images with reversed scan directions.","contrary":"Band inclination is unchanged by shutter timing.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0357","hypothesis":"A camera's rolling shutter should create false shear-band inclination in a rapidly relaxing granular layer.","prediction":"A camera's rolling shutter should create false shear-band inclination in a rapidly relaxing granular layer.","test":"Compare synchronized global-shutter reference images with reversed scan directions.","contrary_outcome":"Band inclination is unchanged by shutter timing.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0357","hypothesis":"A camera's rolling shutter should create false shear-band inclination in a rapidly relaxing granular layer.","prediction":"A camera's rolling shutter should create false shear-band inclination in a rapidly relaxing granular layer.","test":"Compare synchronized global-shutter reference images with reversed scan directions.","contrary_outcome":"Band inclination is unchanged by shutter timing.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0358","id":"S7-0358","volume":"900v7","title":"A room-pressure change should alter an air-backed displacement sensor before changing the actual specimen position.","prediction":"A room-pressure change should alter an air-backed displacement sensor before changing the actual specimen position.","test":"Measure low-pressure reference cells with independent optical displacement.","contrary":"Both measurements move together without sensor-specific bias.","layers":[1,2],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0358","hypothesis":"A room-pressure change should alter an air-backed displacement sensor before changing the actual specimen position.","prediction":"A room-pressure change should alter an air-backed displacement sensor before changing the actual specimen position.","test":"Measure low-pressure reference cells with independent optical displacement.","contrary_outcome":"Both measurements move together without sensor-specific bias.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0358","hypothesis":"A room-pressure change should alter an air-backed displacement sensor before changing the actual specimen position.","prediction":"A room-pressure change should alter an air-backed displacement sensor before changing the actual specimen position.","test":"Measure low-pressure reference cells with independent optical displacement.","contrary_outcome":"Both measurements move together without sensor-specific bias.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0359","id":"S7-0359","volume":"900v7","title":"A water-filled pressure tap should show longer response recovery after bubble passage than after an equal liquid-pressure pulse.","prediction":"A water-filled pressure tap should show longer response recovery after bubble passage than after an equal liquid-pressure pulse.","test":"Track internal bubbles and independently imposed pulses in transparent taps.","contrary":"Recovery depends only on pulse amplitude and duration.","layers":[1,2,3],"categories":["physical"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0359","hypothesis":"A water-filled pressure tap should show longer response recovery after bubble passage than after an equal liquid-pressure pulse.","prediction":"A water-filled pressure tap should show longer response recovery after bubble passage than after an equal liquid-pressure pulse.","test":"Track internal bubbles and independently imposed pulses in transparent taps.","contrary_outcome":"Recovery depends only on pulse amplitude and duration.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0359","hypothesis":"A water-filled pressure tap should show longer response recovery after bubble passage than after an equal liquid-pressure pulse.","prediction":"A water-filled pressure tap should show longer response recovery after bubble passage than after an equal liquid-pressure pulse.","test":"Track internal bubbles and independently imposed pulses in transparent taps.","contrary_outcome":"Recovery depends only on pulse amplitude and duration.","status":"speculative; unproved","novelty":"unverified"},"dossier":{"id":"S7-0359","hypothesis":"A water-filled pressure tap should show longer response recovery after bubble passage than after an equal liquid-pressure pulse.","prediction":"A water-filled pressure tap should show longer response recovery after bubble passage than after an equal liquid-pressure pulse.","test":"Track internal bubbles and independently imposed pulses in transparent taps.","contrary_outcome":"Recovery depends only on pulse amplitude and duration.","status":"speculative; unproved","novelty":"unverified"},"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0360","id":"S7-0360","volume":"900v7","title":"Repeated reference illumination should reveal optical fouling before mean transmission changes significantly.","prediction":"Repeated reference illumination should reveal optical fouling before mean transmission changes significantly.","test":"Compare spatial reference-pattern distortion with independent surface microscopy.","contrary":"Pattern distortion adds no earlier reliable detection than mean transmission.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0360","hypothesis":"Repeated reference illumination should reveal optical fouling before mean transmission changes significantly.","prediction":"Repeated reference illumination should reveal optical fouling before mean transmission changes significantly.","test":"Compare spatial reference-pattern distortion with independent surface microscopy.","contrary_outcome":"Pattern distortion adds no earlier reliable detection than mean transmission.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0360","hypothesis":"Repeated reference illumination should reveal optical fouling before mean transmission changes significantly.","prediction":"Repeated reference illumination should reveal optical fouling before mean transmission changes significantly.","test":"Compare spatial reference-pattern distortion with independent surface microscopy.","contrary_outcome":"Pattern distortion adds no earlier reliable detection than mean transmission.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0361","id":"S7-0361","volume":"900v7","title":"A hollow pendulum bob should show different damping after identical liquid volumes are introduced from opposite sides.","prediction":"A hollow pendulum bob should show different damping after identical liquid volumes are introduced from opposite sides.","test":"Track swing decay and internal water distribution after matched loading.","contrary":"Damping depends only on total liquid mass.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0361","hypothesis":"A hollow pendulum bob should show different damping after identical liquid volumes are introduced from opposite sides.","prediction":"A hollow pendulum bob should show different damping after identical liquid volumes are introduced from opposite sides.","test":"Track swing decay and internal water distribution after matched loading.","contrary_outcome":"Damping depends only on total liquid mass.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0362","id":"S7-0362","volume":"900v7","title":"A sealed flexible ring should redistribute internal air during bending enough to delay its peak restoring torque.","prediction":"A sealed flexible ring should redistribute internal air during bending enough to delay its peak restoring torque.","test":"Measure low-pressure ring shape, compartment pressures, and torque.","contrary":"Torque follows instantaneous curvature without a pressure-related delay.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0362","hypothesis":"A sealed flexible ring should redistribute internal air during bending enough to delay its peak restoring torque.","prediction":"A sealed flexible ring should redistribute internal air during bending enough to delay its peak restoring torque.","test":"Measure low-pressure ring shape, compartment pressures, and torque.","contrary_outcome":"Torque follows instantaneous curvature without a pressure-related delay.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0363","id":"S7-0363","volume":"900v7","title":"A freely sliding central mass should suppress one beam mode while amplifying another during a narrow excitation sweep.","prediction":"A freely sliding central mass should suppress one beam mode while amplifying another during a narrow excitation sweep.","test":"Map low-amplitude beam vibration and mass motion against locked-mass controls.","contrary":"All modes attenuate proportionally to added mass.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0363","hypothesis":"A freely sliding central mass should suppress one beam mode while amplifying another during a narrow excitation sweep.","prediction":"A freely sliding central mass should suppress one beam mode while amplifying another during a narrow excitation sweep.","test":"Map low-amplitude beam vibration and mass motion against locked-mass controls.","contrary_outcome":"All modes attenuate proportionally to added mass.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0364","id":"S7-0364","volume":"900v7","title":"A shallow domed membrane should select different collapse paths after equal positive and negative preload holds.","prediction":"A shallow domed membrane should select different collapse paths after equal positive and negative preload holds.","test":"Record safe low-energy collapse shapes with matched final pressure.","contrary":"Collapse path is independent of preload sign.","layers":[1],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0364","hypothesis":"A shallow domed membrane should select different collapse paths after equal positive and negative preload holds.","prediction":"A shallow domed membrane should select different collapse paths after equal positive and negative preload holds.","test":"Record safe low-energy collapse shapes with matched final pressure.","contrary_outcome":"Collapse path is independent of preload sign.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0365","id":"S7-0365","volume":"900v7","title":"A chain of unequal hinges should transmit a slow rotation front differently depending on which end is driven.","prediction":"A chain of unequal hinges should transmit a slow rotation front differently depending on which end is driven.","test":"Track individual hinge angles under mirrored slow displacement histories.","contrary":"Front timing follows total stiffness alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0365","hypothesis":"A chain of unequal hinges should transmit a slow rotation front differently depending on which end is driven.","prediction":"A chain of unequal hinges should transmit a slow rotation front differently depending on which end is driven.","test":"Track individual hinge angles under mirrored slow displacement histories.","contrary_outcome":"Front timing follows total stiffness alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0366","id":"S7-0366","volume":"900v7","title":"A slack ring around a compressed column should engage preferentially at an existing buckle and arrest lateral growth.","prediction":"A slack ring around a compressed column should engage preferentially at an existing buckle and arrest lateral growth.","test":"Measure guarded small columns with ring-position and force tracking.","contrary":"The ring engages uniformly or only after irreversible failure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0366","hypothesis":"A slack ring around a compressed column should engage preferentially at an existing buckle and arrest lateral growth.","prediction":"A slack ring around a compressed column should engage preferentially at an existing buckle and arrest lateral growth.","test":"Measure guarded small columns with ring-position and force tracking.","contrary_outcome":"The ring engages uniformly or only after irreversible failure.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0367","id":"S7-0367","volume":"900v7","title":"A rolling soft cylinder should retain a temporary flattened patch that changes its next revolution's speed.","prediction":"A rolling soft cylinder should retain a temporary flattened patch that changes its next revolution's speed.","test":"Track surface markers, contact shape, and angular speed on a level driven belt.","contrary":"Speed is uniform after correcting drive fluctuations.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0367","hypothesis":"A rolling soft cylinder should retain a temporary flattened patch that changes its next revolution's speed.","prediction":"A rolling soft cylinder should retain a temporary flattened patch that changes its next revolution's speed.","test":"Track surface markers, contact shape, and angular speed on a level driven belt.","contrary_outcome":"Speed is uniform after correcting drive fluctuations.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0368","id":"S7-0368","volume":"900v7","title":"A twisted elastic tube should open a collapsed segment earlier during pressure increase than an untwisted tube.","prediction":"A twisted elastic tube should open a collapsed segment earlier during pressure increase than an untwisted tube.","test":"Measure low-pressure water-tube cross-sections under controlled twist.","contrary":"Opening pressure depends only on minimum initial area.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0368","hypothesis":"A twisted elastic tube should open a collapsed segment earlier during pressure increase than an untwisted tube.","prediction":"A twisted elastic tube should open a collapsed segment earlier during pressure increase than an untwisted tube.","test":"Measure low-pressure water-tube cross-sections under controlled twist.","contrary_outcome":"Opening pressure depends only on minimum initial area.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0369","id":"S7-0369","volume":"900v7","title":"A layered beam with one sliding interface should have a strain node that moves during a fixed-load hold.","prediction":"A layered beam with one sliding interface should have a strain node that moves during a fixed-load hold.","test":"Use optical strain maps and independent layer-slip measurements.","contrary":"The node stays fixed once external load stabilizes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0369","hypothesis":"A layered beam with one sliding interface should have a strain node that moves during a fixed-load hold.","prediction":"A layered beam with one sliding interface should have a strain node that moves during a fixed-load hold.","test":"Use optical strain maps and independent layer-slip measurements.","contrary_outcome":"The node stays fixed once external load stabilizes.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0370","id":"S7-0370","volume":"900v7","title":"A corrugated ring should develop local rotation before measurable radial contraction under gentle uniform pressure.","prediction":"A corrugated ring should develop local rotation before measurable radial contraction under gentle uniform pressure.","test":"Track three-dimensional cell angles and overall radius.","contrary":"Cell rotation begins only with resolved radial contraction.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0370","hypothesis":"A corrugated ring should develop local rotation before measurable radial contraction under gentle uniform pressure.","prediction":"A corrugated ring should develop local rotation before measurable radial contraction under gentle uniform pressure.","test":"Track three-dimensional cell angles and overall radius.","contrary_outcome":"Cell rotation begins only with resolved radial contraction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0371","id":"S7-0371","volume":"900v7","title":"A soft latch should release at lower force after a short transverse perturbation even when its original position returns.","prediction":"A soft latch should release at lower force after a short transverse perturbation even when its original position returns.","test":"Measure low-force latch release after controlled perturbations and rest.","contrary":"Release threshold depends only on final latch geometry.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0371","hypothesis":"A soft latch should release at lower force after a short transverse perturbation even when its original position returns.","prediction":"A soft latch should release at lower force after a short transverse perturbation even when its original position returns.","test":"Measure low-force latch release after controlled perturbations and rest.","contrary_outcome":"Release threshold depends only on final latch geometry.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0372","id":"S7-0372","volume":"900v7","title":"A small contact pad placed at a vibration node should change a beam's damping less than its stiffness.","prediction":"A small contact pad placed at a vibration node should change a beam's damping less than its stiffness.","test":"Measure low-amplitude spectra while scanning the pad position.","contrary":"Damping and stiffness changes remain proportional everywhere.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0372","hypothesis":"A small contact pad placed at a vibration node should change a beam's damping less than its stiffness.","prediction":"A small contact pad placed at a vibration node should change a beam's damping less than its stiffness.","test":"Measure low-amplitude spectra while scanning the pad position.","contrary_outcome":"Damping and stiffness changes remain proportional everywhere.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0373","id":"S7-0373","volume":"900v7","title":"A compressed fiber mat should expand laterally after vertical unloading has nearly ended.","prediction":"A compressed fiber mat should expand laterally after vertical unloading has nearly ended.","test":"Measure benign fiber-mat dimensions and forces through slow recovery.","contrary":"Lateral expansion stops with vertical recovery.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0373","hypothesis":"A compressed fiber mat should expand laterally after vertical unloading has nearly ended.","prediction":"A compressed fiber mat should expand laterally after vertical unloading has nearly ended.","test":"Measure benign fiber-mat dimensions and forces through slow recovery.","contrary_outcome":"Lateral expansion stops with vertical recovery.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0374","id":"S7-0374","volume":"900v7","title":"A tilted elastic foundation should make a buckle migrate under constant end shortening without additional loading.","prediction":"A tilted elastic foundation should make a buckle migrate under constant end shortening without additional loading.","test":"Track guarded strips and foundation deformation over time.","contrary":"Buckles remain fixed after boundary displacement stops.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0374","hypothesis":"A tilted elastic foundation should make a buckle migrate under constant end shortening without additional loading.","prediction":"A tilted elastic foundation should make a buckle migrate under constant end shortening without additional loading.","test":"Track guarded strips and foundation deformation over time.","contrary_outcome":"Buckles remain fixed after boundary displacement stops.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0375","id":"S7-0375","volume":"900v7","title":"A loosely wrapped cord should spread an applied torque over more turns after a dwell than immediately after wrapping.","prediction":"A loosely wrapped cord should spread an applied torque over more turns after a dwell than immediately after wrapping.","test":"Measure contact motion and local twist during low-torque loading.","contrary":"Torque distribution depends only on wrap count and tension.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0375","hypothesis":"A loosely wrapped cord should spread an applied torque over more turns after a dwell than immediately after wrapping.","prediction":"A loosely wrapped cord should spread an applied torque over more turns after a dwell than immediately after wrapping.","test":"Measure contact motion and local twist during low-torque loading.","contrary_outcome":"Torque distribution depends only on wrap count and tension.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0376","id":"S7-0376","volume":"900v7","title":"A perforated soft disk should change its preferred folding axis when one hole fills with water.","prediction":"A perforated soft disk should change its preferred folding axis when one hole fills with water.","test":"Measure low-energy folding paths with dry and equal-mass bonded controls.","contrary":"Axis selection follows only added mass and support asymmetry.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0376","hypothesis":"A perforated soft disk should change its preferred folding axis when one hole fills with water.","prediction":"A perforated soft disk should change its preferred folding axis when one hole fills with water.","test":"Measure low-energy folding paths with dry and equal-mass bonded controls.","contrary_outcome":"Axis selection follows only added mass and support asymmetry.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0377","id":"S7-0377","volume":"900v7","title":"A triangular soft frame should show an order-dependent residual shape after equal edge-extension cycles.","prediction":"A triangular soft frame should show an order-dependent residual shape after equal edge-extension cycles.","test":"Track all edge forces and recovered angles under reversed sequences.","contrary":"Residual shape depends only on maximum edge strains.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0377","hypothesis":"A triangular soft frame should show an order-dependent residual shape after equal edge-extension cycles.","prediction":"A triangular soft frame should show an order-dependent residual shape after equal edge-extension cycles.","test":"Track all edge forces and recovered angles under reversed sequences.","contrary_outcome":"Residual shape depends only on maximum edge strains.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0378","id":"S7-0378","volume":"900v7","title":"A shallow elastomer groove should widen during compression if its sidewalls buckle outward before bulk closure.","prediction":"A shallow elastomer groove should widen during compression if its sidewalls buckle outward before bulk closure.","test":"Use microscope profiles under modest reversible compression.","contrary":"Groove width decreases monotonically with load.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0378","hypothesis":"A shallow elastomer groove should widen during compression if its sidewalls buckle outward before bulk closure.","prediction":"A shallow elastomer groove should widen during compression if its sidewalls buckle outward before bulk closure.","test":"Use microscope profiles under modest reversible compression.","contrary_outcome":"Groove width decreases monotonically with load.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0379","id":"S7-0379","volume":"900v7","title":"A freely moving collar should damp a rod's axial vibration without equally damping its bending vibration.","prediction":"A freely moving collar should damp a rod's axial vibration without equally damping its bending vibration.","test":"Measure separate low-amplitude axial and bending responses.","contrary":"Both damping changes scale with total collar friction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0379","hypothesis":"A freely moving collar should damp a rod's axial vibration without equally damping its bending vibration.","prediction":"A freely moving collar should damp a rod's axial vibration without equally damping its bending vibration.","test":"Measure separate low-amplitude axial and bending responses.","contrary_outcome":"Both damping changes scale with total collar friction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0380","id":"S7-0380","volume":"900v7","title":"A bent straw-like tube should recover water conductance before its outer shape fully straightens.","prediction":"A bent straw-like tube should recover water conductance before its outer shape fully straightens.","test":"Measure low-head flow and internal cross-section through recovery.","contrary":"Conductance recovery follows external straightening exactly.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0380","hypothesis":"A bent straw-like tube should recover water conductance before its outer shape fully straightens.","prediction":"A bent straw-like tube should recover water conductance before its outer shape fully straightens.","test":"Measure low-head flow and internal cross-section through recovery.","contrary_outcome":"Conductance recovery follows external straightening exactly.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0381","id":"S7-0381","volume":"900v7","title":"A gently stretched knit should preserve different loop-opening distributions after equal endpoint extension reached from different directions.","prediction":"A gently stretched knit should preserve different loop-opening distributions after equal endpoint extension reached from different directions.","test":"Image benign knit loops under reversed loading paths.","contrary":"Loop statistics are fixed by final endpoint distance.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0381","hypothesis":"A gently stretched knit should preserve different loop-opening distributions after equal endpoint extension reached from different directions.","prediction":"A gently stretched knit should preserve different loop-opening distributions after equal endpoint extension reached from different directions.","test":"Image benign knit loops under reversed loading paths.","contrary_outcome":"Loop statistics are fixed by final endpoint distance.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0382","id":"S7-0382","volume":"900v7","title":"A soft triangular contact should peel from different corners after clockwise and counterclockwise preload rotation.","prediction":"A soft triangular contact should peel from different corners after clockwise and counterclockwise preload rotation.","test":"Measure low-force transparent contacts and track release fronts.","contrary":"First peel corner is independent of preload direction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0382","hypothesis":"A soft triangular contact should peel from different corners after clockwise and counterclockwise preload rotation.","prediction":"A soft triangular contact should peel from different corners after clockwise and counterclockwise preload rotation.","test":"Measure low-force transparent contacts and track release fronts.","contrary_outcome":"First peel corner is independent of preload direction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0383","id":"S7-0383","volume":"900v7","title":"A folded strip should lose torsional stiffness before bending stiffness during progressive local wetting.","prediction":"A folded strip should lose torsional stiffness before bending stiffness during progressive local wetting.","test":"Measure small-signal mechanical responses and spatial moisture.","contrary":"Both stiffnesses decline proportionally to absorbed water.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0383","hypothesis":"A folded strip should lose torsional stiffness before bending stiffness during progressive local wetting.","prediction":"A folded strip should lose torsional stiffness before bending stiffness during progressive local wetting.","test":"Measure small-signal mechanical responses and spatial moisture.","contrary_outcome":"Both stiffnesses decline proportionally to absorbed water.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0384","id":"S7-0384","volume":"900v7","title":"A thin plate's contact with a soft stop should create a moving pressure maximum during a constant indentation hold.","prediction":"A thin plate's contact with a soft stop should create a moving pressure maximum during a constant indentation hold.","test":"Map contact pressure and plate shape over relaxation.","contrary":"The pressure maximum remains at its initial position.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0384","hypothesis":"A thin plate's contact with a soft stop should create a moving pressure maximum during a constant indentation hold.","prediction":"A thin plate's contact with a soft stop should create a moving pressure maximum during a constant indentation hold.","test":"Map contact pressure and plate shape over relaxation.","contrary_outcome":"The pressure maximum remains at its initial position.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0385","id":"S7-0385","volume":"900v7","title":"A slotted ring should turn a uniform temperature increase into asymmetric support loading even without a thermal gradient.","prediction":"A slotted ring should turn a uniform temperature increase into asymmetric support loading even without a thermal gradient.","test":"Measure safe-temperature rings with independent support forces.","contrary":"Asymmetry requires a measurable thermal gradient.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0385","hypothesis":"A slotted ring should turn a uniform temperature increase into asymmetric support loading even without a thermal gradient.","prediction":"A slotted ring should turn a uniform temperature increase into asymmetric support loading even without a thermal gradient.","test":"Measure safe-temperature rings with independent support forces.","contrary_outcome":"Asymmetry requires a measurable thermal gradient.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0386","id":"S7-0386","volume":"900v7","title":"A porous shell should trap enough air during immersion to delay its mechanical softening relative to a fully prewetted shell.","prediction":"A porous shell should trap enough air during immersion to delay its mechanical softening relative to a fully prewetted shell.","test":"Measure benign shells, internal air, and small-load stiffness.","contrary":"Softening follows total water uptake without an air-specific delay.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0386","hypothesis":"A porous shell should trap enough air during immersion to delay its mechanical softening relative to a fully prewetted shell.","prediction":"A porous shell should trap enough air during immersion to delay its mechanical softening relative to a fully prewetted shell.","test":"Measure benign shells, internal air, and small-load stiffness.","contrary_outcome":"Softening follows total water uptake without an air-specific delay.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0387","id":"S7-0387","volume":"900v7","title":"A water-swollen joint should transfer load to a dry neighboring joint before its own visible displacement changes.","prediction":"A water-swollen joint should transfer load to a dry neighboring joint before its own visible displacement changes.","test":"Measure individual joint forces and microscopic shape.","contrary":"Load transfer occurs only after resolvable joint motion.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0387","hypothesis":"A water-swollen joint should transfer load to a dry neighboring joint before its own visible displacement changes.","prediction":"A water-swollen joint should transfer load to a dry neighboring joint before its own visible displacement changes.","test":"Measure individual joint forces and microscopic shape.","contrary_outcome":"Load transfer occurs only after resolvable joint motion.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0388","id":"S7-0388","volume":"900v7","title":"A soft film with a narrow dry band should bend first outside that band during uniform rewetting.","prediction":"A soft film with a narrow dry band should bend first outside that band during uniform rewetting.","test":"Map water and curvature in benign films.","contrary":"Initial curvature follows only local water concentration.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0388","hypothesis":"A soft film with a narrow dry band should bend first outside that band during uniform rewetting.","prediction":"A soft film with a narrow dry band should bend first outside that band during uniform rewetting.","test":"Map water and curvature in benign films.","contrary_outcome":"Initial curvature follows only local water concentration.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0389","id":"S7-0389","volume":"900v7","title":"A gel rod should show different transient twist after equal-volume side and end hydration.","prediction":"A gel rod should show different transient twist after equal-volume side and end hydration.","test":"Measure benign rod mass, water profiles, and three-dimensional motion.","contrary":"Twist depends only on total uptake and final length.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0389","hypothesis":"A gel rod should show different transient twist after equal-volume side and end hydration.","prediction":"A gel rod should show different transient twist after equal-volume side and end hydration.","test":"Measure benign rod mass, water profiles, and three-dimensional motion.","contrary_outcome":"Twist depends only on total uptake and final length.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0390","id":"S7-0390","volume":"900v7","title":"A paper spring should retain a larger dry set after a brief humid hold at intermediate compression than at maximum compression.","prediction":"A paper spring should retain a larger dry set after a brief humid hold at intermediate compression than at maximum compression.","test":"Cycle benign springs with matched humidity dose and recovery time.","contrary":"Set increases monotonically with held compression.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0390","hypothesis":"A paper spring should retain a larger dry set after a brief humid hold at intermediate compression than at maximum compression.","prediction":"A paper spring should retain a larger dry set after a brief humid hold at intermediate compression than at maximum compression.","test":"Cycle benign springs with matched humidity dose and recovery time.","contrary_outcome":"Set increases monotonically with held compression.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0391","id":"S7-0391","volume":"900v7","title":"A laminated strap should lose peel strength locally before its average moisture resolves uptake.","prediction":"A laminated strap should lose peel strength locally before its average moisture resolves uptake.","test":"Compare low-force local peel tests with independent micro-moisture sensing.","contrary":"Strength changes begin only after measurable local uptake.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0391","hypothesis":"A laminated strap should lose peel strength locally before its average moisture resolves uptake.","prediction":"A laminated strap should lose peel strength locally before its average moisture resolves uptake.","test":"Compare low-force local peel tests with independent micro-moisture sensing.","contrary_outcome":"Strength changes begin only after measurable local uptake.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0392","id":"S7-0392","volume":"900v7","title":"A wrinkled film should flatten unevenly during mild warming even when its temperature is uniform.","prediction":"A wrinkled film should flatten unevenly during mild warming even when its temperature is uniform.","test":"Map benign film curvature and preexisting residual strain.","contrary":"Flattening rate is uniform after thickness correction.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0392","hypothesis":"A wrinkled film should flatten unevenly during mild warming even when its temperature is uniform.","prediction":"A wrinkled film should flatten unevenly during mild warming even when its temperature is uniform.","test":"Map benign film curvature and preexisting residual strain.","contrary_outcome":"Flattening rate is uniform after thickness correction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0393","id":"S7-0393","volume":"900v7","title":"A porous plug should recover diameter before permeability after reversible compression.","prediction":"A porous plug should recover diameter before permeability after reversible compression.","test":"Measure benign water-filled plugs with independent dimensions and low-head flow.","contrary":"Permeability is a unique function of recovered diameter.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0393","hypothesis":"A porous plug should recover diameter before permeability after reversible compression.","prediction":"A porous plug should recover diameter before permeability after reversible compression.","test":"Measure benign water-filled plugs with independent dimensions and low-head flow.","contrary_outcome":"Permeability is a unique function of recovered diameter.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0394","id":"S7-0394","volume":"900v7","title":"A soft adhesive island should move slightly during a stationary load hold without net translation of the entire contact.","prediction":"A soft adhesive island should move slightly during a stationary load hold without net translation of the entire contact.","test":"Track local contact boundaries and substrate markers.","contrary":"All boundary motion is explained by bulk specimen translation.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0394","hypothesis":"A soft adhesive island should move slightly during a stationary load hold without net translation of the entire contact.","prediction":"A soft adhesive island should move slightly during a stationary load hold without net translation of the entire contact.","test":"Track local contact boundaries and substrate markers.","contrary_outcome":"All boundary motion is explained by bulk specimen translation.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0395","id":"S7-0395","volume":"900v7","title":"A cellulose cord should redistribute water toward a tight bend during drying before its mean moisture changes substantially.","prediction":"A cellulose cord should redistribute water toward a tight bend during drying before its mean moisture changes substantially.","test":"Map benign cord moisture and bend geometry.","contrary":"Water distribution remains proportional to local fiber mass.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0395","hypothesis":"A cellulose cord should redistribute water toward a tight bend during drying before its mean moisture changes substantially.","prediction":"A cellulose cord should redistribute water toward a tight bend during drying before its mean moisture changes substantially.","test":"Map benign cord moisture and bend geometry.","contrary_outcome":"Water distribution remains proportional to local fiber mass.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0396","id":"S7-0396","volume":"900v7","title":"A hydrated gel seam should support shear better after a brief low normal-load hold than after no hold.","prediction":"A hydrated gel seam should support shear better after a brief low normal-load hold than after no hold.","test":"Measure low-load benign gel interfaces with imaged contact recovery.","contrary":"Shear strength depends only on current normal load.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0396","hypothesis":"A hydrated gel seam should support shear better after a brief low normal-load hold than after no hold.","prediction":"A hydrated gel seam should support shear better after a brief low normal-load hold than after no hold.","test":"Measure low-load benign gel interfaces with imaged contact recovery.","contrary_outcome":"Shear strength depends only on current normal load.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0397","id":"S7-0397","volume":"900v7","title":"A foam strip with an impermeable patch should recover faster beside the patch than beneath it after compression.","prediction":"A foam strip with an impermeable patch should recover faster beside the patch than beneath it after compression.","test":"Track benign foam deformation and internal pressure.","contrary":"Recovery differences follow only local solid stiffness.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0397","hypothesis":"A foam strip with an impermeable patch should recover faster beside the patch than beneath it after compression.","prediction":"A foam strip with an impermeable patch should recover faster beside the patch than beneath it after compression.","test":"Track benign foam deformation and internal pressure.","contrary_outcome":"Recovery differences follow only local solid stiffness.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0398","id":"S7-0398","volume":"900v7","title":"A thin soluble coating should detach in larger pieces when its substrate relaxes slowly than rapidly at equal final strain.","prediction":"A thin soluble coating should detach in larger pieces when its substrate relaxes slowly than rapidly at equal final strain.","test":"Measure benign water-soluble films with controlled substrate recovery.","contrary":"Fragment size depends only on dissolved fraction.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0398","hypothesis":"A thin soluble coating should detach in larger pieces when its substrate relaxes slowly than rapidly at equal final strain.","prediction":"A thin soluble coating should detach in larger pieces when its substrate relaxes slowly than rapidly at equal final strain.","test":"Measure benign water-soluble films with controlled substrate recovery.","contrary_outcome":"Fragment size depends only on dissolved fraction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0399","id":"S7-0399","volume":"900v7","title":"A folded wet mesh should dry first at some interior crossings rather than its exposed edges.","prediction":"A folded wet mesh should dry first at some interior crossings rather than its exposed edges.","test":"Image water bridges and local temperature with controlled airflow.","contrary":"Drying order follows distance to the outer edge only.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0399","hypothesis":"A folded wet mesh should dry first at some interior crossings rather than its exposed edges.","prediction":"A folded wet mesh should dry first at some interior crossings rather than its exposed edges.","test":"Image water bridges and local temperature with controlled airflow.","contrary_outcome":"Drying order follows distance to the outer edge only.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0400","id":"S7-0400","volume":"900v7","title":"A gel inclusion should rotate during uniform swelling of its matrix if its bonding pattern is asymmetric.","prediction":"A gel inclusion should rotate during uniform swelling of its matrix if its bonding pattern is asymmetric.","test":"Use benign inclusions, imaged bond patterns, and isotropic swelling controls.","contrary":"Rotation requires an external concentration or temperature gradient.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0400","hypothesis":"A gel inclusion should rotate during uniform swelling of its matrix if its bonding pattern is asymmetric.","prediction":"A gel inclusion should rotate during uniform swelling of its matrix if its bonding pattern is asymmetric.","test":"Use benign inclusions, imaged bond patterns, and isotropic swelling controls.","contrary_outcome":"Rotation requires an external concentration or temperature gradient.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0401","id":"S7-0401","volume":"900v7","title":"A shallow water layer above a soft bottom should show a delayed current reversal after the bottom stops moving.","prediction":"A shallow water layer above a soft bottom should show a delayed current reversal after the bottom stops moving.","test":"Measure bottom shape and fluid velocity through controlled slow motion.","contrary":"Current reverses exactly with bottom velocity.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0401","hypothesis":"A shallow water layer above a soft bottom should show a delayed current reversal after the bottom stops moving.","prediction":"A shallow water layer above a soft bottom should show a delayed current reversal after the bottom stops moving.","test":"Measure bottom shape and fluid velocity through controlled slow motion.","contrary_outcome":"Current reverses exactly with bottom velocity.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0402","id":"S7-0402","volume":"900v7","title":"A side reservoir should reduce pressure-pulse peaks most at an intermediate connecting-neck width.","prediction":"A side reservoir should reduce pressure-pulse peaks most at an intermediate connecting-neck width.","test":"Measure low-head water transients across calibrated neck widths.","contrary":"Peak attenuation changes monotonically with neck width.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0402","hypothesis":"A side reservoir should reduce pressure-pulse peaks most at an intermediate connecting-neck width.","prediction":"A side reservoir should reduce pressure-pulse peaks most at an intermediate connecting-neck width.","test":"Measure low-head water transients across calibrated neck widths.","contrary_outcome":"Peak attenuation changes monotonically with neck width.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0402","hypothesis":"A side reservoir should reduce pressure-pulse peaks most at an intermediate connecting-neck width.","prediction":"A side reservoir should reduce pressure-pulse peaks most at an intermediate connecting-neck width.","test":"Measure low-head water transients across calibrated neck widths.","contrary_outcome":"Peak attenuation changes monotonically with neck width.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0403","id":"S7-0403","volume":"900v7","title":"A submerged perforated plate should redirect a bubble plume laterally without comparable deflection of the mean water flow.","prediction":"A submerged perforated plate should redirect a bubble plume laterally without comparable deflection of the mean water flow.","test":"Track bubbles and liquid tracers separately.","contrary":"Bubble deflection matches mean liquid deflection.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0403","hypothesis":"A submerged perforated plate should redirect a bubble plume laterally without comparable deflection of the mean water flow.","prediction":"A submerged perforated plate should redirect a bubble plume laterally without comparable deflection of the mean water flow.","test":"Track bubbles and liquid tracers separately.","contrary_outcome":"Bubble deflection matches mean liquid deflection.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0404","id":"S7-0404","volume":"900v7","title":"A flexible flow divider should alternate branch preference under constant inflow if its recovery time exceeds the branch exchange time.","prediction":"A flexible flow divider should alternate branch preference under constant inflow if its recovery time exceeds the branch exchange time.","test":"Measure low-pressure water flow and divider motion.","contrary":"The divider reaches one stationary state under constant inflow.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0404","hypothesis":"A flexible flow divider should alternate branch preference under constant inflow if its recovery time exceeds the branch exchange time.","prediction":"A flexible flow divider should alternate branch preference under constant inflow if its recovery time exceeds the branch exchange time.","test":"Measure low-pressure water flow and divider motion.","contrary_outcome":"The divider reaches one stationary state under constant inflow.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0405","id":"S7-0405","volume":"900v7","title":"A row of floating strips should transmit a wave differently when the strips are free to overlap than when overlap is blocked.","prediction":"A row of floating strips should transmit a wave differently when the strips are free to overlap than when overlap is blocked.","test":"Measure gentle wave energy and strip contacts with matched area coverage.","contrary":"Transmission depends only on covered surface area.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0405","hypothesis":"A row of floating strips should transmit a wave differently when the strips are free to overlap than when overlap is blocked.","prediction":"A row of floating strips should transmit a wave differently when the strips are free to overlap than when overlap is blocked.","test":"Measure gentle wave energy and strip contacts with matched area coverage.","contrary_outcome":"Transmission depends only on covered surface area.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0406","id":"S7-0406","volume":"900v7","title":"A water-filled flexible loop should expel a pulse when one segment straightens even with stationary endpoints.","prediction":"A water-filled flexible loop should expel a pulse when one segment straightens even with stationary endpoints.","test":"Measure loop shape, pressure, and collected volume.","contrary":"No net pulse occurs without endpoint displacement.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0406","hypothesis":"A water-filled flexible loop should expel a pulse when one segment straightens even with stationary endpoints.","prediction":"A water-filled flexible loop should expel a pulse when one segment straightens even with stationary endpoints.","test":"Measure loop shape, pressure, and collected volume.","contrary_outcome":"No net pulse occurs without endpoint displacement.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0407","id":"S7-0407","volume":"900v7","title":"A rounded dead-end cavity should exchange tracer faster than a sharp one only above a finite flow-pulse amplitude.","prediction":"A rounded dead-end cavity should exchange tracer faster than a sharp one only above a finite flow-pulse amplitude.","test":"Compare food-dye washout, velocity fields, and equal-volume geometries.","contrary":"The geometry ordering is independent of pulse amplitude.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0407","hypothesis":"A rounded dead-end cavity should exchange tracer faster than a sharp one only above a finite flow-pulse amplitude.","prediction":"A rounded dead-end cavity should exchange tracer faster than a sharp one only above a finite flow-pulse amplitude.","test":"Compare food-dye washout, velocity fields, and equal-volume geometries.","contrary_outcome":"The geometry ordering is independent of pulse amplitude.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0408","id":"S7-0408","volume":"900v7","title":"A thin air layer beneath a floating sheet should change how quickly a nearby water wave decays.","prediction":"A thin air layer beneath a floating sheet should change how quickly a nearby water wave decays.","test":"Measure gentle waves with independently controlled air coverage and sheet mass.","contrary":"Decay depends only on sheet mass and submerged geometry.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0408","hypothesis":"A thin air layer beneath a floating sheet should change how quickly a nearby water wave decays.","prediction":"A thin air layer beneath a floating sheet should change how quickly a nearby water wave decays.","test":"Measure gentle waves with independently controlled air coverage and sheet mass.","contrary_outcome":"Decay depends only on sheet mass and submerged geometry.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0409","id":"S7-0409","volume":"900v7","title":"A brief outlet blockage should leave a water stream attached to a different wall after reopening at the original flow.","prediction":"A brief outlet blockage should leave a water stream attached to a different wall after reopening at the original flow.","test":"Track transparent low-head expansions with reversed blockage locations.","contrary":"The original attachment state always returns immediately.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0409","hypothesis":"A brief outlet blockage should leave a water stream attached to a different wall after reopening at the original flow.","prediction":"A brief outlet blockage should leave a water stream attached to a different wall after reopening at the original flow.","test":"Track transparent low-head expansions with reversed blockage locations.","contrary_outcome":"The original attachment state always returns immediately.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0410","id":"S7-0410","volume":"900v7","title":"A sediment pocket should release coarse particles before fine ones during the first short flow pulse after rest.","prediction":"A sediment pocket should release coarse particles before fine ones during the first short flow pulse after rest.","test":"Use inert size mixtures with timed discharge and independent pocket imaging.","contrary":"Released size ordering follows settling velocity alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0410","hypothesis":"A sediment pocket should release coarse particles before fine ones during the first short flow pulse after rest.","prediction":"A sediment pocket should release coarse particles before fine ones during the first short flow pulse after rest.","test":"Use inert size mixtures with timed discharge and independent pocket imaging.","contrary_outcome":"Released size ordering follows settling velocity alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0411","id":"S7-0411","volume":"900v7","title":"A soft channel's width should respond differently to two equal pressure pulses separated by a short versus long wait.","prediction":"A soft channel's width should respond differently to two equal pressure pulses separated by a short versus long wait.","test":"Measure low-pressure pulse shapes and wall recovery.","contrary":"Responses superpose linearly at all tested separations.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0411","hypothesis":"A soft channel's width should respond differently to two equal pressure pulses separated by a short versus long wait.","prediction":"A soft channel's width should respond differently to two equal pressure pulses separated by a short versus long wait.","test":"Measure low-pressure pulse shapes and wall recovery.","contrary_outcome":"Responses superpose linearly at all tested separations.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0412","id":"S7-0412","volume":"900v7","title":"A floating disk's rotation should alter the path of nearby bubbles more than the trajectory of equal-size solid tracers.","prediction":"A floating disk's rotation should alter the path of nearby bubbles more than the trajectory of equal-size solid tracers.","test":"Track benign particles and bubbles with measured water velocity.","contrary":"Both trajectories are predicted identically by fluid advection.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0412","hypothesis":"A floating disk's rotation should alter the path of nearby bubbles more than the trajectory of equal-size solid tracers.","prediction":"A floating disk's rotation should alter the path of nearby bubbles more than the trajectory of equal-size solid tracers.","test":"Track benign particles and bubbles with measured water velocity.","contrary_outcome":"Both trajectories are predicted identically by fluid advection.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0413","id":"S7-0413","volume":"900v7","title":"A narrow water jet should remain attached to a gently retreating surface longer than to an approaching one at equal instantaneous gap.","prediction":"A narrow water jet should remain attached to a gently retreating surface longer than to an approaching one at equal instantaneous gap.","test":"Measure jet shape and surface speed with reversed histories.","contrary":"Attachment depends only on current gap and flow.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0413","hypothesis":"A narrow water jet should remain attached to a gently retreating surface longer than to an approaching one at equal instantaneous gap.","prediction":"A narrow water jet should remain attached to a gently retreating surface longer than to an approaching one at equal instantaneous gap.","test":"Measure jet shape and surface speed with reversed histories.","contrary_outcome":"Attachment depends only on current gap and flow.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0414","id":"S7-0414","volume":"900v7","title":"A patterned wettable wall should bias dye residence times without measurably changing mean water speed.","prediction":"A patterned wettable wall should bias dye residence times without measurably changing mean water speed.","test":"Compare food-dye tails, water velocity, and adsorption controls.","contrary":"Residence differences vanish after adsorption correction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0414","hypothesis":"A patterned wettable wall should bias dye residence times without measurably changing mean water speed.","prediction":"A patterned wettable wall should bias dye residence times without measurably changing mean water speed.","test":"Compare food-dye tails, water velocity, and adsorption controls.","contrary_outcome":"Residence differences vanish after adsorption correction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0415","id":"S7-0415","volume":"900v7","title":"A compliant pocket should produce a second outlet-flow maximum after a single inlet pulse.","prediction":"A compliant pocket should produce a second outlet-flow maximum after a single inlet pulse.","test":"Measure low-head water flow and pocket volume with rigid controls.","contrary":"All secondary maxima arise from pump artifacts.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0415","hypothesis":"A compliant pocket should produce a second outlet-flow maximum after a single inlet pulse.","prediction":"A compliant pocket should produce a second outlet-flow maximum after a single inlet pulse.","test":"Measure low-head water flow and pocket volume with rigid controls.","contrary_outcome":"All secondary maxima arise from pump artifacts.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0415","hypothesis":"A compliant pocket should produce a second outlet-flow maximum after a single inlet pulse.","prediction":"A compliant pocket should produce a second outlet-flow maximum after a single inlet pulse.","test":"Measure low-head water flow and pocket volume with rigid controls.","contrary_outcome":"All secondary maxima arise from pump artifacts.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0416","id":"S7-0416","volume":"900v7","title":"A water bridge across a channel should clear suspended inert particles asymmetrically when one contact line is deliberately pinned.","prediction":"A water bridge across a channel should clear suspended inert particles asymmetrically when one contact line is deliberately pinned.","test":"Image particles and both contact lines during slow bridge motion.","contrary":"Particle clearing is symmetric after matching local water speed.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0416","hypothesis":"A water bridge across a channel should clear suspended inert particles asymmetrically when one contact line is deliberately pinned.","prediction":"A water bridge across a channel should clear suspended inert particles asymmetrically when one contact line is deliberately pinned.","test":"Image particles and both contact lines during slow bridge motion.","contrary_outcome":"Particle clearing is symmetric after matching local water speed.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0417","id":"S7-0417","volume":"900v7","title":"A porous floor should reduce recirculation trapping more strongly for diffusing dye than for inert particles.","prediction":"A porous floor should reduce recirculation trapping more strongly for diffusing dye than for inert particles.","test":"Compare both tracers with measured pore flow and particle exclusion.","contrary":"Normalized residence changes are equal for both tracers.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0417","hypothesis":"A porous floor should reduce recirculation trapping more strongly for diffusing dye than for inert particles.","prediction":"A porous floor should reduce recirculation trapping more strongly for diffusing dye than for inert particles.","test":"Compare both tracers with measured pore flow and particle exclusion.","contrary_outcome":"Normalized residence changes are equal for both tracers.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0418","id":"S7-0418","volume":"900v7","title":"A bent channel should retain memory of an earlier strong flow through slow wall recovery even after the weak-flow pressure returns.","prediction":"A bent channel should retain memory of an earlier strong flow through slow wall recovery even after the weak-flow pressure returns.","test":"Measure benign soft channels with internal geometry and flow sensing.","contrary":"Weak-flow state depends only on current pressure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0418","hypothesis":"A bent channel should retain memory of an earlier strong flow through slow wall recovery even after the weak-flow pressure returns.","prediction":"A bent channel should retain memory of an earlier strong flow through slow wall recovery even after the weak-flow pressure returns.","test":"Measure benign soft channels with internal geometry and flow sensing.","contrary_outcome":"Weak-flow state depends only on current pressure.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0419","id":"S7-0419","volume":"900v7","title":"A shallow dam's wetted underside should determine the first downstream droplet location more strongly than its top roughness.","prediction":"A shallow dam's wetted underside should determine the first downstream droplet location more strongly than its top roughness.","test":"Control benign surface patterns and measure low-rate water release.","contrary":"Droplet location follows top roughness alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0419","hypothesis":"A shallow dam's wetted underside should determine the first downstream droplet location more strongly than its top roughness.","prediction":"A shallow dam's wetted underside should determine the first downstream droplet location more strongly than its top roughness.","test":"Control benign surface patterns and measure low-rate water release.","contrary_outcome":"Droplet location follows top roughness alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0420","id":"S7-0420","volume":"900v7","title":"A vented water cavity should refill with fewer trapped bubbles when its wall is released gradually than abruptly.","prediction":"A vented water cavity should refill with fewer trapped bubbles when its wall is released gradually than abruptly.","test":"Compare equal final geometry, water head, and imaged trapped-air volume.","contrary":"Bubble volume depends only on final geometry and filling rate.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0420","hypothesis":"A vented water cavity should refill with fewer trapped bubbles when its wall is released gradually than abruptly.","prediction":"A vented water cavity should refill with fewer trapped bubbles when its wall is released gradually than abruptly.","test":"Compare equal final geometry, water head, and imaged trapped-air volume.","contrary_outcome":"Bubble volume depends only on final geometry and filling rate.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0421","id":"S7-0421","volume":"900v7","title":"A quiet acoustic sweep should distinguish a loose cavity partition from an equal-volume rigid obstruction through phase hysteresis.","prediction":"A quiet acoustic sweep should distinguish a loose cavity partition from an equal-volume rigid obstruction through phase hysteresis.","test":"Compare reversible sweeps with independent partition-motion imaging.","contrary":"Both configurations have indistinguishable phase histories.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0421","hypothesis":"A quiet acoustic sweep should distinguish a loose cavity partition from an equal-volume rigid obstruction through phase hysteresis.","prediction":"A quiet acoustic sweep should distinguish a loose cavity partition from an equal-volume rigid obstruction through phase hysteresis.","test":"Compare reversible sweeps with independent partition-motion imaging.","contrary_outcome":"Both configurations have indistinguishable phase histories.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0422","id":"S7-0422","volume":"900v7","title":"A narrow fabric seam should concentrate vibrational energy after adjacent fabric becomes damp.","prediction":"A narrow fabric seam should concentrate vibrational energy after adjacent fabric becomes damp.","test":"Map low-amplitude motion and moisture with equal-mass controls.","contrary":"Energy follows added mass without seam localization.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0422","hypothesis":"A narrow fabric seam should concentrate vibrational energy after adjacent fabric becomes damp.","prediction":"A narrow fabric seam should concentrate vibrational energy after adjacent fabric becomes damp.","test":"Map low-amplitude motion and moisture with equal-mass controls.","contrary_outcome":"Energy follows added mass without seam localization.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0423","id":"S7-0423","volume":"900v7","title":"A soft beam's second harmonic should rise before its fundamental frequency shifts during intermittent support contact.","prediction":"A soft beam's second harmonic should rise before its fundamental frequency shifts during intermittent support contact.","test":"Measure spectra with optical contact labels.","contrary":"Harmonic growth occurs equally without contact.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0423","hypothesis":"A soft beam's second harmonic should rise before its fundamental frequency shifts during intermittent support contact.","prediction":"A soft beam's second harmonic should rise before its fundamental frequency shifts during intermittent support contact.","test":"Measure spectra with optical contact labels.","contrary_outcome":"Harmonic growth occurs equally without contact.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0424","id":"S7-0424","volume":"900v7","title":"A sliding bridge on a taut string should leave a transient mode mixture after it stops.","prediction":"A sliding bridge on a taut string should leave a transient mode mixture after it stops.","test":"Track bridge motion and spectra across stopping rates.","contrary":"Final spectra depend only on bridge position.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0424","hypothesis":"A sliding bridge on a taut string should leave a transient mode mixture after it stops.","prediction":"A sliding bridge on a taut string should leave a transient mode mixture after it stops.","test":"Track bridge motion and spectra across stopping rates.","contrary_outcome":"Final spectra depend only on bridge position.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0425","id":"S7-0425","volume":"900v7","title":"Two weak impacts at separated points should localize a plate's hidden soft support better than one impact.","prediction":"Two weak impacts at separated points should localize a plate's hidden soft support better than one impact.","test":"Validate concealed support locations with matched total input energy.","contrary":"Localization gains vanish at matched energy.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0425","hypothesis":"Two weak impacts at separated points should localize a plate's hidden soft support better than one impact.","prediction":"Two weak impacts at separated points should localize a plate's hidden soft support better than one impact.","test":"Validate concealed support locations with matched total input energy.","contrary_outcome":"Localization gains vanish at matched energy.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0426","id":"S7-0426","volume":"900v7","title":"A partially wetted acoustic mesh should produce greater response variability during drying than during wetting at equal water mass.","prediction":"A partially wetted acoustic mesh should produce greater response variability during drying than during wetting at equal water mass.","test":"Measure quiet transmission and bridge topology.","contrary":"Variability depends only on total water mass.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0426","hypothesis":"A partially wetted acoustic mesh should produce greater response variability during drying than during wetting at equal water mass.","prediction":"A partially wetted acoustic mesh should produce greater response variability during drying than during wetting at equal water mass.","test":"Measure quiet transmission and bridge topology.","contrary_outcome":"Variability depends only on total water mass.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0427","id":"S7-0427","volume":"900v7","title":"A flexible cavity wall should shift acoustic decay after a pressure cycle even when its mean position recovers.","prediction":"A flexible cavity wall should shift acoustic decay after a pressure cycle even when its mean position recovers.","test":"Record low-level spectra and full wall profiles.","contrary":"Decay returns whenever wall geometry recovers.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0427","hypothesis":"A flexible cavity wall should shift acoustic decay after a pressure cycle even when its mean position recovers.","prediction":"A flexible cavity wall should shift acoustic decay after a pressure cycle even when its mean position recovers.","test":"Record low-level spectra and full wall profiles.","contrary_outcome":"Decay returns whenever wall geometry recovers.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0428","id":"S7-0428","volume":"900v7","title":"A small crack in a vibrating polymer strip should generate amplitude-dependent phase lag before visible crack growth.","prediction":"A small crack in a vibrating polymer strip should generate amplitude-dependent phase lag before visible crack growth.","test":"Use low-energy vibration, microscopy, and intact controls.","contrary":"Lag is explained by bulk viscoelasticity alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0428","hypothesis":"A small crack in a vibrating polymer strip should generate amplitude-dependent phase lag before visible crack growth.","prediction":"A small crack in a vibrating polymer strip should generate amplitude-dependent phase lag before visible crack growth.","test":"Use low-energy vibration, microscopy, and intact controls.","contrary_outcome":"Lag is explained by bulk viscoelasticity alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0429","id":"S7-0429","volume":"900v7","title":"A braided cord's pulse speed should depend on preload direction after zero-force recovery.","prediction":"A braided cord's pulse speed should depend on preload direction after zero-force recovery.","test":"Compare gentle pulses after reversed low-load histories.","contrary":"Speed is independent of preload history.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0429","hypothesis":"A braided cord's pulse speed should depend on preload direction after zero-force recovery.","prediction":"A braided cord's pulse speed should depend on preload direction after zero-force recovery.","test":"Compare gentle pulses after reversed low-load histories.","contrary_outcome":"Speed is independent of preload history.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0429","hypothesis":"A braided cord's pulse speed should depend on preload direction after zero-force recovery.","prediction":"A braided cord's pulse speed should depend on preload direction after zero-force recovery.","test":"Compare gentle pulses after reversed low-load histories.","contrary_outcome":"Speed is independent of preload history.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0430","id":"S7-0430","volume":"900v7","title":"A water-loaded membrane should have different damping for connected and disconnected liquid islands at equal mass.","prediction":"A water-loaded membrane should have different damping for connected and disconnected liquid islands at equal mass.","test":"Map vibration and liquid connectivity.","contrary":"Damping depends only on mass distribution.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0430","hypothesis":"A water-loaded membrane should have different damping for connected and disconnected liquid islands at equal mass.","prediction":"A water-loaded membrane should have different damping for connected and disconnected liquid islands at equal mass.","test":"Map vibration and liquid connectivity.","contrary_outcome":"Damping depends only on mass distribution.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0431","id":"S7-0431","volume":"900v7","title":"A soft stop should delay the first reflected wave more after a long hold than a short hold.","prediction":"A soft stop should delay the first reflected wave more after a long hold than a short hold.","test":"Measure gentle pulse reflections and contact geometry.","contrary":"Delay is a unique function of current force.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0431","hypothesis":"A soft stop should delay the first reflected wave more after a long hold than a short hold.","prediction":"A soft stop should delay the first reflected wave more after a long hold than a short hold.","test":"Measure gentle pulse reflections and contact geometry.","contrary_outcome":"Delay is a unique function of current force.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0432","id":"S7-0432","volume":"900v7","title":"A hinged baffle should distinguish airflow direction through its quiet acoustic response at equal mean opening.","prediction":"A hinged baffle should distinguish airflow direction through its quiet acoustic response at equal mean opening.","test":"Measure two-direction flow, sound phase, and flap motion.","contrary":"Responses depend only on mean opening.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0432","hypothesis":"A hinged baffle should distinguish airflow direction through its quiet acoustic response at equal mean opening.","prediction":"A hinged baffle should distinguish airflow direction through its quiet acoustic response at equal mean opening.","test":"Measure two-direction flow, sound phase, and flap motion.","contrary_outcome":"Responses depend only on mean opening.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0433","id":"S7-0433","volume":"900v7","title":"A small distributed mass should reveal membrane slack more reliably through mode-shape changes than frequency changes.","prediction":"A small distributed mass should reveal membrane slack more reliably through mode-shape changes than frequency changes.","test":"Compare calibrated slack levels with spatial-frequency noise matching.","contrary":"Both observables have equal detection limits.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0433","hypothesis":"A small distributed mass should reveal membrane slack more reliably through mode-shape changes than frequency changes.","prediction":"A small distributed mass should reveal membrane slack more reliably through mode-shape changes than frequency changes.","test":"Compare calibrated slack levels with spatial-frequency noise matching.","contrary_outcome":"Both observables have equal detection limits.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0434","id":"S7-0434","volume":"900v7","title":"A weakly clamped panel should show phase discontinuities during a slow frequency sweep before measurable clamp slip.","prediction":"A weakly clamped panel should show phase discontinuities during a slow frequency sweep before measurable clamp slip.","test":"Synchronize quiet excitation and high-resolution joint imaging.","contrary":"Discontinuities require resolved slip or source distortion.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0434","hypothesis":"A weakly clamped panel should show phase discontinuities during a slow frequency sweep before measurable clamp slip.","prediction":"A weakly clamped panel should show phase discontinuities during a slow frequency sweep before measurable clamp slip.","test":"Synchronize quiet excitation and high-resolution joint imaging.","contrary_outcome":"Discontinuities require resolved slip or source distortion.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0435","id":"S7-0435","volume":"900v7","title":"A liquid-filled side tube should reduce one cavity resonance while leaving a neighboring resonance nearly unchanged.","prediction":"A liquid-filled side tube should reduce one cavity resonance while leaving a neighboring resonance nearly unchanged.","test":"Measure quiet spectra over controlled liquid heights.","contrary":"Attenuation changes equally across both resonances.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0435","hypothesis":"A liquid-filled side tube should reduce one cavity resonance while leaving a neighboring resonance nearly unchanged.","prediction":"A liquid-filled side tube should reduce one cavity resonance while leaving a neighboring resonance nearly unchanged.","test":"Measure quiet spectra over controlled liquid heights.","contrary_outcome":"Attenuation changes equally across both resonances.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0436","id":"S7-0436","volume":"900v7","title":"A tapered string should reflect a pulse differently from a stepped string with the same endpoint impedances.","prediction":"A tapered string should reflect a pulse differently from a stepped string with the same endpoint impedances.","test":"Compare gentle pulses and measured material profiles.","contrary":"Endpoint impedances alone determine reflection.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0436","hypothesis":"A tapered string should reflect a pulse differently from a stepped string with the same endpoint impedances.","prediction":"A tapered string should reflect a pulse differently from a stepped string with the same endpoint impedances.","test":"Compare gentle pulses and measured material profiles.","contrary_outcome":"Endpoint impedances alone determine reflection.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0437","id":"S7-0437","volume":"900v7","title":"A soft ring's vibration axis should rotate during contact aging under fixed load.","prediction":"A soft ring's vibration axis should rotate during contact aging under fixed load.","test":"Map mode shapes and contact patches over rest time.","contrary":"Axis is stationary after initial seating.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0437","hypothesis":"A soft ring's vibration axis should rotate during contact aging under fixed load.","prediction":"A soft ring's vibration axis should rotate during contact aging under fixed load.","test":"Map mode shapes and contact patches over rest time.","contrary_outcome":"Axis is stationary after initial seating.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0438","id":"S7-0438","volume":"900v7","title":"A fabric patch should suppress a plate mode more when its edges are free than fully bonded.","prediction":"A fabric patch should suppress a plate mode more when its edges are free than fully bonded.","test":"Compare low-amplitude responses at matched patch mass.","contrary":"Bonded patches always provide equal or greater damping.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0438","hypothesis":"A fabric patch should suppress a plate mode more when its edges are free than fully bonded.","prediction":"A fabric patch should suppress a plate mode more when its edges are free than fully bonded.","test":"Compare low-amplitude responses at matched patch mass.","contrary_outcome":"Bonded patches always provide equal or greater damping.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0438","hypothesis":"A fabric patch should suppress a plate mode more when its edges are free than fully bonded.","prediction":"A fabric patch should suppress a plate mode more when its edges are free than fully bonded.","test":"Compare low-amplitude responses at matched patch mass.","contrary_outcome":"Bonded patches always provide equal or greater damping.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0439","id":"S7-0439","volume":"900v7","title":"A bubble-filled pocket should alter the sign of a transmitted pressure-pulse feature as pocket pressure changes.","prediction":"A bubble-filled pocket should alter the sign of a transmitted pressure-pulse feature as pocket pressure changes.","test":"Use rated low-pressure water models and synchronized bubble imaging.","contrary":"Feature polarity remains fixed across pressures.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0439","hypothesis":"A bubble-filled pocket should alter the sign of a transmitted pressure-pulse feature as pocket pressure changes.","prediction":"A bubble-filled pocket should alter the sign of a transmitted pressure-pulse feature as pocket pressure changes.","test":"Use rated low-pressure water models and synchronized bubble imaging.","contrary_outcome":"Feature polarity remains fixed across pressures.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0440","id":"S7-0440","volume":"900v7","title":"A single slipping contact should make a mechanical network's response less repeatable before its mean stiffness changes.","prediction":"A single slipping contact should make a mechanical network's response less repeatable before its mean stiffness changes.","test":"Measure repeated small pulses and individual contact motion.","contrary":"Variability rises only after stiffness shifts.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0440","hypothesis":"A single slipping contact should make a mechanical network's response less repeatable before its mean stiffness changes.","prediction":"A single slipping contact should make a mechanical network's response less repeatable before its mean stiffness changes.","test":"Measure repeated small pulses and individual contact motion.","contrary_outcome":"Variability rises only after stiffness shifts.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0441","id":"S7-0441","volume":"900v7","title":"A two-angle reflection image should separate dry surface roughening from a thin water coating.","prediction":"A two-angle reflection image should separate dry surface roughening from a thin water coating.","test":"Validate benign surfaces with independent roughness and film measurements.","contrary":"The states remain indistinguishable at matched brightness.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0441","hypothesis":"A two-angle reflection image should separate dry surface roughening from a thin water coating.","prediction":"A two-angle reflection image should separate dry surface roughening from a thin water coating.","test":"Validate benign surfaces with independent roughness and film measurements.","contrary_outcome":"The states remain indistinguishable at matched brightness.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0442","id":"S7-0442","volume":"900v7","title":"A projected grid should detect nonuniform swelling beneath an opaque porous skin through skin curvature.","prediction":"A projected grid should detect nonuniform swelling beneath an opaque porous skin through skin curvature.","test":"Compare benign gel models with independent sectioned moisture profiles.","contrary":"Grid changes reflect only uniform bulk swelling.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0442","hypothesis":"A projected grid should detect nonuniform swelling beneath an opaque porous skin through skin curvature.","prediction":"A projected grid should detect nonuniform swelling beneath an opaque porous skin through skin curvature.","test":"Compare benign gel models with independent sectioned moisture profiles.","contrary_outcome":"Grid changes reflect only uniform bulk swelling.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0443","id":"S7-0443","volume":"900v7","title":"A rotating diffuser should improve optical bubble counts in a strongly directional light field.","prediction":"A rotating diffuser should improve optical bubble counts in a strongly directional light field.","test":"Compare counts with independent high-resolution ground truth.","contrary":"Counts remain equally biased after photon matching.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0443","hypothesis":"A rotating diffuser should improve optical bubble counts in a strongly directional light field.","prediction":"A rotating diffuser should improve optical bubble counts in a strongly directional light field.","test":"Compare counts with independent high-resolution ground truth.","contrary_outcome":"Counts remain equally biased after photon matching.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0444","id":"S7-0444","volume":"900v7","title":"A transparent hinge's polarized contrast should distinguish stretching from torsion at equal endpoint displacement.","prediction":"A transparent hinge's polarized contrast should distinguish stretching from torsion at equal endpoint displacement.","test":"Apply calibrated mixed motions and evaluate blinded classification.","contrary":"Contrast tracks only displacement magnitude.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0444","hypothesis":"A transparent hinge's polarized contrast should distinguish stretching from torsion at equal endpoint displacement.","prediction":"A transparent hinge's polarized contrast should distinguish stretching from torsion at equal endpoint displacement.","test":"Apply calibrated mixed motions and evaluate blinded classification.","contrary_outcome":"Contrast tracks only displacement magnitude.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0445","id":"S7-0445","volume":"900v7","title":"A gently loaded glass bead should show different contact-fringe recovery after rolling and sliding histories.","prediction":"A gently loaded glass bead should show different contact-fringe recovery after rolling and sliding histories.","test":"Image benign low-load contacts with matched final position.","contrary":"Fringes recover identically in both histories.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0445","hypothesis":"A gently loaded glass bead should show different contact-fringe recovery after rolling and sliding histories.","prediction":"A gently loaded glass bead should show different contact-fringe recovery after rolling and sliding histories.","test":"Image benign low-load contacts with matched final position.","contrary_outcome":"Fringes recover identically in both histories.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0446","id":"S7-0446","volume":"900v7","title":"A thin liquid film should create a detectable reflected-pattern kink before its advancing edge enters the main camera view.","prediction":"A thin liquid film should create a detectable reflected-pattern kink before its advancing edge enters the main camera view.","test":"Use known geometry and independent side-view front timing.","contrary":"No reliable lead remains after optical-path calibration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0446","hypothesis":"A thin liquid film should create a detectable reflected-pattern kink before its advancing edge enters the main camera view.","prediction":"A thin liquid film should create a detectable reflected-pattern kink before its advancing edge enters the main camera view.","test":"Use known geometry and independent side-view front timing.","contrary_outcome":"No reliable lead remains after optical-path calibration.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0447","id":"S7-0447","volume":"900v7","title":"A wet porous wall should scatter light differently during filling and draining at equal saturation.","prediction":"A wet porous wall should scatter light differently during filling and draining at equal saturation.","test":"Measure angular scattering and independently mapped pore occupancy.","contrary":"Saturation alone determines scattering.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0447","hypothesis":"A wet porous wall should scatter light differently during filling and draining at equal saturation.","prediction":"A wet porous wall should scatter light differently during filling and draining at equal saturation.","test":"Measure angular scattering and independently mapped pore occupancy.","contrary_outcome":"Saturation alone determines scattering.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0448","id":"S7-0448","volume":"900v7","title":"A concealed air gap should shift an optical membrane's vibration phase more than its mean reflectance.","prediction":"A concealed air gap should shift an optical membrane's vibration phase more than its mean reflectance.","test":"Compare calibrated gaps with matched static appearance.","contrary":"Both measures have equal gap sensitivity.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0448","hypothesis":"A concealed air gap should shift an optical membrane's vibration phase more than its mean reflectance.","prediction":"A concealed air gap should shift an optical membrane's vibration phase more than its mean reflectance.","test":"Compare calibrated gaps with matched static appearance.","contrary_outcome":"Both measures have equal gap sensitivity.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0449","id":"S7-0449","volume":"900v7","title":"A coarse camera should locate a small crack more accurately from reversible load-induced image differences than a static image.","prediction":"A coarse camera should locate a small crack more accurately from reversible load-induced image differences than a static image.","test":"Validate benign transparent coupons with concealed cracks.","contrary":"Differencing adds no localization accuracy at matched exposure.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0449","hypothesis":"A coarse camera should locate a small crack more accurately from reversible load-induced image differences than a static image.","prediction":"A coarse camera should locate a small crack more accurately from reversible load-induced image differences than a static image.","test":"Validate benign transparent coupons with concealed cracks.","contrary_outcome":"Differencing adds no localization accuracy at matched exposure.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0449","hypothesis":"A coarse camera should locate a small crack more accurately from reversible load-induced image differences than a static image.","prediction":"A coarse camera should locate a small crack more accurately from reversible load-induced image differences than a static image.","test":"Validate benign transparent coupons with concealed cracks.","contrary_outcome":"Differencing adds no localization accuracy at matched exposure.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0450","id":"S7-0450","volume":"900v7","title":"A folded transparent film should retain an optical signature of stress after its fold angle returns.","prediction":"A folded transparent film should retain an optical signature of stress after its fold angle returns.","test":"Measure polarized images and independent residual-force relaxation.","contrary":"Optical contrast vanishes whenever angle recovers.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0450","hypothesis":"A folded transparent film should retain an optical signature of stress after its fold angle returns.","prediction":"A folded transparent film should retain an optical signature of stress after its fold angle returns.","test":"Measure polarized images and independent residual-force relaxation.","contrary_outcome":"Optical contrast vanishes whenever angle recovers.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0451","id":"S7-0451","volume":"900v7","title":"A drop's apparent refractive index should be biased by unresolved contact-line asymmetry in single-view measurements.","prediction":"A drop's apparent refractive index should be biased by unresolved contact-line asymmetry in single-view measurements.","test":"Compare multi-view reconstruction against known water-glycerol standards.","contrary":"Single-view estimates remain accurate across asymmetry.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0451","hypothesis":"A drop's apparent refractive index should be biased by unresolved contact-line asymmetry in single-view measurements.","prediction":"A drop's apparent refractive index should be biased by unresolved contact-line asymmetry in single-view measurements.","test":"Compare multi-view reconstruction against known water-glycerol standards.","contrary_outcome":"Single-view estimates remain accurate across asymmetry.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0452","id":"S7-0452","volume":"900v7","title":"A moving shadow should reveal slow surface creep more accurately than fixed texture tracking on a reflective sample.","prediction":"A moving shadow should reveal slow surface creep more accurately than fixed texture tracking on a reflective sample.","test":"Compare benign creeping films with independent displacement sensing.","contrary":"Shadow estimates show no advantage after noise matching.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0452","hypothesis":"A moving shadow should reveal slow surface creep more accurately than fixed texture tracking on a reflective sample.","prediction":"A moving shadow should reveal slow surface creep more accurately than fixed texture tracking on a reflective sample.","test":"Compare benign creeping films with independent displacement sensing.","contrary_outcome":"Shadow estimates show no advantage after noise matching.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0453","id":"S7-0453","volume":"900v7","title":"A water-filled slit should exhibit an image-correlation transition when disconnected pockets first connect.","prediction":"A water-filled slit should exhibit an image-correlation transition when disconnected pockets first connect.","test":"Track transparent benign slit filling with independent connectivity labels.","contrary":"Correlation changes depend only on total wet area.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0453","hypothesis":"A water-filled slit should exhibit an image-correlation transition when disconnected pockets first connect.","prediction":"A water-filled slit should exhibit an image-correlation transition when disconnected pockets first connect.","test":"Track transparent benign slit filling with independent connectivity labels.","contrary_outcome":"Correlation changes depend only on total wet area.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0454","id":"S7-0454","volume":"900v7","title":"A polarized illumination pair should identify local fiber rotation before bulk paper strain becomes measurable.","prediction":"A polarized illumination pair should identify local fiber rotation before bulk paper strain becomes measurable.","test":"Compare benign sheets with microscope fiber orientation and strain references.","contrary":"Contrast changes begin only with resolved bulk strain.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0454","hypothesis":"A polarized illumination pair should identify local fiber rotation before bulk paper strain becomes measurable.","prediction":"A polarized illumination pair should identify local fiber rotation before bulk paper strain becomes measurable.","test":"Compare benign sheets with microscope fiber orientation and strain references.","contrary_outcome":"Contrast changes begin only with resolved bulk strain.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0455","id":"S7-0455","volume":"900v7","title":"A balance mounted on three unequal supports should show a rotating apparent load offset as a constant mass moves around a circular path.","prediction":"A balance mounted on three unequal supports should show a rotating apparent load offset as a constant mass moves around a circular path.","test":"Measure support motion and independent mass with a rigid-base reference.","contrary":"Offset depends only on true mass and distance from center.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0455","hypothesis":"A balance mounted on three unequal supports should show a rotating apparent load offset as a constant mass moves around a circular path.","prediction":"A balance mounted on three unequal supports should show a rotating apparent load offset as a constant mass moves around a circular path.","test":"Measure support motion and independent mass with a rigid-base reference.","contrary_outcome":"Offset depends only on true mass and distance from center.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0456","id":"S7-0456","volume":"900v7","title":"A thin oil layer should change water-wave optical slope estimates even when the true slopes are unchanged.","prediction":"A thin oil layer should change water-wave optical slope estimates even when the true slopes are unchanged.","test":"Compare food-grade films with independent side-view wave measurements.","contrary":"Optical estimates remain unchanged after static calibration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0456","hypothesis":"A thin oil layer should change water-wave optical slope estimates even when the true slopes are unchanged.","prediction":"A thin oil layer should change water-wave optical slope estimates even when the true slopes are unchanged.","test":"Compare food-grade films with independent side-view wave measurements.","contrary_outcome":"Optical estimates remain unchanged after static calibration.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0457","id":"S7-0457","volume":"900v7","title":"A line of illuminated dust markers should reveal rolling contact more reliably than a single marker.","prediction":"A line of illuminated dust markers should reveal rolling contact more reliably than a single marker.","test":"Compare benign particles with independently measured rotation and translation.","contrary":"Additional markers improve only photon count, not identifiability.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0457","hypothesis":"A line of illuminated dust markers should reveal rolling contact more reliably than a single marker.","prediction":"A line of illuminated dust markers should reveal rolling contact more reliably than a single marker.","test":"Compare benign particles with independently measured rotation and translation.","contrary_outcome":"Additional markers improve only photon count, not identifiability.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0458","id":"S7-0458","volume":"900v7","title":"A vibrating transparent wall should create a false particle-speed gradient strongest near its edges.","prediction":"A vibrating transparent wall should create a false particle-speed gradient strongest near its edges.","test":"Measure static and flowing benign cells with independent wall motion.","contrary":"Apparent gradients reflect actual fluid velocity only.","layers":[1,2],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0458","hypothesis":"A vibrating transparent wall should create a false particle-speed gradient strongest near its edges.","prediction":"A vibrating transparent wall should create a false particle-speed gradient strongest near its edges.","test":"Measure static and flowing benign cells with independent wall motion.","contrary_outcome":"Apparent gradients reflect actual fluid velocity only.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0458","hypothesis":"A vibrating transparent wall should create a false particle-speed gradient strongest near its edges.","prediction":"A vibrating transparent wall should create a false particle-speed gradient strongest near its edges.","test":"Measure static and flowing benign cells with independent wall motion.","contrary_outcome":"Apparent gradients reflect actual fluid velocity only.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0459","id":"S7-0459","volume":"900v7","title":"A water meniscus should produce different apparent roughness maps under opposite illumination directions.","prediction":"A water meniscus should produce different apparent roughness maps under opposite illumination directions.","test":"Compare optical maps with independently measured solid profiles.","contrary":"Both directions recover the same roughness without meniscus correction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0459","hypothesis":"A water meniscus should produce different apparent roughness maps under opposite illumination directions.","prediction":"A water meniscus should produce different apparent roughness maps under opposite illumination directions.","test":"Compare optical maps with independently measured solid profiles.","contrary_outcome":"Both directions recover the same roughness without meniscus correction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0460","id":"S7-0460","volume":"900v7","title":"A weak reference reflection should separate camera focus drift from gel thickness change.","prediction":"A weak reference reflection should separate camera focus drift from gel thickness change.","test":"Validate benign gels under independent focus and swelling changes.","contrary":"Both parameters remain inseparable after referencing.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0460","hypothesis":"A weak reference reflection should separate camera focus drift from gel thickness change.","prediction":"A weak reference reflection should separate camera focus drift from gel thickness change.","test":"Validate benign gels under independent focus and swelling changes.","contrary_outcome":"Both parameters remain inseparable after referencing.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0461","id":"S7-0461","volume":"900v7","title":"A saline wetting path should become electrically continuous before its projected wet area stops fragmenting.","prediction":"A saline wetting path should become electrically continuous before its projected wet area stops fragmenting.","test":"Synchronize low-current maps and microscope water images.","contrary":"Continuity occurs only after projected regions merge visibly.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0461","hypothesis":"A saline wetting path should become electrically continuous before its projected wet area stops fragmenting.","prediction":"A saline wetting path should become electrically continuous before its projected wet area stops fragmenting.","test":"Synchronize low-current maps and microscope water images.","contrary_outcome":"Continuity occurs only after projected regions merge visibly.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0462","id":"S7-0462","volume":"900v7","title":"A weak magnetic bias should shift a soft hinge's release timing without changing its final angle.","prediction":"A weak magnetic bias should shift a soft hinge's release timing without changing its final angle.","test":"Use enclosed magnets and measured low-force torque ramps.","contrary":"Timing changes only when equilibrium angle changes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0462","hypothesis":"A weak magnetic bias should shift a soft hinge's release timing without changing its final angle.","prediction":"A weak magnetic bias should shift a soft hinge's release timing without changing its final angle.","test":"Use enclosed magnets and measured low-force torque ramps.","contrary_outcome":"Timing changes only when equilibrium angle changes.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0463","id":"S7-0463","volume":"900v7","title":"A folded conductive sheet should show resistance hysteresis caused by temporary layer contacts rather than permanent cracking.","prediction":"A folded conductive sheet should show resistance hysteresis caused by temporary layer contacts rather than permanent cracking.","test":"Measure low-current maps and independent crack/contact images.","contrary":"Hysteresis remains after all temporary contacts are excluded.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0463","hypothesis":"A folded conductive sheet should show resistance hysteresis caused by temporary layer contacts rather than permanent cracking.","prediction":"A folded conductive sheet should show resistance hysteresis caused by temporary layer contacts rather than permanent cracking.","test":"Measure low-current maps and independent crack/contact images.","contrary_outcome":"Hysteresis remains after all temporary contacts are excluded.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0464","id":"S7-0464","volume":"900v7","title":"A capacitive sensor should distinguish radial from axial compression of a wet porous cylinder.","prediction":"A capacitive sensor should distinguish radial from axial compression of a wet porous cylinder.","test":"Use orthogonal low-voltage electrodes and independent strain maps.","contrary":"Signals depend only on total volume change.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0464","hypothesis":"A capacitive sensor should distinguish radial from axial compression of a wet porous cylinder.","prediction":"A capacitive sensor should distinguish radial from axial compression of a wet porous cylinder.","test":"Use orthogonal low-voltage electrodes and independent strain maps.","contrary_outcome":"Signals depend only on total volume change.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0465","id":"S7-0465","volume":"900v7","title":"A graphite contact should develop spatially localized noise before its mean conductance deteriorates under mild abrasion.","prediction":"A graphite contact should develop spatially localized noise before its mean conductance deteriorates under mild abrasion.","test":"Map low-current voltage fluctuations with optical wear labels.","contrary":"Noise remains spatially uniform or follows only mean resistance.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0465","hypothesis":"A graphite contact should develop spatially localized noise before its mean conductance deteriorates under mild abrasion.","prediction":"A graphite contact should develop spatially localized noise before its mean conductance deteriorates under mild abrasion.","test":"Map low-current voltage fluctuations with optical wear labels.","contrary_outcome":"Noise remains spatially uniform or follows only mean resistance.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0466","id":"S7-0466","volume":"900v7","title":"A magnetic marker inside a soft tube should reveal torsional recovery after the tube outline stabilizes.","prediction":"A magnetic marker inside a soft tube should reveal torsional recovery after the tube outline stabilizes.","test":"Compare enclosed weak markers with local optical orientation references.","contrary":"Twist recovery stops with outline recovery.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0466","hypothesis":"A magnetic marker inside a soft tube should reveal torsional recovery after the tube outline stabilizes.","prediction":"A magnetic marker inside a soft tube should reveal torsional recovery after the tube outline stabilizes.","test":"Compare enclosed weak markers with local optical orientation references.","contrary_outcome":"Twist recovery stops with outline recovery.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0467","id":"S7-0467","volume":"900v7","title":"A wet perimeter should increase electrical coupling between isolated conductive islands before direct liquid bridges become visible.","prediction":"A wet perimeter should increase electrical coupling between isolated conductive islands before direct liquid bridges become visible.","test":"Measure low-voltage coupling and independently calibrated bridge imaging.","contrary":"Coupling changes only after resolved liquid contact.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0467","hypothesis":"A wet perimeter should increase electrical coupling between isolated conductive islands before direct liquid bridges become visible.","prediction":"A wet perimeter should increase electrical coupling between isolated conductive islands before direct liquid bridges become visible.","test":"Measure low-voltage coupling and independently calibrated bridge imaging.","contrary_outcome":"Coupling changes only after resolved liquid contact.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0468","id":"S7-0468","volume":"900v7","title":"A carbon-coated mesh should distinguish shear direction through its resistance tensor after unloading.","prediction":"A carbon-coated mesh should distinguish shear direction through its resistance tensor after unloading.","test":"Measure orthogonal low-current paths and loop geometry.","contrary":"Recovered resistance is isotropic at matched outline.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0468","hypothesis":"A carbon-coated mesh should distinguish shear direction through its resistance tensor after unloading.","prediction":"A carbon-coated mesh should distinguish shear direction through its resistance tensor after unloading.","test":"Measure orthogonal low-current paths and loop geometry.","contrary_outcome":"Recovered resistance is isotropic at matched outline.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0469","id":"S7-0469","volume":"900v7","title":"A sealed air pocket should create different capacitance recovery after equal positive and negative pressure pulses.","prediction":"A sealed air pocket should create different capacitance recovery after equal positive and negative pressure pulses.","test":"Measure low-pressure pocket geometry with external electrodes.","contrary":"Recovery curves mirror perfectly after sign reversal.","layers":[1,2],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0469","hypothesis":"A sealed air pocket should create different capacitance recovery after equal positive and negative pressure pulses.","prediction":"A sealed air pocket should create different capacitance recovery after equal positive and negative pressure pulses.","test":"Measure low-pressure pocket geometry with external electrodes.","contrary_outcome":"Recovery curves mirror perfectly after sign reversal.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0469","hypothesis":"A sealed air pocket should create different capacitance recovery after equal positive and negative pressure pulses.","prediction":"A sealed air pocket should create different capacitance recovery after equal positive and negative pressure pulses.","test":"Measure low-pressure pocket geometry with external electrodes.","contrary_outcome":"Recovery curves mirror perfectly after sign reversal.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0470","id":"S7-0470","volume":"900v7","title":"A magnetic bead chain should show a delayed mechanical release after a weak field is removed if contacts are frictionally locked.","prediction":"A magnetic bead chain should show a delayed mechanical release after a weak field is removed if contacts are frictionally locked.","test":"Track enclosed low-energy chains and individual contact forces.","contrary":"Release is immediate or governed solely by magnetic decay.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0470","hypothesis":"A magnetic bead chain should show a delayed mechanical release after a weak field is removed if contacts are frictionally locked.","prediction":"A magnetic bead chain should show a delayed mechanical release after a weak field is removed if contacts are frictionally locked.","test":"Track enclosed low-energy chains and individual contact forces.","contrary_outcome":"Release is immediate or governed solely by magnetic decay.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0471","id":"S7-0471","volume":"900v7","title":"A capacitive paper sensor should confuse condensation with compression less when a reference dry layer is measured simultaneously.","prediction":"A capacitive paper sensor should confuse condensation with compression less when a reference dry layer is measured simultaneously.","test":"Validate benign laminates under independent moisture and load steps.","contrary":"Reference pairing adds no separation on held-out conditions.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0471","hypothesis":"A capacitive paper sensor should confuse condensation with compression less when a reference dry layer is measured simultaneously.","prediction":"A capacitive paper sensor should confuse condensation with compression less when a reference dry layer is measured simultaneously.","test":"Validate benign laminates under independent moisture and load steps.","contrary_outcome":"Reference pairing adds no separation on held-out conditions.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0472","id":"S7-0472","volume":"900v7","title":"A conductive soft pad should retain a resistance-map signature of load position after its external shape recovers.","prediction":"A conductive soft pad should retain a resistance-map signature of load position after its external shape recovers.","test":"Apply low loads at concealed positions and test blinded map classification.","contrary":"Classification fails after force and shape return.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0472","hypothesis":"A conductive soft pad should retain a resistance-map signature of load position after its external shape recovers.","prediction":"A conductive soft pad should retain a resistance-map signature of load position after its external shape recovers.","test":"Apply low loads at concealed positions and test blinded map classification.","contrary_outcome":"Classification fails after force and shape return.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0473","id":"S7-0473","volume":"900v7","title":"A brief saline rinse should reduce contact-resistance variability but increase mean resistance after drying in a graphite junction.","prediction":"A brief saline rinse should reduce contact-resistance variability but increase mean resistance after drying in a graphite junction.","test":"Measure low-current junctions with pure-water and no-rinse controls.","contrary":"Mean and variability changes track residual salt alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0473","hypothesis":"A brief saline rinse should reduce contact-resistance variability but increase mean resistance after drying in a graphite junction.","prediction":"A brief saline rinse should reduce contact-resistance variability but increase mean resistance after drying in a graphite junction.","test":"Measure low-current junctions with pure-water and no-rinse controls.","contrary_outcome":"Mean and variability changes track residual salt alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0474","id":"S7-0474","volume":"900v7","title":"A torsion balance should show opposite apparent torque when its suspension fiber is illuminated from opposite sides at equal total power.","prediction":"A torsion balance should show opposite apparent torque when its suspension fiber is illuminated from opposite sides at equal total power.","test":"Use low-intensity illumination, fiber thermometry, and a rigid dummy suspension.","contrary":"Torque follows total absorbed power without directional reversal.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0474","hypothesis":"A torsion balance should show opposite apparent torque when its suspension fiber is illuminated from opposite sides at equal total power.","prediction":"A torsion balance should show opposite apparent torque when its suspension fiber is illuminated from opposite sides at equal total power.","test":"Use low-intensity illumination, fiber thermometry, and a rigid dummy suspension.","contrary_outcome":"Torque follows total absorbed power without directional reversal.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0475","id":"S7-0475","volume":"900v7","title":"A small static charge should change the first peeling corner of a lightweight film without changing total peel work substantially.","prediction":"A small static charge should change the first peeling corner of a lightweight film without changing total peel work substantially.","test":"Use modest charges, grounded controls, and force-front imaging.","contrary":"Peel location follows only geometry or work changes proportionally.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0475","hypothesis":"A small static charge should change the first peeling corner of a lightweight film without changing total peel work substantially.","prediction":"A small static charge should change the first peeling corner of a lightweight film without changing total peel work substantially.","test":"Use modest charges, grounded controls, and force-front imaging.","contrary_outcome":"Peel location follows only geometry or work changes proportionally.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0476","id":"S7-0476","volume":"900v7","title":"A magnetic float should reveal surface contamination through a changed lateral relaxation time at fixed buoyancy.","prediction":"A magnetic float should reveal surface contamination through a changed lateral relaxation time at fixed buoyancy.","test":"Use enclosed weak actuation and independently characterized benign surface films.","contrary":"Relaxation depends only on water viscosity and immersion depth.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0476","hypothesis":"A magnetic float should reveal surface contamination through a changed lateral relaxation time at fixed buoyancy.","prediction":"A magnetic float should reveal surface contamination through a changed lateral relaxation time at fixed buoyancy.","test":"Use enclosed weak actuation and independently characterized benign surface films.","contrary_outcome":"Relaxation depends only on water viscosity and immersion depth.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0477","id":"S7-0477","volume":"900v7","title":"A wetted conductive thread should recover electrical continuity before tensile stiffness after a reversible bend.","prediction":"A wetted conductive thread should recover electrical continuity before tensile stiffness after a reversible bend.","test":"Measure low-current resistance and small-load stiffness through recovery.","contrary":"Both recover on the same timescale after geometric correction.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0477","hypothesis":"A wetted conductive thread should recover electrical continuity before tensile stiffness after a reversible bend.","prediction":"A wetted conductive thread should recover electrical continuity before tensile stiffness after a reversible bend.","test":"Measure low-current resistance and small-load stiffness through recovery.","contrary_outcome":"Both recover on the same timescale after geometric correction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0478","id":"S7-0478","volume":"900v7","title":"A capacitance matrix should identify a migrating liquid pocket more reliably than a single electrode pair at equal total acquisition time.","prediction":"A capacitance matrix should identify a migrating liquid pocket more reliably than a single electrode pair at equal total acquisition time.","test":"Validate concealed water-pocket paths in insulating phantoms.","contrary":"Multiple channels add no held-out localization accuracy.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0478","hypothesis":"A capacitance matrix should identify a migrating liquid pocket more reliably than a single electrode pair at equal total acquisition time.","prediction":"A capacitance matrix should identify a migrating liquid pocket more reliably than a single electrode pair at equal total acquisition time.","test":"Validate concealed water-pocket paths in insulating phantoms.","contrary_outcome":"Multiple channels add no held-out localization accuracy.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0478","hypothesis":"A capacitance matrix should identify a migrating liquid pocket more reliably than a single electrode pair at equal total acquisition time.","prediction":"A capacitance matrix should identify a migrating liquid pocket more reliably than a single electrode pair at equal total acquisition time.","test":"Validate concealed water-pocket paths in insulating phantoms.","contrary_outcome":"Multiple channels add no held-out localization accuracy.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0479","id":"S7-0479","volume":"900v7","title":"A weak-field response should distinguish a freely rolling magnetic inclusion from an adhesively pinned one at equal position.","prediction":"A weak-field response should distinguish a freely rolling magnetic inclusion from an adhesively pinned one at equal position.","test":"Measure enclosed inclusions with tiny reversible probes and optical ground truth.","contrary":"Signals reflect field strength alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0479","hypothesis":"A weak-field response should distinguish a freely rolling magnetic inclusion from an adhesively pinned one at equal position.","prediction":"A weak-field response should distinguish a freely rolling magnetic inclusion from an adhesively pinned one at equal position.","test":"Measure enclosed inclusions with tiny reversible probes and optical ground truth.","contrary_outcome":"Signals reflect field strength alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0480","id":"S7-0480","volume":"900v7","title":"A porous electrode's impedance should show a rate-dependent loop during wetting and drying even when mean saturation matches.","prediction":"A porous electrode's impedance should show a rate-dependent loop during wetting and drying even when mean saturation matches.","test":"Measure low-voltage spectra with independent pore-water maps.","contrary":"Impedance is a unique function of saturation.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0480","hypothesis":"A porous electrode's impedance should show a rate-dependent loop during wetting and drying even when mean saturation matches.","prediction":"A porous electrode's impedance should show a rate-dependent loop during wetting and drying even when mean saturation matches.","test":"Measure low-voltage spectra with independent pore-water maps.","contrary_outcome":"Impedance is a unique function of saturation.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0481","id":"S7-0481","volume":"900v7","title":"A stack of dry paper disks should transmit an axial air-pressure pulse faster after radial confinement increases.","prediction":"A stack of dry paper disks should transmit an axial air-pressure pulse faster after radial confinement increases.","test":"Measure low-pressure pulses, packing geometry, and steady permeability independently.","contrary":"Transit time depends only on steady permeability.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0481","hypothesis":"A stack of dry paper disks should transmit an axial air-pressure pulse faster after radial confinement increases.","prediction":"A stack of dry paper disks should transmit an axial air-pressure pulse faster after radial confinement increases.","test":"Measure low-pressure pulses, packing geometry, and steady permeability independently.","contrary_outcome":"Transit time depends only on steady permeability.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0482","id":"S7-0482","volume":"900v7","title":"A granular column should discharge a delayed air pulse after its grain motion stops following a gentle tap.","prediction":"A granular column should discharge a delayed air pulse after its grain motion stops following a gentle tap.","test":"Measure inert-grain motion and low-pressure air flow synchronously.","contrary":"Airflow stops whenever grain motion stops.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0482","hypothesis":"A granular column should discharge a delayed air pulse after its grain motion stops following a gentle tap.","prediction":"A granular column should discharge a delayed air pulse after its grain motion stops following a gentle tap.","test":"Measure inert-grain motion and low-pressure air flow synchronously.","contrary_outcome":"Airflow stops whenever grain motion stops.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0483","id":"S7-0483","volume":"900v7","title":"A sealed soft bellows should develop a localized fold sequence controlled by its initial gas distribution.","prediction":"A sealed soft bellows should develop a localized fold sequence controlled by its initial gas distribution.","test":"Compare low-pressure compartments with equal total gas and full fold imaging.","contrary":"Sequence is independent of compartment gas distribution.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0483","hypothesis":"A sealed soft bellows should develop a localized fold sequence controlled by its initial gas distribution.","prediction":"A sealed soft bellows should develop a localized fold sequence controlled by its initial gas distribution.","test":"Compare low-pressure compartments with equal total gas and full fold imaging.","contrary_outcome":"Sequence is independent of compartment gas distribution.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0484","id":"S7-0484","volume":"900v7","title":"A submerged air pouch should recover its shape differently after equal short and long compression holds.","prediction":"A submerged air pouch should recover its shape differently after equal short and long compression holds.","test":"Measure low-pressure gas volume, membrane strain, and water displacement.","contrary":"Recovery depends only on peak compression.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0484","hypothesis":"A submerged air pouch should recover its shape differently after equal short and long compression holds.","prediction":"A submerged air pouch should recover its shape differently after equal short and long compression holds.","test":"Measure low-pressure gas volume, membrane strain, and water displacement.","contrary_outcome":"Recovery depends only on peak compression.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0485","id":"S7-0485","volume":"900v7","title":"A narrow vent should suppress pressure oscillations in a draining bottle most effectively at an intermediate location above the outlet.","prediction":"A narrow vent should suppress pressure oscillations in a draining bottle most effectively at an intermediate location above the outlet.","test":"Measure water flow and gas pressure with interchangeable vents.","contrary":"Suppression depends only on vent area.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0485","hypothesis":"A narrow vent should suppress pressure oscillations in a draining bottle most effectively at an intermediate location above the outlet.","prediction":"A narrow vent should suppress pressure oscillations in a draining bottle most effectively at an intermediate location above the outlet.","test":"Measure water flow and gas pressure with interchangeable vents.","contrary_outcome":"Suppression depends only on vent area.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0486","id":"S7-0486","volume":"900v7","title":"A partially filled flexible flask should show different sloshing decay after a slow versus abrupt rotation into the same position.","prediction":"A partially filled flexible flask should show different sloshing decay after a slow versus abrupt rotation into the same position.","test":"Track water motion and wall strain against rigid-flask controls.","contrary":"Decay is fixed by final geometry and liquid volume.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0486","hypothesis":"A partially filled flexible flask should show different sloshing decay after a slow versus abrupt rotation into the same position.","prediction":"A partially filled flexible flask should show different sloshing decay after a slow versus abrupt rotation into the same position.","test":"Track water motion and wall strain against rigid-flask controls.","contrary_outcome":"Decay is fixed by final geometry and liquid volume.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0487","id":"S7-0487","volume":"900v7","title":"A compliant air chamber should exhibit a temperature transient of opposite sign near its inlet and far wall during rapid filling.","prediction":"A compliant air chamber should exhibit a temperature transient of opposite sign near its inlet and far wall during rapid filling.","test":"Use modest pressure steps and fast calibrated temperature probes.","contrary":"Temperature changes have the same sign throughout the chamber.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0487","hypothesis":"A compliant air chamber should exhibit a temperature transient of opposite sign near its inlet and far wall during rapid filling.","prediction":"A compliant air chamber should exhibit a temperature transient of opposite sign near its inlet and far wall during rapid filling.","test":"Use modest pressure steps and fast calibrated temperature probes.","contrary_outcome":"Temperature changes have the same sign throughout the chamber.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0488","id":"S7-0488","volume":"900v7","title":"A porous vent's pressure response should reveal internal condensation before its steady resistance rises appreciably.","prediction":"A porous vent's pressure response should reveal internal condensation before its steady resistance rises appreciably.","test":"Measure low-pressure transients, microscopy, and steady flow during benign water condensation.","contrary":"Transient changes occur only with measurable resistance increases.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0488","hypothesis":"A porous vent's pressure response should reveal internal condensation before its steady resistance rises appreciably.","prediction":"A porous vent's pressure response should reveal internal condensation before its steady resistance rises appreciably.","test":"Measure low-pressure transients, microscopy, and steady flow during benign water condensation.","contrary_outcome":"Transient changes occur only with measurable resistance increases.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0489","id":"S7-0489","volume":"900v7","title":"A narrow air channel beneath a wet membrane should move its first collapse location when ventilation reverses.","prediction":"A narrow air channel beneath a wet membrane should move its first collapse location when ventilation reverses.","test":"Map membrane displacement and local air pressure.","contrary":"Collapse site follows fixed thickness defects alone.","layers":[1,2],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0489","hypothesis":"A narrow air channel beneath a wet membrane should move its first collapse location when ventilation reverses.","prediction":"A narrow air channel beneath a wet membrane should move its first collapse location when ventilation reverses.","test":"Map membrane displacement and local air pressure.","contrary_outcome":"Collapse site follows fixed thickness defects alone.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0489","hypothesis":"A narrow air channel beneath a wet membrane should move its first collapse location when ventilation reverses.","prediction":"A narrow air channel beneath a wet membrane should move its first collapse location when ventilation reverses.","test":"Map membrane displacement and local air pressure.","contrary_outcome":"Collapse site follows fixed thickness defects alone.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0490","id":"S7-0490","volume":"900v7","title":"A floating hollow object should change its roll recovery when a small internal vent opens despite unchanged mean immersion.","prediction":"A floating hollow object should change its roll recovery when a small internal vent opens despite unchanged mean immersion.","test":"Measure low-energy roll motion and internal pressure against sham openings.","contrary":"Recovery depends only on mass and static buoyancy.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0490","hypothesis":"A floating hollow object should change its roll recovery when a small internal vent opens despite unchanged mean immersion.","prediction":"A floating hollow object should change its roll recovery when a small internal vent opens despite unchanged mean immersion.","test":"Measure low-energy roll motion and internal pressure against sham openings.","contrary_outcome":"Recovery depends only on mass and static buoyancy.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0491","id":"S7-0491","volume":"900v7","title":"A collapsing soft tube should release trapped air in separate pulses whose spacing reflects its fold positions.","prediction":"A collapsing soft tube should release trapped air in separate pulses whose spacing reflects its fold positions.","test":"Track modest compression, gas flow, and three-dimensional tube shape.","contrary":"Pulse spacing has no relation to fold location.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0491","hypothesis":"A collapsing soft tube should release trapped air in separate pulses whose spacing reflects its fold positions.","prediction":"A collapsing soft tube should release trapped air in separate pulses whose spacing reflects its fold positions.","test":"Track modest compression, gas flow, and three-dimensional tube shape.","contrary_outcome":"Pulse spacing has no relation to fold location.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0492","id":"S7-0492","volume":"900v7","title":"A water-filled U-tube with one compliant reservoir should have asymmetric first overshoots after opposite pressure steps.","prediction":"A water-filled U-tube with one compliant reservoir should have asymmetric first overshoots after opposite pressure steps.","test":"Measure low-head levels, wall motion, and pressure.","contrary":"Responses mirror after sign reversal.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0492","hypothesis":"A water-filled U-tube with one compliant reservoir should have asymmetric first overshoots after opposite pressure steps.","prediction":"A water-filled U-tube with one compliant reservoir should have asymmetric first overshoots after opposite pressure steps.","test":"Measure low-head levels, wall motion, and pressure.","contrary_outcome":"Responses mirror after sign reversal.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0493","id":"S7-0493","volume":"900v7","title":"A slow leak into a porous cavity should create a moving wet ring before its center wets.","prediction":"A slow leak into a porous cavity should create a moving wet ring before its center wets.","test":"Image transparent benign pore models with independently measured liquid delivery.","contrary":"Wetting always advances inward from one continuous front.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0493","hypothesis":"A slow leak into a porous cavity should create a moving wet ring before its center wets.","prediction":"A slow leak into a porous cavity should create a moving wet ring before its center wets.","test":"Image transparent benign pore models with independently measured liquid delivery.","contrary_outcome":"Wetting always advances inward from one continuous front.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0494","id":"S7-0494","volume":"900v7","title":"A shallow floating cup should rotate during refilling if water enters through an off-center porous wall.","prediction":"A shallow floating cup should rotate during refilling if water enters through an off-center porous wall.","test":"Measure water velocity, cup torque, and symmetric-wall controls.","contrary":"Rotation is explained only by direct inlet momentum.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0494","hypothesis":"A shallow floating cup should rotate during refilling if water enters through an off-center porous wall.","prediction":"A shallow floating cup should rotate during refilling if water enters through an off-center porous wall.","test":"Measure water velocity, cup torque, and symmetric-wall controls.","contrary_outcome":"Rotation is explained only by direct inlet momentum.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0495","id":"S7-0495","volume":"900v7","title":"A soft reservoir should retain different gas-pocket positions after equal net pumping through different inlet sequences.","prediction":"A soft reservoir should retain different gas-pocket positions after equal net pumping through different inlet sequences.","test":"Use low-pressure water, calibrated volume delivery, and concealed sequence comparison.","contrary":"Pocket position depends only on final fill fraction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0495","hypothesis":"A soft reservoir should retain different gas-pocket positions after equal net pumping through different inlet sequences.","prediction":"A soft reservoir should retain different gas-pocket positions after equal net pumping through different inlet sequences.","test":"Use low-pressure water, calibrated volume delivery, and concealed sequence comparison.","contrary_outcome":"Pocket position depends only on final fill fraction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0496","id":"S7-0496","volume":"900v7","title":"A weakly vented cavity should show larger pressure hysteresis at intermediate cycling periods than at very slow or fast periods.","prediction":"A weakly vented cavity should show larger pressure hysteresis at intermediate cycling periods than at very slow or fast periods.","test":"Measure modest pressure-volume loops and leak conductance.","contrary":"Hysteresis varies monotonically with cycling period.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0496","hypothesis":"A weakly vented cavity should show larger pressure hysteresis at intermediate cycling periods than at very slow or fast periods.","prediction":"A weakly vented cavity should show larger pressure hysteresis at intermediate cycling periods than at very slow or fast periods.","test":"Measure modest pressure-volume loops and leak conductance.","contrary_outcome":"Hysteresis varies monotonically with cycling period.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0497","id":"S7-0497","volume":"900v7","title":"A perforated flexible lid should reduce evaporation fluctuations while leaving mean water loss nearly unchanged.","prediction":"A perforated flexible lid should reduce evaporation fluctuations while leaving mean water loss nearly unchanged.","test":"Measure mass, air motion, and lid displacement with fixed-lid controls.","contrary":"Fluctuation reduction scales directly with reduced mean evaporation.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0497","hypothesis":"A perforated flexible lid should reduce evaporation fluctuations while leaving mean water loss nearly unchanged.","prediction":"A perforated flexible lid should reduce evaporation fluctuations while leaving mean water loss nearly unchanged.","test":"Measure mass, air motion, and lid displacement with fixed-lid controls.","contrary_outcome":"Fluctuation reduction scales directly with reduced mean evaporation.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0498","id":"S7-0498","volume":"900v7","title":"A water-draining sponge should draw air preferentially through its mechanically least compressed region even when that region is farther from the atmosphere.","prediction":"A water-draining sponge should draw air preferentially through its mechanically least compressed region even when that region is farther from the atmosphere.","test":"Map benign pore strain and air invasion.","contrary":"Air entry follows geometric distance alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0498","hypothesis":"A water-draining sponge should draw air preferentially through its mechanically least compressed region even when that region is farther from the atmosphere.","prediction":"A water-draining sponge should draw air preferentially through its mechanically least compressed region even when that region is farther from the atmosphere.","test":"Map benign pore strain and air invasion.","contrary_outcome":"Air entry follows geometric distance alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0499","id":"S7-0499","volume":"900v7","title":"A temporary gas-path blockage should change later bubble release timing after the blockage fully clears.","prediction":"A temporary gas-path blockage should change later bubble release timing after the blockage fully clears.","test":"Measure low-pressure supply compliance and bubble geometry.","contrary":"Timing returns immediately to the preblockage pattern.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0499","hypothesis":"A temporary gas-path blockage should change later bubble release timing after the blockage fully clears.","prediction":"A temporary gas-path blockage should change later bubble release timing after the blockage fully clears.","test":"Measure low-pressure supply compliance and bubble geometry.","contrary_outcome":"Timing returns immediately to the preblockage pattern.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0500","id":"S7-0500","volume":"900v7","title":"A porous air distributor should switch active pores during a constant low flow even without visible changes in its mean pressure.","prediction":"A porous air distributor should switch active pores during a constant low flow even without visible changes in its mean pressure.","test":"Image benign air-water outlets and individual pore activity.","contrary":"Active pores stay fixed unless mean pressure changes.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0500","hypothesis":"A porous air distributor should switch active pores during a constant low flow even without visible changes in its mean pressure.","prediction":"A porous air distributor should switch active pores during a constant low flow even without visible changes in its mean pressure.","test":"Image benign air-water outlets and individual pore activity.","contrary_outcome":"Active pores stay fixed unless mean pressure changes.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0500","hypothesis":"A porous air distributor should switch active pores during a constant low flow even without visible changes in its mean pressure.","prediction":"A porous air distributor should switch active pores during a constant low flow even without visible changes in its mean pressure.","test":"Image benign air-water outlets and individual pore activity.","contrary_outcome":"Active pores stay fixed unless mean pressure changes.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0501","id":"S7-0501","volume":"900v7","title":"A layered soft pad should have different lateral strain during loading and unloading at the same normal force because interlayer friction changes sign.","prediction":"A layered soft pad should have different lateral strain during loading and unloading at the same normal force because interlayer friction changes sign.","test":"Map strains and layer slip under low-force cycles.","contrary":"Strain is a unique function of normal force.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0501","hypothesis":"A layered soft pad should have different lateral strain during loading and unloading at the same normal force because interlayer friction changes sign.","prediction":"A layered soft pad should have different lateral strain during loading and unloading at the same normal force because interlayer friction changes sign.","test":"Map strains and layer slip under low-force cycles.","contrary_outcome":"Strain is a unique function of normal force.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0502","id":"S7-0502","volume":"900v7","title":"A small rigid island in a stretched film should rotate before its surrounding strain field becomes visibly asymmetric.","prediction":"A small rigid island in a stretched film should rotate before its surrounding strain field becomes visibly asymmetric.","test":"Use benign films with high-resolution strain and angle measurements.","contrary":"Rotation begins only after resolved asymmetric strain.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0502","hypothesis":"A small rigid island in a stretched film should rotate before its surrounding strain field becomes visibly asymmetric.","prediction":"A small rigid island in a stretched film should rotate before its surrounding strain field becomes visibly asymmetric.","test":"Use benign films with high-resolution strain and angle measurements.","contrary_outcome":"Rotation begins only after resolved asymmetric strain.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0503","id":"S7-0503","volume":"900v7","title":"A folded closed loop should accommodate extension by changing fold order rather than merely changing fold angles.","prediction":"A folded closed loop should accommodate extension by changing fold order rather than merely changing fold angles.","test":"Track all hinges in low-energy polymer models.","contrary":"Fold order remains unchanged below damage.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0503","hypothesis":"A folded closed loop should accommodate extension by changing fold order rather than merely changing fold angles.","prediction":"A folded closed loop should accommodate extension by changing fold order rather than merely changing fold angles.","test":"Track all hinges in low-energy polymer models.","contrary_outcome":"Fold order remains unchanged below damage.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0504","id":"S7-0504","volume":"900v7","title":"A shallow cut ending near a clamp should reduce peak strain at the clamp more than an equal-area central cut.","prediction":"A shallow cut ending near a clamp should reduce peak strain at the clamp more than an equal-area central cut.","test":"Measure benign sheet strain with matched load and removed area.","contrary":"Strain relief depends only on removed area.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0504","hypothesis":"A shallow cut ending near a clamp should reduce peak strain at the clamp more than an equal-area central cut.","prediction":"A shallow cut ending near a clamp should reduce peak strain at the clamp more than an equal-area central cut.","test":"Measure benign sheet strain with matched load and removed area.","contrary_outcome":"Strain relief depends only on removed area.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0505","id":"S7-0505","volume":"900v7","title":"A two-material hinge should have an unloading torque plateau even when neither material shows one in isolation.","prediction":"A two-material hinge should have an unloading torque plateau even when neither material shows one in isolation.","test":"Measure modest torque cycles and individual material controls.","contrary":"Combined torque is the weighted sum of isolated responses.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0505","hypothesis":"A two-material hinge should have an unloading torque plateau even when neither material shows one in isolation.","prediction":"A two-material hinge should have an unloading torque plateau even when neither material shows one in isolation.","test":"Measure modest torque cycles and individual material controls.","contrary_outcome":"Combined torque is the weighted sum of isolated responses.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0506","id":"S7-0506","volume":"900v7","title":"A soft interlocking joint should become more stable after a small reversible misalignment rather than perfect initial alignment.","prediction":"A soft interlocking joint should become more stable after a small reversible misalignment rather than perfect initial alignment.","test":"Track contact forces and release thresholds in benign models.","contrary":"Stability decreases monotonically with misalignment.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0506","hypothesis":"A soft interlocking joint should become more stable after a small reversible misalignment rather than perfect initial alignment.","prediction":"A soft interlocking joint should become more stable after a small reversible misalignment rather than perfect initial alignment.","test":"Track contact forces and release thresholds in benign models.","contrary_outcome":"Stability decreases monotonically with misalignment.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0507","id":"S7-0507","volume":"900v7","title":"A thin flexible lid should touch its container first at an interior ring under uniform gentle suction.","prediction":"A thin flexible lid should touch its container first at an interior ring under uniform gentle suction.","test":"Measure low-pressure lid shape and contact onset.","contrary":"First contact always occurs at the center or rim.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0507","hypothesis":"A thin flexible lid should touch its container first at an interior ring under uniform gentle suction.","prediction":"A thin flexible lid should touch its container first at an interior ring under uniform gentle suction.","test":"Measure low-pressure lid shape and contact onset.","contrary_outcome":"First contact always occurs at the center or rim.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0508","id":"S7-0508","volume":"900v7","title":"A loose sleeve should migrate toward a beam's lower-curvature region during symmetric bending cycles.","prediction":"A loose sleeve should migrate toward a beam's lower-curvature region during symmetric bending cycles.","test":"Track benign sleeves with reversed gravity orientation.","contrary":"Migration follows gravity or has no reproducible direction.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0508","hypothesis":"A loose sleeve should migrate toward a beam's lower-curvature region during symmetric bending cycles.","prediction":"A loose sleeve should migrate toward a beam's lower-curvature region during symmetric bending cycles.","test":"Track benign sleeves with reversed gravity orientation.","contrary_outcome":"Migration follows gravity or has no reproducible direction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0509","id":"S7-0509","volume":"900v7","title":"A patterned compression pad should transfer load from small contact islands to large islands during a fixed-displacement hold.","prediction":"A patterned compression pad should transfer load from small contact islands to large islands during a fixed-displacement hold.","test":"Map pressure and local deformation over relaxation.","contrary":"All island loads relax proportionally.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0509","hypothesis":"A patterned compression pad should transfer load from small contact islands to large islands during a fixed-displacement hold.","prediction":"A patterned compression pad should transfer load from small contact islands to large islands during a fixed-displacement hold.","test":"Map pressure and local deformation over relaxation.","contrary_outcome":"All island loads relax proportionally.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0510","id":"S7-0510","volume":"900v7","title":"A stack of slotted sheets should buckle in a different direction when sheet order reverses at equal total stiffness.","prediction":"A stack of slotted sheets should buckle in a different direction when sheet order reverses at equal total stiffness.","test":"Measure guarded low-load models and individual sheet properties.","contrary":"Buckling direction follows total stiffness alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0510","hypothesis":"A stack of slotted sheets should buckle in a different direction when sheet order reverses at equal total stiffness.","prediction":"A stack of slotted sheets should buckle in a different direction when sheet order reverses at equal total stiffness.","test":"Measure guarded low-load models and individual sheet properties.","contrary_outcome":"Buckling direction follows total stiffness alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0511","id":"S7-0511","volume":"900v7","title":"A soft polygonal ring should develop a reproducible twist when only alternate corners are wetted.","prediction":"A soft polygonal ring should develop a reproducible twist when only alternate corners are wetted.","test":"Map benign absorbent rings with moisture and shape imaging.","contrary":"Twist requires asymmetric total water mass across the ring.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0511","hypothesis":"A soft polygonal ring should develop a reproducible twist when only alternate corners are wetted.","prediction":"A soft polygonal ring should develop a reproducible twist when only alternate corners are wetted.","test":"Map benign absorbent rings with moisture and shape imaging.","contrary_outcome":"Twist requires asymmetric total water mass across the ring.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0512","id":"S7-0512","volume":"900v7","title":"A thin strap should exhibit delayed edge lift after its central contact stops creeping.","prediction":"A thin strap should exhibit delayed edge lift after its central contact stops creeping.","test":"Image benign low-load contacts and local displacement.","contrary":"All contact regions stop moving simultaneously.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0512","hypothesis":"A thin strap should exhibit delayed edge lift after its central contact stops creeping.","prediction":"A thin strap should exhibit delayed edge lift after its central contact stops creeping.","test":"Image benign low-load contacts and local displacement.","contrary_outcome":"All contact regions stop moving simultaneously.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0513","id":"S7-0513","volume":"900v7","title":"A porous elastomer should show greater recovery asymmetry after off-center compression than a solid elastomer with matched bulk compliance.","prediction":"A porous elastomer should show greater recovery asymmetry after off-center compression than a solid elastomer with matched bulk compliance.","test":"Measure benign samples, internal structure, and three-dimensional recovery.","contrary":"Matched bulk compliance predicts all asymmetry.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0513","hypothesis":"A porous elastomer should show greater recovery asymmetry after off-center compression than a solid elastomer with matched bulk compliance.","prediction":"A porous elastomer should show greater recovery asymmetry after off-center compression than a solid elastomer with matched bulk compliance.","test":"Measure benign samples, internal structure, and three-dimensional recovery.","contrary_outcome":"Matched bulk compliance predicts all asymmetry.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0514","id":"S7-0514","volume":"900v7","title":"A weakly bonded laminate should dissipate more energy under a rotated elliptical loading path than under an axis-aligned path of equal area.","prediction":"A weakly bonded laminate should dissipate more energy under a rotated elliptical loading path than under an axis-aligned path of equal area.","test":"Measure low-energy biaxial cycles and interface slip.","contrary":"Dissipation depends only on path area and maximum strain.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0514","hypothesis":"A weakly bonded laminate should dissipate more energy under a rotated elliptical loading path than under an axis-aligned path of equal area.","prediction":"A weakly bonded laminate should dissipate more energy under a rotated elliptical loading path than under an axis-aligned path of equal area.","test":"Measure low-energy biaxial cycles and interface slip.","contrary_outcome":"Dissipation depends only on path area and maximum strain.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0514","hypothesis":"A weakly bonded laminate should dissipate more energy under a rotated elliptical loading path than under an axis-aligned path of equal area.","prediction":"A weakly bonded laminate should dissipate more energy under a rotated elliptical loading path than under an axis-aligned path of equal area.","test":"Measure low-energy biaxial cycles and interface slip.","contrary_outcome":"Dissipation depends only on path area and maximum strain.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0515","id":"S7-0515","volume":"900v7","title":"A folded mesh should change its preferred compression mode when one crossing is lubricated without altering strand stiffness.","prediction":"A folded mesh should change its preferred compression mode when one crossing is lubricated without altering strand stiffness.","test":"Track benign low-load meshes with dry sham crossings.","contrary":"Mode selection is insensitive to crossing friction.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0515","hypothesis":"A folded mesh should change its preferred compression mode when one crossing is lubricated without altering strand stiffness.","prediction":"A folded mesh should change its preferred compression mode when one crossing is lubricated without altering strand stiffness.","test":"Track benign low-load meshes with dry sham crossings.","contrary_outcome":"Mode selection is insensitive to crossing friction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0516","id":"S7-0516","volume":"900v7","title":"A floating elastic loop should support a localized dimple longer after loading near a seam than away from it.","prediction":"A floating elastic loop should support a localized dimple longer after loading near a seam than away from it.","test":"Measure water shape, loop displacement, and seam compliance.","contrary":"Dimple recovery depends only on load magnitude and loop radius.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0516","hypothesis":"A floating elastic loop should support a localized dimple longer after loading near a seam than away from it.","prediction":"A floating elastic loop should support a localized dimple longer after loading near a seam than away from it.","test":"Measure water shape, loop displacement, and seam compliance.","contrary_outcome":"Dimple recovery depends only on load magnitude and loop radius.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0517","id":"S7-0517","volume":"900v7","title":"A compressed annular foam should recover its inner diameter before its outer diameter after unloading.","prediction":"A compressed annular foam should recover its inner diameter before its outer diameter after unloading.","test":"Track benign foam geometry and internal pressure.","contrary":"Both diameters recover proportionally at all times.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0517","hypothesis":"A compressed annular foam should recover its inner diameter before its outer diameter after unloading.","prediction":"A compressed annular foam should recover its inner diameter before its outer diameter after unloading.","test":"Track benign foam geometry and internal pressure.","contrary_outcome":"Both diameters recover proportionally at all times.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0518","id":"S7-0518","volume":"900v7","title":"A softly clamped disk should retain a different residual rotation after radial and tangential unloading paths.","prediction":"A softly clamped disk should retain a different residual rotation after radial and tangential unloading paths.","test":"Measure low-force contact slip with matched final boundary forces.","contrary":"Recovered angle is path independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0518","hypothesis":"A softly clamped disk should retain a different residual rotation after radial and tangential unloading paths.","prediction":"A softly clamped disk should retain a different residual rotation after radial and tangential unloading paths.","test":"Measure low-force contact slip with matched final boundary forces.","contrary_outcome":"Recovered angle is path independent.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0519","id":"S7-0519","volume":"900v7","title":"A shallow notch should stabilize repeated snap-through location while increasing cycle-to-cycle snap-force variability.","prediction":"A shallow notch should stabilize repeated snap-through location while increasing cycle-to-cycle snap-force variability.","test":"Use guarded benign strips with force and full-field motion measurements.","contrary":"Location and force variability decrease or increase together.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0519","hypothesis":"A shallow notch should stabilize repeated snap-through location while increasing cycle-to-cycle snap-force variability.","prediction":"A shallow notch should stabilize repeated snap-through location while increasing cycle-to-cycle snap-force variability.","test":"Use guarded benign strips with force and full-field motion measurements.","contrary_outcome":"Location and force variability decrease or increase together.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0520","id":"S7-0520","volume":"900v7","title":"A free flap on a soft shell should delay global buckling by releasing local strain before it engages a stop.","prediction":"A free flap on a soft shell should delay global buckling by releasing local strain before it engages a stop.","test":"Measure low-energy shells with flap-disabled controls.","contrary":"Buckling delay is explained only by added material or reduced load.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0520","hypothesis":"A free flap on a soft shell should delay global buckling by releasing local strain before it engages a stop.","prediction":"A free flap on a soft shell should delay global buckling by releasing local strain before it engages a stop.","test":"Measure low-energy shells with flap-disabled controls.","contrary_outcome":"Buckling delay is explained only by added material or reduced load.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0521","id":"S7-0521","volume":"900v7","title":"A salt-loaded porous thread should show a moving crystallization band during drying rather than a stationary end deposit.","prediction":"A salt-loaded porous thread should show a moving crystallization band during drying rather than a stationary end deposit.","test":"Map benign salt concentration and water distribution along the thread.","contrary":"Crystallization stays at the fastest evaporating end.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0521","hypothesis":"A salt-loaded porous thread should show a moving crystallization band during drying rather than a stationary end deposit.","prediction":"A salt-loaded porous thread should show a moving crystallization band during drying rather than a stationary end deposit.","test":"Map benign salt concentration and water distribution along the thread.","contrary_outcome":"Crystallization stays at the fastest evaporating end.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0522","id":"S7-0522","volume":"900v7","title":"A gel's adsorption front should become asymmetric after a strain cycle even when its external outline fully recovers.","prediction":"A gel's adsorption front should become asymmetric after a strain cycle even when its external outline fully recovers.","test":"Measure benign dye fronts and internal structure after reversed strain histories.","contrary":"Recovered outline implies symmetric transport.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0522","hypothesis":"A gel's adsorption front should become asymmetric after a strain cycle even when its external outline fully recovers.","prediction":"A gel's adsorption front should become asymmetric after a strain cycle even when its external outline fully recovers.","test":"Measure benign dye fronts and internal structure after reversed strain histories.","contrary_outcome":"Recovered outline implies symmetric transport.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0523","id":"S7-0523","volume":"900v7","title":"A small soluble inclusion should make a surrounding gel swell nonuniformly before the inclusion visibly shrinks.","prediction":"A small soluble inclusion should make a surrounding gel swell nonuniformly before the inclusion visibly shrinks.","test":"Track benign sugar inclusions, local concentration, and gel strain.","contrary":"Swelling begins only with resolved inclusion-volume loss.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0523","hypothesis":"A small soluble inclusion should make a surrounding gel swell nonuniformly before the inclusion visibly shrinks.","prediction":"A small soluble inclusion should make a surrounding gel swell nonuniformly before the inclusion visibly shrinks.","test":"Track benign sugar inclusions, local concentration, and gel strain.","contrary_outcome":"Swelling begins only with resolved inclusion-volume loss.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0524","id":"S7-0524","volume":"900v7","title":"A mineral-coated mesh should retain a more uniform coating after alternating flow than after steady flow of equal throughput.","prediction":"A mineral-coated mesh should retain a more uniform coating after alternating flow than after steady flow of equal throughput.","test":"Map benign calcium-carbonate deposits and measured wall stress.","contrary":"Uniformity depends only on removed mineral mass.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0524","hypothesis":"A mineral-coated mesh should retain a more uniform coating after alternating flow than after steady flow of equal throughput.","prediction":"A mineral-coated mesh should retain a more uniform coating after alternating flow than after steady flow of equal throughput.","test":"Map benign calcium-carbonate deposits and measured wall stress.","contrary_outcome":"Uniformity depends only on removed mineral mass.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0525","id":"S7-0525","volume":"900v7","title":"A porous pellet should release trapped solute faster after a short humidity cycle than after equal waiting at constant humidity.","prediction":"A porous pellet should release trapped solute faster after a short humidity cycle than after equal waiting at constant humidity.","test":"Use food-safe tracers with mass and pore-structure measurements.","contrary":"Release follows current moisture and elapsed time alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0525","hypothesis":"A porous pellet should release trapped solute faster after a short humidity cycle than after equal waiting at constant humidity.","prediction":"A porous pellet should release trapped solute faster after a short humidity cycle than after equal waiting at constant humidity.","test":"Use food-safe tracers with mass and pore-structure measurements.","contrary_outcome":"Release follows current moisture and elapsed time alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0526","id":"S7-0526","volume":"900v7","title":"A thin dried gel should develop different crack orientations after rewetting from opposite faces despite identical final moisture.","prediction":"A thin dried gel should develop different crack orientations after rewetting from opposite faces despite identical final moisture.","test":"Image benign gels under matched volume and boundary conditions.","contrary":"Crack orientation follows initial defects alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0526","hypothesis":"A thin dried gel should develop different crack orientations after rewetting from opposite faces despite identical final moisture.","prediction":"A thin dried gel should develop different crack orientations after rewetting from opposite faces despite identical final moisture.","test":"Image benign gels under matched volume and boundary conditions.","contrary_outcome":"Crack orientation follows initial defects alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0527","id":"S7-0527","volume":"900v7","title":"A crystalline crust should detach from a smooth support earlier when liquid is supplied from its edge than through its underside.","prediction":"A crystalline crust should detach from a smooth support earlier when liquid is supplied from its edge than through its underside.","test":"Use benign salts with measured local flow and interface imaging.","contrary":"Detachment depends only on total supplied water.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0527","hypothesis":"A crystalline crust should detach from a smooth support earlier when liquid is supplied from its edge than through its underside.","prediction":"A crystalline crust should detach from a smooth support earlier when liquid is supplied from its edge than through its underside.","test":"Use benign salts with measured local flow and interface imaging.","contrary_outcome":"Detachment depends only on total supplied water.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0527","hypothesis":"A crystalline crust should detach from a smooth support earlier when liquid is supplied from its edge than through its underside.","prediction":"A crystalline crust should detach from a smooth support earlier when liquid is supplied from its edge than through its underside.","test":"Use benign salts with measured local flow and interface imaging.","contrary_outcome":"Detachment depends only on total supplied water.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0528","id":"S7-0528","volume":"900v7","title":"A dissolving sugar lattice should preserve its hydraulic conductance longer than its static stiffness.","prediction":"A dissolving sugar lattice should preserve its hydraulic conductance longer than its static stiffness.","test":"Measure low-head flow and small-load mechanics during dissolution.","contrary":"Both properties decline in proportion to remaining solid mass.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0528","hypothesis":"A dissolving sugar lattice should preserve its hydraulic conductance longer than its static stiffness.","prediction":"A dissolving sugar lattice should preserve its hydraulic conductance longer than its static stiffness.","test":"Measure low-head flow and small-load mechanics during dissolution.","contrary_outcome":"Both properties decline in proportion to remaining solid mass.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0529","id":"S7-0529","volume":"900v7","title":"A preloaded benign adsorbent should release a concentration overshoot when a weak competing tracer is introduced.","prediction":"A preloaded benign adsorbent should release a concentration overshoot when a weak competing tracer is introduced.","test":"Measure food-safe validated tracer pairs with independent spectra and nonbinding controls.","contrary":"Effluent never exceeds the incoming concentration after accounting for stored mass.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0529","hypothesis":"A preloaded benign adsorbent should release a concentration overshoot when a weak competing tracer is introduced.","prediction":"A preloaded benign adsorbent should release a concentration overshoot when a weak competing tracer is introduced.","test":"Measure food-safe validated tracer pairs with independent spectra and nonbinding controls.","contrary_outcome":"Effluent never exceeds the incoming concentration after accounting for stored mass.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0530","id":"S7-0530","volume":"900v7","title":"A water-soluble film should perforate at a flexed region before its thinnest unflexed region.","prediction":"A water-soluble film should perforate at a flexed region before its thinnest unflexed region.","test":"Track benign films with independent thickness and strain maps.","contrary":"First perforation follows minimum thickness alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0530","hypothesis":"A water-soluble film should perforate at a flexed region before its thinnest unflexed region.","prediction":"A water-soluble film should perforate at a flexed region before its thinnest unflexed region.","test":"Track benign films with independent thickness and strain maps.","contrary_outcome":"First perforation follows minimum thickness alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0531","id":"S7-0531","volume":"900v7","title":"A layered gel should retain a tracer concentration discontinuity after its water-content profile becomes smooth.","prediction":"A layered gel should retain a tracer concentration discontinuity after its water-content profile becomes smooth.","test":"Measure benign tracer partitioning and depth-resolved moisture independently.","contrary":"Tracer concentration becomes smooth whenever moisture does.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0531","hypothesis":"A layered gel should retain a tracer concentration discontinuity after its water-content profile becomes smooth.","prediction":"A layered gel should retain a tracer concentration discontinuity after its water-content profile becomes smooth.","test":"Measure benign tracer partitioning and depth-resolved moisture independently.","contrary_outcome":"Tracer concentration becomes smooth whenever moisture does.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0532","id":"S7-0532","volume":"900v7","title":"A slowly dissolving crystal in a narrow gap should rotate before translating when its initial contact is off-center.","prediction":"A slowly dissolving crystal in a narrow gap should rotate before translating when its initial contact is off-center.","test":"Track benign salt geometry with low-force support controls.","contrary":"Motion follows buoyancy alone without a rotation-first interval.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0532","hypothesis":"A slowly dissolving crystal in a narrow gap should rotate before translating when its initial contact is off-center.","prediction":"A slowly dissolving crystal in a narrow gap should rotate before translating when its initial contact is off-center.","test":"Track benign salt geometry with low-force support controls.","contrary_outcome":"Motion follows buoyancy alone without a rotation-first interval.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0533","id":"S7-0533","volume":"900v7","title":"A dry porous coating should rewet more slowly after compression released during drying than after compression released before drying.","prediction":"A dry porous coating should rewet more slowly after compression released during drying than after compression released before drying.","test":"Measure benign coatings with matched final porosity and moisture.","contrary":"Rewetting follows final porosity alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0533","hypothesis":"A dry porous coating should rewet more slowly after compression released during drying than after compression released before drying.","prediction":"A dry porous coating should rewet more slowly after compression released during drying than after compression released before drying.","test":"Measure benign coatings with matched final porosity and moisture.","contrary_outcome":"Rewetting follows final porosity alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0534","id":"S7-0534","volume":"900v7","title":"A soluble binder should strengthen a particle cluster briefly during partial rehydration before later weakening.","prediction":"A soluble binder should strengthen a particle cluster briefly during partial rehydration before later weakening.","test":"Measure benign sugar-bound inert grains with small-load tensile tests.","contrary":"Strength decreases monotonically with water exposure.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0534","hypothesis":"A soluble binder should strengthen a particle cluster briefly during partial rehydration before later weakening.","prediction":"A soluble binder should strengthen a particle cluster briefly during partial rehydration before later weakening.","test":"Measure benign sugar-bound inert grains with small-load tensile tests.","contrary_outcome":"Strength decreases monotonically with water exposure.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0535","id":"S7-0535","volume":"900v7","title":"A gel's surface-color recovery should misrepresent the sign of its remaining internal concentration gradient after alternating-face washing.","prediction":"A gel's surface-color recovery should misrepresent the sign of its remaining internal concentration gradient after alternating-face washing.","test":"Compare benign dye images with independent sectioned concentration profiles.","contrary":"Surface color correctly predicts gradient sign throughout.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0535","hypothesis":"A gel's surface-color recovery should misrepresent the sign of its remaining internal concentration gradient after alternating-face washing.","prediction":"A gel's surface-color recovery should misrepresent the sign of its remaining internal concentration gradient after alternating-face washing.","test":"Compare benign dye images with independent sectioned concentration profiles.","contrary_outcome":"Surface color correctly predicts gradient sign throughout.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0536","id":"S7-0536","volume":"900v7","title":"A porous membrane should change tracer selectivity after reversible folding even when total water conductance recovers.","prediction":"A porous membrane should change tracer selectivity after reversible folding even when total water conductance recovers.","test":"Use benign size-calibrated tracers and independent pore imaging.","contrary":"Selectivity returns whenever water conductance returns.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0536","hypothesis":"A porous membrane should change tracer selectivity after reversible folding even when total water conductance recovers.","prediction":"A porous membrane should change tracer selectivity after reversible folding even when total water conductance recovers.","test":"Use benign size-calibrated tracers and independent pore imaging.","contrary_outcome":"Selectivity returns whenever water conductance returns.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0537","id":"S7-0537","volume":"900v7","title":"A salt deposit should redirect a later pure-water film away from its thickest region if dissolution changes local wetting faster than topography.","prediction":"A salt deposit should redirect a later pure-water film away from its thickest region if dissolution changes local wetting faster than topography.","test":"Map benign deposits, contact angles, and film trajectories.","contrary":"Flow follows measured surface height alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0537","hypothesis":"A salt deposit should redirect a later pure-water film away from its thickest region if dissolution changes local wetting faster than topography.","prediction":"A salt deposit should redirect a later pure-water film away from its thickest region if dissolution changes local wetting faster than topography.","test":"Map benign deposits, contact angles, and film trajectories.","contrary_outcome":"Flow follows measured surface height alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0538","id":"S7-0538","volume":"900v7","title":"A drying gel bridge should develop a subsurface concentration maximum near its mechanically constrained end.","prediction":"A drying gel bridge should develop a subsurface concentration maximum near its mechanically constrained end.","test":"Measure benign dye profiles, water loss, and strain.","contrary":"Concentration maxima depend only on local evaporation rate.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0538","hypothesis":"A drying gel bridge should develop a subsurface concentration maximum near its mechanically constrained end.","prediction":"A drying gel bridge should develop a subsurface concentration maximum near its mechanically constrained end.","test":"Measure benign dye profiles, water loss, and strain.","contrary_outcome":"Concentration maxima depend only on local evaporation rate.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0539","id":"S7-0539","volume":"900v7","title":"A weakly adsorbing side cavity should retain more tracer during repeated short pulses than one continuous pulse of equal dose.","prediction":"A weakly adsorbing side cavity should retain more tracer during repeated short pulses than one continuous pulse of equal dose.","test":"Measure benign dye inventory with matched elapsed time and wash volume.","contrary":"Retention depends only on total dose and average concentration.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0539","hypothesis":"A weakly adsorbing side cavity should retain more tracer during repeated short pulses than one continuous pulse of equal dose.","prediction":"A weakly adsorbing side cavity should retain more tracer during repeated short pulses than one continuous pulse of equal dose.","test":"Measure benign dye inventory with matched elapsed time and wash volume.","contrary_outcome":"Retention depends only on total dose and average concentration.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0539","hypothesis":"A weakly adsorbing side cavity should retain more tracer during repeated short pulses than one continuous pulse of equal dose.","prediction":"A weakly adsorbing side cavity should retain more tracer during repeated short pulses than one continuous pulse of equal dose.","test":"Measure benign dye inventory with matched elapsed time and wash volume.","contrary_outcome":"Retention depends only on total dose and average concentration.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0540","id":"S7-0540","volume":"900v7","title":"A small water pulse should lower a salt-crust support's stiffness before its total mass changes detectably.","prediction":"A small water pulse should lower a salt-crust support's stiffness before its total mass changes detectably.","test":"Use low-load benign crusts with high-sensitivity mass and contact imaging.","contrary":"Stiffness follows resolved mass loss alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0540","hypothesis":"A small water pulse should lower a salt-crust support's stiffness before its total mass changes detectably.","prediction":"A small water pulse should lower a salt-crust support's stiffness before its total mass changes detectably.","test":"Use low-load benign crusts with high-sensitivity mass and contact imaging.","contrary_outcome":"Stiffness follows resolved mass loss alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0541","id":"S7-0541","volume":"900v7","title":"A gentle oscillation should make a floating granular boundary advance in discrete steps when only one end is pinned.","prediction":"A gentle oscillation should make a floating granular boundary advance in discrete steps when only one end is pinned.","test":"Track inert rafts with symmetric and reversed pins.","contrary":"Motion follows mean water drift alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0541","hypothesis":"A gentle oscillation should make a floating granular boundary advance in discrete steps when only one end is pinned.","prediction":"A gentle oscillation should make a floating granular boundary advance in discrete steps when only one end is pinned.","test":"Track inert rafts with symmetric and reversed pins.","contrary_outcome":"Motion follows mean water drift alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0542","id":"S7-0542","volume":"900v7","title":"A small intruder should move laterally during isotropic compression of an anisotropic grain packing.","prediction":"A small intruder should move laterally during isotropic compression of an anisotropic grain packing.","test":"Map benign particle positions and boundary forces.","contrary":"Intruder displacement vanishes after boundary-motion correction.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0542","hypothesis":"A small intruder should move laterally during isotropic compression of an anisotropic grain packing.","prediction":"A small intruder should move laterally during isotropic compression of an anisotropic grain packing.","test":"Map benign particle positions and boundary forces.","contrary_outcome":"Intruder displacement vanishes after boundary-motion correction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0543","id":"S7-0543","volume":"900v7","title":"A granular bed's first local expansion during unloading should occur away from its largest previous compression.","prediction":"A granular bed's first local expansion during unloading should occur away from its largest previous compression.","test":"Track inert disks with full local strain histories.","contrary":"Expansion always starts at maximum prior compression.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0543","hypothesis":"A granular bed's first local expansion during unloading should occur away from its largest previous compression.","prediction":"A granular bed's first local expansion during unloading should occur away from its largest previous compression.","test":"Track inert disks with full local strain histories.","contrary_outcome":"Expansion always starts at maximum prior compression.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0544","id":"S7-0544","volume":"900v7","title":"A shallow flexible floor should make neighboring granular slip events anticorrelated in time.","prediction":"A shallow flexible floor should make neighboring granular slip events anticorrelated in time.","test":"Measure inert-particle events and floor motion.","contrary":"Correlations are unchanged when floor stiffness changes.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0544","hypothesis":"A shallow flexible floor should make neighboring granular slip events anticorrelated in time.","prediction":"A shallow flexible floor should make neighboring granular slip events anticorrelated in time.","test":"Measure inert-particle events and floor motion.","contrary_outcome":"Correlations are unchanged when floor stiffness changes.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0545","id":"S7-0545","volume":"900v7","title":"A rough bead should escape a pocket at a lower tilt after a small backward roll than after direct loading.","prediction":"A rough bead should escape a pocket at a lower tilt after a small backward roll than after direct loading.","test":"Measure low-energy trajectories and contact geometry.","contrary":"Escape tilt depends only on current position.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0545","hypothesis":"A rough bead should escape a pocket at a lower tilt after a small backward roll than after direct loading.","prediction":"A rough bead should escape a pocket at a lower tilt after a small backward roll than after direct loading.","test":"Measure low-energy trajectories and contact geometry.","contrary_outcome":"Escape tilt depends only on current position.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0546","id":"S7-0546","volume":"900v7","title":"A wide granular outlet should temporarily become more intermittent when one side wall is made smoother.","prediction":"A wide granular outlet should temporarily become more intermittent when one side wall is made smoother.","test":"Compare inert-bead discharge and force networks.","contrary":"Intermittency decreases monotonically with wall friction.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0546","hypothesis":"A wide granular outlet should temporarily become more intermittent when one side wall is made smoother.","prediction":"A wide granular outlet should temporarily become more intermittent when one side wall is made smoother.","test":"Compare inert-bead discharge and force networks.","contrary_outcome":"Intermittency decreases monotonically with wall friction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0547","id":"S7-0547","volume":"900v7","title":"A buried compliant inclusion should change grain rearrangement timing more strongly during unloading than loading.","prediction":"A buried compliant inclusion should change grain rearrangement timing more strongly during unloading than loading.","test":"Track benign particles and inclusion strain.","contrary":"Loading and unloading effects mirror at equal force.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0547","hypothesis":"A buried compliant inclusion should change grain rearrangement timing more strongly during unloading than loading.","prediction":"A buried compliant inclusion should change grain rearrangement timing more strongly during unloading than loading.","test":"Track benign particles and inclusion strain.","contrary_outcome":"Loading and unloading effects mirror at equal force.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0548","id":"S7-0548","volume":"900v7","title":"A floating particle ring should fracture first opposite a locally pulled segment rather than beside it.","prediction":"A floating particle ring should fracture first opposite a locally pulled segment rather than beside it.","test":"Map inert contact forces and fracture location.","contrary":"Failure always begins nearest the applied pull.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0548","hypothesis":"A floating particle ring should fracture first opposite a locally pulled segment rather than beside it.","prediction":"A floating particle ring should fracture first opposite a locally pulled segment rather than beside it.","test":"Map inert contact forces and fracture location.","contrary_outcome":"Failure always begins nearest the applied pull.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0549","id":"S7-0549","volume":"900v7","title":"A grain bed should retain different transverse stiffness after equal clockwise and counterclockwise boundary cycles.","prediction":"A grain bed should retain different transverse stiffness after equal clockwise and counterclockwise boundary cycles.","test":"Use photoelastic disks with restored boundaries.","contrary":"Recovered stiffness is direction independent.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0549","hypothesis":"A grain bed should retain different transverse stiffness after equal clockwise and counterclockwise boundary cycles.","prediction":"A grain bed should retain different transverse stiffness after equal clockwise and counterclockwise boundary cycles.","test":"Use photoelastic disks with restored boundaries.","contrary_outcome":"Recovered stiffness is direction independent.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0550","id":"S7-0550","volume":"900v7","title":"A porous support should delay granular failure by draining interstitial water without changing grain packing appreciably.","prediction":"A porous support should delay granular failure by draining interstitial water without changing grain packing appreciably.","test":"Measure inert wet grains, pore pressure, and contact motion.","contrary":"Failure threshold follows packing alone.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0550","hypothesis":"A porous support should delay granular failure by draining interstitial water without changing grain packing appreciably.","prediction":"A porous support should delay granular failure by draining interstitial water without changing grain packing appreciably.","test":"Measure inert wet grains, pore pressure, and contact motion.","contrary_outcome":"Failure threshold follows packing alone.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0550","hypothesis":"A porous support should delay granular failure by draining interstitial water without changing grain packing appreciably.","prediction":"A porous support should delay granular failure by draining interstitial water without changing grain packing appreciably.","test":"Measure inert wet grains, pore pressure, and contact motion.","contrary_outcome":"Failure threshold follows packing alone.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0551","id":"S7-0551","volume":"900v7","title":"A thin layer of elongated grains should orient perpendicular to a moving compression front only within a finite speed range.","prediction":"A thin layer of elongated grains should orient perpendicular to a moving compression front only within a finite speed range.","test":"Track inert rods across controlled front speeds.","contrary":"Orientation depends only on final density.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0551","hypothesis":"A thin layer of elongated grains should orient perpendicular to a moving compression front only within a finite speed range.","prediction":"A thin layer of elongated grains should orient perpendicular to a moving compression front only within a finite speed range.","test":"Track inert rods across controlled front speeds.","contrary_outcome":"Orientation depends only on final density.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0552","id":"S7-0552","volume":"900v7","title":"A grain arch should lose acoustic coherence before its visible contact count changes under slow loading.","prediction":"A grain arch should lose acoustic coherence before its visible contact count changes under slow loading.","test":"Measure weak probes and independent contact images.","contrary":"Coherence changes require visible contact loss.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0552","hypothesis":"A grain arch should lose acoustic coherence before its visible contact count changes under slow loading.","prediction":"A grain arch should lose acoustic coherence before its visible contact count changes under slow loading.","test":"Measure weak probes and independent contact images.","contrary_outcome":"Coherence changes require visible contact loss.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0553","id":"S7-0553","volume":"900v7","title":"A rotating base beneath a fixed granular wall should leave an off-center low-density zone after stopping.","prediction":"A rotating base beneath a fixed granular wall should leave an off-center low-density zone after stopping.","test":"Map inert packing and force distribution.","contrary":"Density becomes axisymmetric when rotation stops.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0553","hypothesis":"A rotating base beneath a fixed granular wall should leave an off-center low-density zone after stopping.","prediction":"A rotating base beneath a fixed granular wall should leave an off-center low-density zone after stopping.","test":"Map inert packing and force distribution.","contrary_outcome":"Density becomes axisymmetric when rotation stops.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0554","id":"S7-0554","volume":"900v7","title":"A small side pocket should trap a granular force chain after boundary load reverses.","prediction":"A small side pocket should trap a granular force chain after boundary load reverses.","test":"Use photoelastic disks with independently controlled side contacts.","contrary":"Force paths reverse symmetrically with load.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0554","hypothesis":"A small side pocket should trap a granular force chain after boundary load reverses.","prediction":"A small side pocket should trap a granular force chain after boundary load reverses.","test":"Use photoelastic disks with independently controlled side contacts.","contrary_outcome":"Force paths reverse symmetrically with load.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0555","id":"S7-0555","volume":"900v7","title":"A vibrating particle raft should exchange particles across a seam without changing its mean seam width.","prediction":"A vibrating particle raft should exchange particles across a seam without changing its mean seam width.","test":"Track inert particles and local geometry.","contrary":"Exchange requires a resolved width increase.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0555","hypothesis":"A vibrating particle raft should exchange particles across a seam without changing its mean seam width.","prediction":"A vibrating particle raft should exchange particles across a seam without changing its mean seam width.","test":"Track inert particles and local geometry.","contrary_outcome":"Exchange requires a resolved width increase.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0556","id":"S7-0556","volume":"900v7","title":"A partial ceiling should suppress convection in one part of a tapped grain bed while leaving another part active.","prediction":"A partial ceiling should suppress convection in one part of a tapped grain bed while leaving another part active.","test":"Measure benign grain trajectories under matched tapping.","contrary":"Convection changes uniformly with ceiling coverage.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0556","hypothesis":"A partial ceiling should suppress convection in one part of a tapped grain bed while leaving another part active.","prediction":"A partial ceiling should suppress convection in one part of a tapped grain bed while leaving another part active.","test":"Measure benign grain trajectories under matched tapping.","contrary_outcome":"Convection changes uniformly with ceiling coverage.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0557","id":"S7-0557","volume":"900v7","title":"A local wet patch should redirect a dry granular shear band before grains enter the wet region.","prediction":"A local wet patch should redirect a dry granular shear band before grains enter the wet region.","test":"Map inert grains and moisture with isolated-patch controls.","contrary":"Band changes begin only at direct wet contact.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0557","hypothesis":"A local wet patch should redirect a dry granular shear band before grains enter the wet region.","prediction":"A local wet patch should redirect a dry granular shear band before grains enter the wet region.","test":"Map inert grains and moisture with isolated-patch controls.","contrary_outcome":"Band changes begin only at direct wet contact.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0558","id":"S7-0558","volume":"900v7","title":"A compliant grain cluster should show a pressure maximum after external displacement stops.","prediction":"A compliant grain cluster should show a pressure maximum after external displacement stops.","test":"Measure low-force particles with synchronized boundary and contact sensors.","contrary":"Pressure peaks at the end of imposed motion.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0558","hypothesis":"A compliant grain cluster should show a pressure maximum after external displacement stops.","prediction":"A compliant grain cluster should show a pressure maximum after external displacement stops.","test":"Measure low-force particles with synchronized boundary and contact sensors.","contrary_outcome":"Pressure peaks at the end of imposed motion.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0559","id":"S7-0559","volume":"900v7","title":"A supported bead chain should transmit a disturbance farther after removing one redundant support.","prediction":"A supported bead chain should transmit a disturbance farther after removing one redundant support.","test":"Track low-energy contact pulses and support forces.","contrary":"Propagation range decreases whenever support is removed.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0559","hypothesis":"A supported bead chain should transmit a disturbance farther after removing one redundant support.","prediction":"A supported bead chain should transmit a disturbance farther after removing one redundant support.","test":"Track low-energy contact pulses and support forces.","contrary_outcome":"Propagation range decreases whenever support is removed.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0560","id":"S7-0560","volume":"900v7","title":"A two-layer grain bed should show different surface roughness after equal compaction applied from above versus below.","prediction":"A two-layer grain bed should show different surface roughness after equal compaction applied from above versus below.","test":"Measure inert surface profiles and internal packing.","contrary":"Surface statistics depend only on final density.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0560","hypothesis":"A two-layer grain bed should show different surface roughness after equal compaction applied from above versus below.","prediction":"A two-layer grain bed should show different surface roughness after equal compaction applied from above versus below.","test":"Measure inert surface profiles and internal packing.","contrary_outcome":"Surface statistics depend only on final density.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0561","id":"S7-0561","volume":"900v7","title":"A shallow warm-air cell should reverse circulation when one vertical wall becomes slightly compliant.","prediction":"A shallow warm-air cell should reverse circulation when one vertical wall becomes slightly compliant.","test":"Measure mild heating, wall motion, and air tracers.","contrary":"Circulation changes require altered wall temperature.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0561","hypothesis":"A shallow warm-air cell should reverse circulation when one vertical wall becomes slightly compliant.","prediction":"A shallow warm-air cell should reverse circulation when one vertical wall becomes slightly compliant.","test":"Measure mild heating, wall motion, and air tracers.","contrary_outcome":"Circulation changes require altered wall temperature.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0562","id":"S7-0562","volume":"900v7","title":"A thermal contact's spatial heat-flux pattern should relax more slowly than its total conductance after a load step.","prediction":"A thermal contact's spatial heat-flux pattern should relax more slowly than its total conductance after a load step.","test":"Map safe-temperature flux and contact pressure.","contrary":"Spatial and integrated responses share one relaxation time.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0562","hypothesis":"A thermal contact's spatial heat-flux pattern should relax more slowly than its total conductance after a load step.","prediction":"A thermal contact's spatial heat-flux pattern should relax more slowly than its total conductance after a load step.","test":"Map safe-temperature flux and contact pressure.","contrary_outcome":"Spatial and integrated responses share one relaxation time.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0563","id":"S7-0563","volume":"900v7","title":"A small insulating island should create a remote surface temperature maximum under uniform backside heating.","prediction":"A small insulating island should create a remote surface temperature maximum under uniform backside heating.","test":"Measure calibrated thermal maps and known boundary losses.","contrary":"The maximum stays directly above the island.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0563","hypothesis":"A small insulating island should create a remote surface temperature maximum under uniform backside heating.","prediction":"A small insulating island should create a remote surface temperature maximum under uniform backside heating.","test":"Measure calibrated thermal maps and known boundary losses.","contrary_outcome":"The maximum stays directly above the island.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0563","hypothesis":"A small insulating island should create a remote surface temperature maximum under uniform backside heating.","prediction":"A small insulating island should create a remote surface temperature maximum under uniform backside heating.","test":"Measure calibrated thermal maps and known boundary losses.","contrary_outcome":"The maximum stays directly above the island.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0564","id":"S7-0564","volume":"900v7","title":"A water-filled thermal cavity should retain different wall temperature ordering after equal heating from opposite sides.","prediction":"A water-filled thermal cavity should retain different wall temperature ordering after equal heating from opposite sides.","test":"Track safe-temperature walls and internal flow.","contrary":"Ordering depends only on final mean temperature.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0564","hypothesis":"A water-filled thermal cavity should retain different wall temperature ordering after equal heating from opposite sides.","prediction":"A water-filled thermal cavity should retain different wall temperature ordering after equal heating from opposite sides.","test":"Track safe-temperature walls and internal flow.","contrary_outcome":"Ordering depends only on final mean temperature.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0565","id":"S7-0565","volume":"900v7","title":"A porous surface should cool unevenly after uniform wetting because connected pathways empty at different times.","prediction":"A porous surface should cool unevenly after uniform wetting because connected pathways empty at different times.","test":"Measure benign moisture, temperature, and pore connectivity.","contrary":"Temperature patterns follow exposed area alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0565","hypothesis":"A porous surface should cool unevenly after uniform wetting because connected pathways empty at different times.","prediction":"A porous surface should cool unevenly after uniform wetting because connected pathways empty at different times.","test":"Measure benign moisture, temperature, and pore connectivity.","contrary_outcome":"Temperature patterns follow exposed area alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0566","id":"S7-0566","volume":"900v7","title":"A folded conductive foil should show delayed heat spreading across a crease after gentle flattening.","prediction":"A folded conductive foil should show delayed heat spreading across a crease after gentle flattening.","test":"Measure modest thermal pulses and interface contact recovery.","contrary":"Thermal response recovers immediately with visible flatness.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0566","hypothesis":"A folded conductive foil should show delayed heat spreading across a crease after gentle flattening.","prediction":"A folded conductive foil should show delayed heat spreading across a crease after gentle flattening.","test":"Measure modest thermal pulses and interface contact recovery.","contrary_outcome":"Thermal response recovers immediately with visible flatness.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0567","id":"S7-0567","volume":"900v7","title":"A soft thermal pad should have different heat-flux noise during increasing and decreasing clamping pressure at equal mean conductance.","prediction":"A soft thermal pad should have different heat-flux noise during increasing and decreasing clamping pressure at equal mean conductance.","test":"Measure mild flux, force, and contact micro-motion.","contrary":"Noise depends only on mean conductance.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0567","hypothesis":"A soft thermal pad should have different heat-flux noise during increasing and decreasing clamping pressure at equal mean conductance.","prediction":"A soft thermal pad should have different heat-flux noise during increasing and decreasing clamping pressure at equal mean conductance.","test":"Measure mild flux, force, and contact micro-motion.","contrary_outcome":"Noise depends only on mean conductance.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0568","id":"S7-0568","volume":"900v7","title":"A small thermal mass added to a vent flap should suppress temperature oscillations without changing its mean opening.","prediction":"A small thermal mass added to a vent flap should suppress temperature oscillations without changing its mean opening.","test":"Measure low-power enclosure temperature and flap motion.","contrary":"Suppression requires a change in mean opening.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0568","hypothesis":"A small thermal mass added to a vent flap should suppress temperature oscillations without changing its mean opening.","prediction":"A small thermal mass added to a vent flap should suppress temperature oscillations without changing its mean opening.","test":"Measure low-power enclosure temperature and flap motion.","contrary_outcome":"Suppression requires a change in mean opening.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0569","id":"S7-0569","volume":"900v7","title":"A transparent water bridge should cool fastest away from its minimum neck under nonuniform evaporation.","prediction":"A transparent water bridge should cool fastest away from its minimum neck under nonuniform evaporation.","test":"Map modest temperature and local evaporation with full geometry.","contrary":"Cooling maximum always coincides with the neck.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0569","hypothesis":"A transparent water bridge should cool fastest away from its minimum neck under nonuniform evaporation.","prediction":"A transparent water bridge should cool fastest away from its minimum neck under nonuniform evaporation.","test":"Map modest temperature and local evaporation with full geometry.","contrary_outcome":"Cooling maximum always coincides with the neck.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0570","id":"S7-0570","volume":"900v7","title":"A low-power heater's apparent time constant should change when its flexible leads carry mechanical tension.","prediction":"A low-power heater's apparent time constant should change when its flexible leads carry mechanical tension.","test":"Measure lead force, conduction, and independent heater temperature.","contrary":"Time constant is independent of lead tension after geometry correction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0570","hypothesis":"A low-power heater's apparent time constant should change when its flexible leads carry mechanical tension.","prediction":"A low-power heater's apparent time constant should change when its flexible leads carry mechanical tension.","test":"Measure lead force, conduction, and independent heater temperature.","contrary_outcome":"Time constant is independent of lead tension after geometry correction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0571","id":"S7-0571","volume":"900v7","title":"A small external air baffle should alter enclosure cooling order more strongly during the first minute than at steady state.","prediction":"A small external air baffle should alter enclosure cooling order more strongly during the first minute than at steady state.","test":"Measure safe-temperature multi-point cooling and airflow.","contrary":"The same ordering holds at all times.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0571","hypothesis":"A small external air baffle should alter enclosure cooling order more strongly during the first minute than at steady state.","prediction":"A small external air baffle should alter enclosure cooling order more strongly during the first minute than at steady state.","test":"Measure safe-temperature multi-point cooling and airflow.","contrary_outcome":"The same ordering holds at all times.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0572","id":"S7-0572","volume":"900v7","title":"A wet porous contact should show a conductance overshoot after gentle compression before reaching its long-time value.","prediction":"A wet porous contact should show a conductance overshoot after gentle compression before reaching its long-time value.","test":"Measure mild heat flux, water redistribution, and contact pressure.","contrary":"Conductance approaches equilibrium monotonically.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0572","hypothesis":"A wet porous contact should show a conductance overshoot after gentle compression before reaching its long-time value.","prediction":"A wet porous contact should show a conductance overshoot after gentle compression before reaching its long-time value.","test":"Measure mild heat flux, water redistribution, and contact pressure.","contrary_outcome":"Conductance approaches equilibrium monotonically.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0573","id":"S7-0573","volume":"900v7","title":"A partially insulated ring should develop a thermal strain node that moves during cooling.","prediction":"A partially insulated ring should develop a thermal strain node that moves during cooling.","test":"Map safe-temperature strain and temperature around the ring.","contrary":"The node is fixed by insulation boundaries.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0573","hypothesis":"A partially insulated ring should develop a thermal strain node that moves during cooling.","prediction":"A partially insulated ring should develop a thermal strain node that moves during cooling.","test":"Map safe-temperature strain and temperature around the ring.","contrary_outcome":"The node is fixed by insulation boundaries.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0574","id":"S7-0574","volume":"900v7","title":"A thin reflective screen should reduce temperature variability more than mean temperature in a radiatively heated cavity.","prediction":"A thin reflective screen should reduce temperature variability more than mean temperature in a radiatively heated cavity.","test":"Use modest radiation and calibrated multi-point thermometry.","contrary":"Variability reduction is proportional to mean cooling.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0574","hypothesis":"A thin reflective screen should reduce temperature variability more than mean temperature in a radiatively heated cavity.","prediction":"A thin reflective screen should reduce temperature variability more than mean temperature in a radiatively heated cavity.","test":"Use modest radiation and calibrated multi-point thermometry.","contrary_outcome":"Variability reduction is proportional to mean cooling.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0575","id":"S7-0575","volume":"900v7","title":"A compliant cooling channel should redistribute flow after heating even when total water discharge stays constant.","prediction":"A compliant cooling channel should redistribute flow after heating even when total water discharge stays constant.","test":"Measure safe-temperature branches, wall shape, and individual flows.","contrary":"Branch fractions remain fixed at constant total flow.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0575","hypothesis":"A compliant cooling channel should redistribute flow after heating even when total water discharge stays constant.","prediction":"A compliant cooling channel should redistribute flow after heating even when total water discharge stays constant.","test":"Measure safe-temperature branches, wall shape, and individual flows.","contrary_outcome":"Branch fractions remain fixed at constant total flow.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0576","id":"S7-0576","volume":"900v7","title":"A small air leak should change the phase of a cavity's thermal response before its mean temperature changes detectably.","prediction":"A small air leak should change the phase of a cavity's thermal response before its mean temperature changes detectably.","test":"Measure low-power heat modulation and calibrated leakage.","contrary":"Phase changes require a resolvable mean shift.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0576","hypothesis":"A small air leak should change the phase of a cavity's thermal response before its mean temperature changes detectably.","prediction":"A small air leak should change the phase of a cavity's thermal response before its mean temperature changes detectably.","test":"Measure low-power heat modulation and calibrated leakage.","contrary_outcome":"Phase changes require a resolvable mean shift.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0577","id":"S7-0577","volume":"900v7","title":"A drying cloth's thermal pattern should retain a signature of its previous fold after it is flattened.","prediction":"A drying cloth's thermal pattern should retain a signature of its previous fold after it is flattened.","test":"Map benign cloth moisture and temperature with uniform-airflow controls.","contrary":"Patterns depend only on current thickness and moisture.","layers":[1,2],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0577","hypothesis":"A drying cloth's thermal pattern should retain a signature of its previous fold after it is flattened.","prediction":"A drying cloth's thermal pattern should retain a signature of its previous fold after it is flattened.","test":"Map benign cloth moisture and temperature with uniform-airflow controls.","contrary_outcome":"Patterns depend only on current thickness and moisture.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0577","hypothesis":"A drying cloth's thermal pattern should retain a signature of its previous fold after it is flattened.","prediction":"A drying cloth's thermal pattern should retain a signature of its previous fold after it is flattened.","test":"Map benign cloth moisture and temperature with uniform-airflow controls.","contrary_outcome":"Patterns depend only on current thickness and moisture.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0578","id":"S7-0578","volume":"900v7","title":"A water-cooled plate should develop a transient hot spot downstream of a newly opened bypass.","prediction":"A water-cooled plate should develop a transient hot spot downstream of a newly opened bypass.","test":"Measure safe-temperature flux, flow, and plate temperature.","contrary":"Opening the bypass lowers temperature everywhere immediately.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0578","hypothesis":"A water-cooled plate should develop a transient hot spot downstream of a newly opened bypass.","prediction":"A water-cooled plate should develop a transient hot spot downstream of a newly opened bypass.","test":"Measure safe-temperature flux, flow, and plate temperature.","contrary_outcome":"Opening the bypass lowers temperature everywhere immediately.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0579","id":"S7-0579","volume":"900v7","title":"A soft heat strap should recover stiffness before thermal conductance after an unloading cycle.","prediction":"A soft heat strap should recover stiffness before thermal conductance after an unloading cycle.","test":"Measure modest mechanical and thermal responses independently.","contrary":"Both recover together after geometric correction.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0579","hypothesis":"A soft heat strap should recover stiffness before thermal conductance after an unloading cycle.","prediction":"A soft heat strap should recover stiffness before thermal conductance after an unloading cycle.","test":"Measure modest mechanical and thermal responses independently.","contrary_outcome":"Both recover together after geometric correction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0580","id":"S7-0580","volume":"900v7","title":"A locally warmed particle bed should rearrange under fixed total load without a measurable bulk expansion.","prediction":"A locally warmed particle bed should rearrange under fixed total load without a measurable bulk expansion.","test":"Track inert particles and boundary forces at safe temperatures.","contrary":"Rearrangements require resolved overall expansion.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0580","hypothesis":"A locally warmed particle bed should rearrange under fixed total load without a measurable bulk expansion.","prediction":"A locally warmed particle bed should rearrange under fixed total load without a measurable bulk expansion.","test":"Track inert particles and boundary forces at safe temperatures.","contrary_outcome":"Rearrangements require resolved overall expansion.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0581","id":"S7-0581","volume":"900v7","title":"A weak acoustic drive should reveal a changing contact topology in a folded sheet before static stiffness resolves it.","prediction":"A weak acoustic drive should reveal a changing contact topology in a folded sheet before static stiffness resolves it.","test":"Compare spectra with independent microscopic contact labels.","contrary":"Acoustic changes are explained by measured stiffness alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0581","hypothesis":"A weak acoustic drive should reveal a changing contact topology in a folded sheet before static stiffness resolves it.","prediction":"A weak acoustic drive should reveal a changing contact topology in a folded sheet before static stiffness resolves it.","test":"Compare spectra with independent microscopic contact labels.","contrary_outcome":"Acoustic changes are explained by measured stiffness alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0582","id":"S7-0582","volume":"900v7","title":"A small removable damper should shift the position of maximum vibration on a plate without changing its total vibration energy much.","prediction":"A small removable damper should shift the position of maximum vibration on a plate without changing its total vibration energy much.","test":"Map low-amplitude motion and dissipated power.","contrary":"Spatial changes require a proportional energy reduction.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0582","hypothesis":"A small removable damper should shift the position of maximum vibration on a plate without changing its total vibration energy much.","prediction":"A small removable damper should shift the position of maximum vibration on a plate without changing its total vibration energy much.","test":"Map low-amplitude motion and dissipated power.","contrary_outcome":"Spatial changes require a proportional energy reduction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0583","id":"S7-0583","volume":"900v7","title":"A partially filled cavity should have an acoustic decay memory after a water slosh ends.","prediction":"A partially filled cavity should have an acoustic decay memory after a water slosh ends.","test":"Measure quiet sound and residual liquid films.","contrary":"Decay returns immediately with bulk water rest.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0583","hypothesis":"A partially filled cavity should have an acoustic decay memory after a water slosh ends.","prediction":"A partially filled cavity should have an acoustic decay memory after a water slosh ends.","test":"Measure quiet sound and residual liquid films.","contrary_outcome":"Decay returns immediately with bulk water rest.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0584","id":"S7-0584","volume":"900v7","title":"A textile hinge should produce different quiet acoustic signatures during opening and closing at equal angle.","prediction":"A textile hinge should produce different quiet acoustic signatures during opening and closing at equal angle.","test":"Measure low-level probing with independent fiber-slip imaging.","contrary":"Response depends only on angle and tension.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0584","hypothesis":"A textile hinge should produce different quiet acoustic signatures during opening and closing at equal angle.","prediction":"A textile hinge should produce different quiet acoustic signatures during opening and closing at equal angle.","test":"Measure low-level probing with independent fiber-slip imaging.","contrary_outcome":"Response depends only on angle and tension.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0585","id":"S7-0585","volume":"900v7","title":"A bowed string should retain a mode-shape asymmetry after a temporary off-center contact withdraws.","prediction":"A bowed string should retain a mode-shape asymmetry after a temporary off-center contact withdraws.","test":"Use gentle controlled excitation and full string tracking.","contrary":"Asymmetry disappears immediately after contact removal.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0585","hypothesis":"A bowed string should retain a mode-shape asymmetry after a temporary off-center contact withdraws.","prediction":"A bowed string should retain a mode-shape asymmetry after a temporary off-center contact withdraws.","test":"Use gentle controlled excitation and full string tracking.","contrary_outcome":"Asymmetry disappears immediately after contact removal.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0586","id":"S7-0586","volume":"900v7","title":"A hollow beam should distinguish an internal loose object from an equal bonded mass through amplitude-dependent damping.","prediction":"A hollow beam should distinguish an internal loose object from an equal bonded mass through amplitude-dependent damping.","test":"Measure low-energy sweeps and object motion.","contrary":"Damping depends only on total mass distribution.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0586","hypothesis":"A hollow beam should distinguish an internal loose object from an equal bonded mass through amplitude-dependent damping.","prediction":"A hollow beam should distinguish an internal loose object from an equal bonded mass through amplitude-dependent damping.","test":"Measure low-energy sweeps and object motion.","contrary_outcome":"Damping depends only on total mass distribution.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0587","id":"S7-0587","volume":"900v7","title":"A pressure-loaded membrane should show increased cycle-to-cycle phase variability before switching deformation branches.","prediction":"A pressure-loaded membrane should show increased cycle-to-cycle phase variability before switching deformation branches.","test":"Measure low-pressure shapes and quiet vibration.","contrary":"Variability rises only after branch switching.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0587","hypothesis":"A pressure-loaded membrane should show increased cycle-to-cycle phase variability before switching deformation branches.","prediction":"A pressure-loaded membrane should show increased cycle-to-cycle phase variability before switching deformation branches.","test":"Measure low-pressure shapes and quiet vibration.","contrary_outcome":"Variability rises only after branch switching.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0588","id":"S7-0588","volume":"900v7","title":"A soft support's echo should reveal load direction even after the net support force is restored to zero.","prediction":"A soft support's echo should reveal load direction even after the net support force is restored to zero.","test":"Compare gentle pulses after reversed low-load histories.","contrary":"Zero-load responses are history independent.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0588","hypothesis":"A soft support's echo should reveal load direction even after the net support force is restored to zero.","prediction":"A soft support's echo should reveal load direction even after the net support force is restored to zero.","test":"Compare gentle pulses after reversed low-load histories.","contrary_outcome":"Zero-load responses are history independent.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0589","id":"S7-0589","volume":"900v7","title":"A narrow seam should transmit a mechanical pulse differently when closed by adhesion than by normal force at equal gap.","prediction":"A narrow seam should transmit a mechanical pulse differently when closed by adhesion than by normal force at equal gap.","test":"Use benign transparent interfaces with independent contact maps.","contrary":"Pulse response depends only on current gap.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0589","hypothesis":"A narrow seam should transmit a mechanical pulse differently when closed by adhesion than by normal force at equal gap.","prediction":"A narrow seam should transmit a mechanical pulse differently when closed by adhesion than by normal force at equal gap.","test":"Use benign transparent interfaces with independent contact maps.","contrary_outcome":"Pulse response depends only on current gap.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0589","hypothesis":"A narrow seam should transmit a mechanical pulse differently when closed by adhesion than by normal force at equal gap.","prediction":"A narrow seam should transmit a mechanical pulse differently when closed by adhesion than by normal force at equal gap.","test":"Use benign transparent interfaces with independent contact maps.","contrary_outcome":"Pulse response depends only on current gap.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0590","id":"S7-0590","volume":"900v7","title":"A thin liquid coating should change one torsional mode's damping more than a neighboring bending mode's damping.","prediction":"A thin liquid coating should change one torsional mode's damping more than a neighboring bending mode's damping.","test":"Measure low-amplitude modes with matched dry mass controls.","contrary":"Damping changes scale identically with coating mass.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0590","hypothesis":"A thin liquid coating should change one torsional mode's damping more than a neighboring bending mode's damping.","prediction":"A thin liquid coating should change one torsional mode's damping more than a neighboring bending mode's damping.","test":"Measure low-amplitude modes with matched dry mass controls.","contrary_outcome":"Damping changes scale identically with coating mass.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0591","id":"S7-0591","volume":"900v7","title":"A pair of optical focus settings should distinguish gel surface movement from internal refractive-index change.","prediction":"A pair of optical focus settings should distinguish gel surface movement from internal refractive-index change.","test":"Validate benign gels with independent thickness and index references.","contrary":"Both changes remain inseparable at matched light dose.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0591","hypothesis":"A pair of optical focus settings should distinguish gel surface movement from internal refractive-index change.","prediction":"A pair of optical focus settings should distinguish gel surface movement from internal refractive-index change.","test":"Validate benign gels with independent thickness and index references.","contrary_outcome":"Both changes remain inseparable at matched light dose.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0592","id":"S7-0592","volume":"900v7","title":"A reflected line should locate a hidden membrane support more accurately during gentle oscillation than at rest.","prediction":"A reflected line should locate a hidden membrane support more accurately during gentle oscillation than at rest.","test":"Compare blinded locations with matched imaging time.","contrary":"Oscillation adds no localization value.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0592","hypothesis":"A reflected line should locate a hidden membrane support more accurately during gentle oscillation than at rest.","prediction":"A reflected line should locate a hidden membrane support more accurately during gentle oscillation than at rest.","test":"Compare blinded locations with matched imaging time.","contrary_outcome":"Oscillation adds no localization value.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0593","id":"S7-0593","volume":"900v7","title":"A porous transparent surface should show directional image distortion before its first visible water breakthrough.","prediction":"A porous transparent surface should show directional image distortion before its first visible water breakthrough.","test":"Compare calibrated patterns with independent pore-water imaging.","contrary":"Distortion appears only after breakthrough.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0593","hypothesis":"A porous transparent surface should show directional image distortion before its first visible water breakthrough.","prediction":"A porous transparent surface should show directional image distortion before its first visible water breakthrough.","test":"Compare calibrated patterns with independent pore-water imaging.","contrary_outcome":"Distortion appears only after breakthrough.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0594","id":"S7-0594","volume":"900v7","title":"A faint interference pattern should retain evidence of a closed soft-interface gap after mean brightness recovers.","prediction":"A faint interference pattern should retain evidence of a closed soft-interface gap after mean brightness recovers.","test":"Measure benign contact geometry with independent gap references.","contrary":"Pattern recovery matches mean brightness recovery exactly.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0594","hypothesis":"A faint interference pattern should retain evidence of a closed soft-interface gap after mean brightness recovers.","prediction":"A faint interference pattern should retain evidence of a closed soft-interface gap after mean brightness recovers.","test":"Measure benign contact geometry with independent gap references.","contrary_outcome":"Pattern recovery matches mean brightness recovery exactly.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0595","id":"S7-0595","volume":"900v7","title":"A projected texture should reveal lateral shrinkage beneath an opaque coating through correlated boundary motion.","prediction":"A projected texture should reveal lateral shrinkage beneath an opaque coating through correlated boundary motion.","test":"Compare benign films with sectioned strain references.","contrary":"Only exposed edges provide useful strain information.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0595","hypothesis":"A projected texture should reveal lateral shrinkage beneath an opaque coating through correlated boundary motion.","prediction":"A projected texture should reveal lateral shrinkage beneath an opaque coating through correlated boundary motion.","test":"Compare benign films with sectioned strain references.","contrary_outcome":"Only exposed edges provide useful strain information.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0596","id":"S7-0596","volume":"900v7","title":"A two-view silhouette should distinguish a flattened bubble from an inclined spherical bubble at equal projected area.","prediction":"A two-view silhouette should distinguish a flattened bubble from an inclined spherical bubble at equal projected area.","test":"Validate water bubbles with independent geometry reconstruction.","contrary":"The shapes remain ambiguous in both views.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0596","hypothesis":"A two-view silhouette should distinguish a flattened bubble from an inclined spherical bubble at equal projected area.","prediction":"A two-view silhouette should distinguish a flattened bubble from an inclined spherical bubble at equal projected area.","test":"Validate water bubbles with independent geometry reconstruction.","contrary_outcome":"The shapes remain ambiguous in both views.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0597","id":"S7-0597","volume":"900v7","title":"A rotating light field should reveal grain contact changes hidden by a fixed shadow pattern.","prediction":"A rotating light field should reveal grain contact changes hidden by a fixed shadow pattern.","test":"Use inert grains with independent contact ground truth.","contrary":"Contact detection accuracy remains unchanged after matched exposure.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0597","hypothesis":"A rotating light field should reveal grain contact changes hidden by a fixed shadow pattern.","prediction":"A rotating light field should reveal grain contact changes hidden by a fixed shadow pattern.","test":"Use inert grains with independent contact ground truth.","contrary_outcome":"Contact detection accuracy remains unchanged after matched exposure.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0598","id":"S7-0598","volume":"900v7","title":"A clear gel's stress contrast should peak after its visible water front passes if mechanical relaxation is delayed.","prediction":"A clear gel's stress contrast should peak after its visible water front passes if mechanical relaxation is delayed.","test":"Synchronize polarized imaging, water profiles, and strain.","contrary":"Contrast peaks exactly with front passage.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0598","hypothesis":"A clear gel's stress contrast should peak after its visible water front passes if mechanical relaxation is delayed.","prediction":"A clear gel's stress contrast should peak after its visible water front passes if mechanical relaxation is delayed.","test":"Synchronize polarized imaging, water profiles, and strain.","contrary_outcome":"Contrast peaks exactly with front passage.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0599","id":"S7-0599","volume":"900v7","title":"A thin film's reflected-color distribution should distinguish uniform thinning from patchwise drainage at equal mean thickness.","prediction":"A thin film's reflected-color distribution should distinguish uniform thinning from patchwise drainage at equal mean thickness.","test":"Use benign films with independent thickness maps.","contrary":"Color statistics depend only on mean thickness.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0599","hypothesis":"A thin film's reflected-color distribution should distinguish uniform thinning from patchwise drainage at equal mean thickness.","prediction":"A thin film's reflected-color distribution should distinguish uniform thinning from patchwise drainage at equal mean thickness.","test":"Use benign films with independent thickness maps.","contrary_outcome":"Color statistics depend only on mean thickness.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0600","id":"S7-0600","volume":"900v7","title":"A moving optical reference should expose false slip caused by camera-image stabilization during a slow contact test.","prediction":"A moving optical reference should expose false slip caused by camera-image stabilization during a slow contact test.","test":"Compare raw and stabilized images with independent displacement sensing.","contrary":"Stabilization introduces no apparent relative slip.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0600","hypothesis":"A moving optical reference should expose false slip caused by camera-image stabilization during a slow contact test.","prediction":"A moving optical reference should expose false slip caused by camera-image stabilization during a slow contact test.","test":"Compare raw and stabilized images with independent displacement sensing.","contrary_outcome":"Stabilization introduces no apparent relative slip.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0600","hypothesis":"A moving optical reference should expose false slip caused by camera-image stabilization during a slow contact test.","prediction":"A moving optical reference should expose false slip caused by camera-image stabilization during a slow contact test.","test":"Compare raw and stabilized images with independent displacement sensing.","contrary_outcome":"Stabilization introduces no apparent relative slip.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0601","id":"S7-0601","volume":"900v7","title":"A dry sand ridge should redirect an initial runoff pulse more strongly than a later equal pulse after wetting.","prediction":"A dry sand ridge should redirect an initial runoff pulse more strongly than a later equal pulse after wetting.","test":"Track benign tray runoff with moisture and topography maps.","contrary":"Diversion depends only on ridge geometry.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0601","hypothesis":"A dry sand ridge should redirect an initial runoff pulse more strongly than a later equal pulse after wetting.","prediction":"A dry sand ridge should redirect an initial runoff pulse more strongly than a later equal pulse after wetting.","test":"Track benign tray runoff with moisture and topography maps.","contrary_outcome":"Diversion depends only on ridge geometry.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0602","id":"S7-0602","volume":"900v7","title":"A narrow soil crack should carry an early water pulse below a compacted layer before surface ponding begins.","prediction":"A narrow soil crack should carry an early water pulse below a compacted layer before surface ponding begins.","test":"Use inert soil analogs and transparent side-wall tracer imaging.","contrary":"Deep arrival follows bulk wetting depth only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0602","hypothesis":"A narrow soil crack should carry an early water pulse below a compacted layer before surface ponding begins.","prediction":"A narrow soil crack should carry an early water pulse below a compacted layer before surface ponding begins.","test":"Use inert soil analogs and transparent side-wall tracer imaging.","contrary_outcome":"Deep arrival follows bulk wetting depth only.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0603","id":"S7-0603","volume":"900v7","title":"A shallow sediment step should migrate upstream under alternating flows despite zero mean water discharge.","prediction":"A shallow sediment step should migrate upstream under alternating flows despite zero mean water discharge.","test":"Measure inert-grain topography through symmetric water cycles.","contrary":"Migration follows net discharge alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0603","hypothesis":"A shallow sediment step should migrate upstream under alternating flows despite zero mean water discharge.","prediction":"A shallow sediment step should migrate upstream under alternating flows despite zero mean water discharge.","test":"Measure inert-grain topography through symmetric water cycles.","contrary_outcome":"Migration follows net discharge alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0604","id":"S7-0604","volume":"900v7","title":"A rough stone's shaded underside should remain wet longer after wind direction reverses than a static-exposure model predicts.","prediction":"A rough stone's shaded underside should remain wet longer after wind direction reverses than a static-exposure model predicts.","test":"Use benign stone models with measured airflow and water films.","contrary":"Drying follows instantaneous exposure without history.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0604","hypothesis":"A rough stone's shaded underside should remain wet longer after wind direction reverses than a static-exposure model predicts.","prediction":"A rough stone's shaded underside should remain wet longer after wind direction reverses than a static-exposure model predicts.","test":"Use benign stone models with measured airflow and water films.","contrary_outcome":"Drying follows instantaneous exposure without history.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0605","id":"S7-0605","volume":"900v7","title":"A miniature branching drainage network should reconnect in a different order after two equal rain pulses separated by different waits.","prediction":"A miniature branching drainage network should reconnect in a different order after two equal rain pulses separated by different waits.","test":"Measure clean-water runoff and antecedent moisture in inert trays.","contrary":"Reconnection depends only on total supplied water.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0605","hypothesis":"A miniature branching drainage network should reconnect in a different order after two equal rain pulses separated by different waits.","prediction":"A miniature branching drainage network should reconnect in a different order after two equal rain pulses separated by different waits.","test":"Measure clean-water runoff and antecedent moisture in inert trays.","contrary_outcome":"Reconnection depends only on total supplied water.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0606","id":"S7-0606","volume":"900v7","title":"A layer of coarse particles should protect a fine bed from splash while increasing its subsurface water transport.","prediction":"A layer of coarse particles should protect a fine bed from splash while increasing its subsurface water transport.","test":"Use low-energy clean-water droplets and separately measured erosion and drainage.","contrary":"Protection and drainage changes follow exposed area alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0606","hypothesis":"A layer of coarse particles should protect a fine bed from splash while increasing its subsurface water transport.","prediction":"A layer of coarse particles should protect a fine bed from splash while increasing its subsurface water transport.","test":"Use low-energy clean-water droplets and separately measured erosion and drainage.","contrary_outcome":"Protection and drainage changes follow exposed area alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0607","id":"S7-0607","volume":"900v7","title":"A shallow depression should export a concentrated sediment burst immediately after overflow begins.","prediction":"A shallow depression should export a concentrated sediment burst immediately after overflow begins.","test":"Track inert sediment and water volume in controlled tray filling.","contrary":"Outlet concentration equals the well-mixed basin concentration.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0607","hypothesis":"A shallow depression should export a concentrated sediment burst immediately after overflow begins.","prediction":"A shallow depression should export a concentrated sediment burst immediately after overflow begins.","test":"Track inert sediment and water volume in controlled tray filling.","contrary_outcome":"Outlet concentration equals the well-mixed basin concentration.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0608","id":"S7-0608","volume":"900v7","title":"A small porous obstacle should reduce downstream erosion more than a solid obstacle with equal projected area.","prediction":"A small porous obstacle should reduce downstream erosion more than a solid obstacle with equal projected area.","test":"Measure benign tray topography and water velocity.","contrary":"Erosion depends only on projected blockage.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0608","hypothesis":"A small porous obstacle should reduce downstream erosion more than a solid obstacle with equal projected area.","prediction":"A small porous obstacle should reduce downstream erosion more than a solid obstacle with equal projected area.","test":"Measure benign tray topography and water velocity.","contrary_outcome":"Erosion depends only on projected blockage.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0609","id":"S7-0609","volume":"900v7","title":"A tilted layered bed should wet laterally uphill before an underlying coarse layer fills vertically.","prediction":"A tilted layered bed should wet laterally uphill before an underlying coarse layer fills vertically.","test":"Use inert transparent analogs with independently measured capillary properties.","contrary":"Wetting follows gravity and shortest distance only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0609","hypothesis":"A tilted layered bed should wet laterally uphill before an underlying coarse layer fills vertically.","prediction":"A tilted layered bed should wet laterally uphill before an underlying coarse layer fills vertically.","test":"Use inert transparent analogs with independently measured capillary properties.","contrary_outcome":"Wetting follows gravity and shortest distance only.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0610","id":"S7-0610","volume":"900v7","title":"A dried surface crust should crack differently after bottom-up and top-down rewetting at equal final moisture.","prediction":"A dried surface crust should crack differently after bottom-up and top-down rewetting at equal final moisture.","test":"Image benign clay analogs with full moisture profiles.","contrary":"Crack patterns are determined only by final water content.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0610","hypothesis":"A dried surface crust should crack differently after bottom-up and top-down rewetting at equal final moisture.","prediction":"A dried surface crust should crack differently after bottom-up and top-down rewetting at equal final moisture.","test":"Image benign clay analogs with full moisture profiles.","contrary_outcome":"Crack patterns are determined only by final water content.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0611","id":"S7-0611","volume":"900v7","title":"A short rainfall pause should increase the peak runoff of the next pulse without increasing its total water input.","prediction":"A short rainfall pause should increase the peak runoff of the next pulse without increasing its total water input.","test":"Measure benign trays with surface sealing and infiltration separately.","contrary":"Peak runoff depends only on instantaneous rainfall rate.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0611","hypothesis":"A short rainfall pause should increase the peak runoff of the next pulse without increasing its total water input.","prediction":"A short rainfall pause should increase the peak runoff of the next pulse without increasing its total water input.","test":"Measure benign trays with surface sealing and infiltration separately.","contrary_outcome":"Peak runoff depends only on instantaneous rainfall rate.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0612","id":"S7-0612","volume":"900v7","title":"A narrow plant-free fiber mat should trap sediment upstream while increasing water speed beneath its center.","prediction":"A narrow plant-free fiber mat should trap sediment upstream while increasing water speed beneath its center.","test":"Use inert fibers and grains with velocity and mass balance.","contrary":"Sediment trapping requires reduced velocity everywhere.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0612","hypothesis":"A narrow plant-free fiber mat should trap sediment upstream while increasing water speed beneath its center.","prediction":"A narrow plant-free fiber mat should trap sediment upstream while increasing water speed beneath its center.","test":"Use inert fibers and grains with velocity and mass balance.","contrary_outcome":"Sediment trapping requires reduced velocity everywhere.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0613","id":"S7-0613","volume":"900v7","title":"A water-filled crack should close locally under gentle lateral compression while retaining a connected drainage path.","prediction":"A water-filled crack should close locally under gentle lateral compression while retaining a connected drainage path.","test":"Image benign clay-gel analogs and low-pressure flow.","contrary":"Flow stops when the visible crack closes.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0613","hypothesis":"A water-filled crack should close locally under gentle lateral compression while retaining a connected drainage path.","prediction":"A water-filled crack should close locally under gentle lateral compression while retaining a connected drainage path.","test":"Image benign clay-gel analogs and low-pressure flow.","contrary_outcome":"Flow stops when the visible crack closes.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0614","id":"S7-0614","volume":"900v7","title":"A thin topographic ridge should select the location of a later erosion channel even after the ridge itself disappears.","prediction":"A thin topographic ridge should select the location of a later erosion channel even after the ridge itself disappears.","test":"Measure inert sediment topography across repeated runoff pulses.","contrary":"Channel position follows current topography only.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0614","hypothesis":"A thin topographic ridge should select the location of a later erosion channel even after the ridge itself disappears.","prediction":"A thin topographic ridge should select the location of a later erosion channel even after the ridge itself disappears.","test":"Measure inert sediment topography across repeated runoff pulses.","contrary_outcome":"Channel position follows current topography only.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0614","hypothesis":"A thin topographic ridge should select the location of a later erosion channel even after the ridge itself disappears.","prediction":"A thin topographic ridge should select the location of a later erosion channel even after the ridge itself disappears.","test":"Measure inert sediment topography across repeated runoff pulses.","contrary_outcome":"Channel position follows current topography only.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0615","id":"S7-0615","volume":"900v7","title":"A shallow basin should retain larger floating fragments after a brief flow reversal than after steady flow of equal volume.","prediction":"A shallow basin should retain larger floating fragments after a brief flow reversal than after steady flow of equal volume.","test":"Track benign inert fragments and full water velocity.","contrary":"Retention depends only on size and total throughput.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0615","hypothesis":"A shallow basin should retain larger floating fragments after a brief flow reversal than after steady flow of equal volume.","prediction":"A shallow basin should retain larger floating fragments after a brief flow reversal than after steady flow of equal volume.","test":"Track benign inert fragments and full water velocity.","contrary_outcome":"Retention depends only on size and total throughput.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0616","id":"S7-0616","volume":"900v7","title":"A dry porous rock analog should emit a delayed air pulse from a remote face during local wetting.","prediction":"A dry porous rock analog should emit a delayed air pulse from a remote face during local wetting.","test":"Measure benign pore models with moisture and gas-flow sensors.","contrary":"Gas escapes only beside the wetted region.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0616","hypothesis":"A dry porous rock analog should emit a delayed air pulse from a remote face during local wetting.","prediction":"A dry porous rock analog should emit a delayed air pulse from a remote face during local wetting.","test":"Measure benign pore models with moisture and gas-flow sensors.","contrary_outcome":"Gas escapes only beside the wetted region.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0617","id":"S7-0617","volume":"900v7","title":"A small surface groove should drain a wet slope faster initially but leave more residual water after flow ends.","prediction":"A small surface groove should drain a wet slope faster initially but leave more residual water after flow ends.","test":"Measure inert porous trays with integrated and local moisture.","contrary":"Faster initial drainage always means less residual water.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0617","hypothesis":"A small surface groove should drain a wet slope faster initially but leave more residual water after flow ends.","prediction":"A small surface groove should drain a wet slope faster initially but leave more residual water after flow ends.","test":"Measure inert porous trays with integrated and local moisture.","contrary_outcome":"Faster initial drainage always means less residual water.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0618","id":"S7-0618","volume":"900v7","title":"A slowly rising water table should mobilize trapped fine grains before it reaches the visible surface.","prediction":"A slowly rising water table should mobilize trapped fine grains before it reaches the visible surface.","test":"Track inert layered beds with pore pressure and particle imaging.","contrary":"Mobilization starts only after surface flooding.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0618","hypothesis":"A slowly rising water table should mobilize trapped fine grains before it reaches the visible surface.","prediction":"A slowly rising water table should mobilize trapped fine grains before it reaches the visible surface.","test":"Track inert layered beds with pore pressure and particle imaging.","contrary_outcome":"Mobilization starts only after surface flooding.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0619","id":"S7-0619","volume":"900v7","title":"A patch of larger grains should steer a shallow water channel through pressure losses rather than surface elevation.","prediction":"A patch of larger grains should steer a shallow water channel through pressure losses rather than surface elevation.","test":"Compare equal-height inert patches with measured velocity and head.","contrary":"Path follows topography alone.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0619","hypothesis":"A patch of larger grains should steer a shallow water channel through pressure losses rather than surface elevation.","prediction":"A patch of larger grains should steer a shallow water channel through pressure losses rather than surface elevation.","test":"Compare equal-height inert patches with measured velocity and head.","contrary_outcome":"Path follows topography alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0620","id":"S7-0620","volume":"900v7","title":"A repeating wet-dry boundary should orient cracks perpendicular to its travel direction in a benign clay film.","prediction":"A repeating wet-dry boundary should orient cracks perpendicular to its travel direction in a benign clay film.","test":"Control moisture fronts and image strain and crack initiation.","contrary":"Crack direction follows fixed substrate defects.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0620","hypothesis":"A repeating wet-dry boundary should orient cracks perpendicular to its travel direction in a benign clay film.","prediction":"A repeating wet-dry boundary should orient cracks perpendicular to its travel direction in a benign clay film.","test":"Control moisture fronts and image strain and crack initiation.","contrary_outcome":"Crack direction follows fixed substrate defects.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0621","id":"S7-0621","volume":"900v7","title":"A small snow-free ice ridge should divert a meltwater film more strongly after its first drainage cycle.","prediction":"A small snow-free ice ridge should divert a meltwater film more strongly after its first drainage cycle.","test":"Use water-ice models with imaged channels and controlled mild heating.","contrary":"Diversion depends only on current ridge height.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0621","hypothesis":"A small snow-free ice ridge should divert a meltwater film more strongly after its first drainage cycle.","prediction":"A small snow-free ice ridge should divert a meltwater film more strongly after its first drainage cycle.","test":"Use water-ice models with imaged channels and controlled mild heating.","contrary_outcome":"Diversion depends only on current ridge height.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0622","id":"S7-0622","volume":"900v7","title":"A thin ice roof should release trapped meltwater in pulses under constant gentle heating.","prediction":"A thin ice roof should release trapped meltwater in pulses under constant gentle heating.","test":"Measure safe small ice models with pressure and roof deflection.","contrary":"Outflow follows heat input smoothly.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0622","hypothesis":"A thin ice roof should release trapped meltwater in pulses under constant gentle heating.","prediction":"A thin ice roof should release trapped meltwater in pulses under constant gentle heating.","test":"Measure safe small ice models with pressure and roof deflection.","contrary_outcome":"Outflow follows heat input smoothly.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0623","id":"S7-0623","volume":"900v7","title":"A buried air cavity should make a water-ice sheet melt asymmetrically even under uniform external temperature.","prediction":"A buried air cavity should make a water-ice sheet melt asymmetrically even under uniform external temperature.","test":"Track small ice geometry and internal temperature.","contrary":"Melting is determined only by external temperature.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0623","hypothesis":"A buried air cavity should make a water-ice sheet melt asymmetrically even under uniform external temperature.","prediction":"A buried air cavity should make a water-ice sheet melt asymmetrically even under uniform external temperature.","test":"Track small ice geometry and internal temperature.","contrary_outcome":"Melting is determined only by external temperature.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0624","id":"S7-0624","volume":"900v7","title":"A rough substrate should shift where a water film freezes first when the imposed cooling direction reverses.","prediction":"A rough substrate should shift where a water film freezes first when the imposed cooling direction reverses.","test":"Use small benign cold cells with full thermal maps.","contrary":"First freezing follows temperature minima alone.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0624","hypothesis":"A rough substrate should shift where a water film freezes first when the imposed cooling direction reverses.","prediction":"A rough substrate should shift where a water film freezes first when the imposed cooling direction reverses.","test":"Use small benign cold cells with full thermal maps.","contrary_outcome":"First freezing follows temperature minima alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0625","id":"S7-0625","volume":"900v7","title":"A water droplet freezing in a shallow groove should deform the groove walls before its outer surface visibly bulges.","prediction":"A water droplet freezing in a shallow groove should deform the groove walls before its outer surface visibly bulges.","test":"Measure small polymer grooves with synchronized temperature and shape.","contrary":"Wall motion begins only after visible droplet expansion.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0625","hypothesis":"A water droplet freezing in a shallow groove should deform the groove walls before its outer surface visibly bulges.","prediction":"A water droplet freezing in a shallow groove should deform the groove walls before its outer surface visibly bulges.","test":"Measure small polymer grooves with synchronized temperature and shape.","contrary_outcome":"Wall motion begins only after visible droplet expansion.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0626","id":"S7-0626","volume":"900v7","title":"A partially melted ice contact should regain load capacity differently after short and long refreezing pauses at equal final temperature.","prediction":"A partially melted ice contact should regain load capacity differently after short and long refreezing pauses at equal final temperature.","test":"Measure low-load ice contacts and interface area.","contrary":"Strength depends only on final temperature and area.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0626","hypothesis":"A partially melted ice contact should regain load capacity differently after short and long refreezing pauses at equal final temperature.","prediction":"A partially melted ice contact should regain load capacity differently after short and long refreezing pauses at equal final temperature.","test":"Measure low-load ice contacts and interface area.","contrary_outcome":"Strength depends only on final temperature and area.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0627","id":"S7-0627","volume":"900v7","title":"A slowly thawing porous ice analog should conduct water before its mean liquid fraction reaches a uniform-medium threshold.","prediction":"A slowly thawing porous ice analog should conduct water before its mean liquid fraction reaches a uniform-medium threshold.","test":"Image safe small models and measure low-head flow.","contrary":"Flow begins only at the predicted bulk liquid fraction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0627","hypothesis":"A slowly thawing porous ice analog should conduct water before its mean liquid fraction reaches a uniform-medium threshold.","prediction":"A slowly thawing porous ice analog should conduct water before its mean liquid fraction reaches a uniform-medium threshold.","test":"Image safe small models and measure low-head flow.","contrary_outcome":"Flow begins only at the predicted bulk liquid fraction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0628","id":"S7-0628","volume":"900v7","title":"A sealed air channel inside ice should change the order of nearby crack opening during mild bending.","prediction":"A sealed air channel inside ice should change the order of nearby crack opening during mild bending.","test":"Use guarded low-energy ice strips with independent crack imaging.","contrary":"Opening order follows surface flaw size alone.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0628","hypothesis":"A sealed air channel inside ice should change the order of nearby crack opening during mild bending.","prediction":"A sealed air channel inside ice should change the order of nearby crack opening during mild bending.","test":"Use guarded low-energy ice strips with independent crack imaging.","contrary_outcome":"Opening order follows surface flaw size alone.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0628","hypothesis":"A sealed air channel inside ice should change the order of nearby crack opening during mild bending.","prediction":"A sealed air channel inside ice should change the order of nearby crack opening during mild bending.","test":"Use guarded low-energy ice strips with independent crack imaging.","contrary_outcome":"Opening order follows surface flaw size alone.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0629","id":"S7-0629","volume":"900v7","title":"A meltwater pool should move toward a warmer support before the surrounding ice's lowest point moves.","prediction":"A meltwater pool should move toward a warmer support before the surrounding ice's lowest point moves.","test":"Measure small ice models with water-level and temperature maps.","contrary":"Pool movement follows instantaneous topographic minimum.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0629","hypothesis":"A meltwater pool should move toward a warmer support before the surrounding ice's lowest point moves.","prediction":"A meltwater pool should move toward a warmer support before the surrounding ice's lowest point moves.","test":"Measure small ice models with water-level and temperature maps.","contrary_outcome":"Pool movement follows instantaneous topographic minimum.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0630","id":"S7-0630","volume":"900v7","title":"A thin frost layer should reduce the sliding repeatability of a light contact more than its mean friction.","prediction":"A thin frost layer should reduce the sliding repeatability of a light contact more than its mean friction.","test":"Use safe cold-cell contacts with low loads and imaged frost.","contrary":"Variability scales directly with mean friction.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0630","hypothesis":"A thin frost layer should reduce the sliding repeatability of a light contact more than its mean friction.","prediction":"A thin frost layer should reduce the sliding repeatability of a light contact more than its mean friction.","test":"Use safe cold-cell contacts with low loads and imaged frost.","contrary_outcome":"Variability scales directly with mean friction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0631","id":"S7-0631","volume":"900v7","title":"A floating ice fragment should rotate during asymmetric melting even in a still-water cell with no imposed flow.","prediction":"A floating ice fragment should rotate during asymmetric melting even in a still-water cell with no imposed flow.","test":"Track benign ice geometry and water velocity.","contrary":"Rotation is explained entirely by ambient convection.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0631","hypothesis":"A floating ice fragment should rotate during asymmetric melting even in a still-water cell with no imposed flow.","prediction":"A floating ice fragment should rotate during asymmetric melting even in a still-water cell with no imposed flow.","test":"Track benign ice geometry and water velocity.","contrary_outcome":"Rotation is explained entirely by ambient convection.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0632","id":"S7-0632","volume":"900v7","title":"A narrow unfrozen channel should delay fracture across an ice sheet more than an equal-width empty slit.","prediction":"A narrow unfrozen channel should delay fracture across an ice sheet more than an equal-width empty slit.","test":"Use guarded small bending tests with mapped temperature and geometry.","contrary":"Fracture behavior depends only on removed cross-section.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0632","hypothesis":"A narrow unfrozen channel should delay fracture across an ice sheet more than an equal-width empty slit.","prediction":"A narrow unfrozen channel should delay fracture across an ice sheet more than an equal-width empty slit.","test":"Use guarded small bending tests with mapped temperature and geometry.","contrary_outcome":"Fracture behavior depends only on removed cross-section.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0633","id":"S7-0633","volume":"900v7","title":"A temporarily shadowed ice surface should retain a meltwater routing bias after uniform illumination returns.","prediction":"A temporarily shadowed ice surface should retain a meltwater routing bias after uniform illumination returns.","test":"Measure low-intensity heating and surface topography.","contrary":"Routing changes vanish when illumination becomes uniform.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0633","hypothesis":"A temporarily shadowed ice surface should retain a meltwater routing bias after uniform illumination returns.","prediction":"A temporarily shadowed ice surface should retain a meltwater routing bias after uniform illumination returns.","test":"Measure low-intensity heating and surface topography.","contrary_outcome":"Routing changes vanish when illumination becomes uniform.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0634","id":"S7-0634","volume":"900v7","title":"A soft support should change the shape of a freezing water pocket without changing its total expansion appreciably.","prediction":"A soft support should change the shape of a freezing water pocket without changing its total expansion appreciably.","test":"Measure small water volumes with full container deformation.","contrary":"Expansion geometry depends only on pocket outline and temperature.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0634","hypothesis":"A soft support should change the shape of a freezing water pocket without changing its total expansion appreciably.","prediction":"A soft support should change the shape of a freezing water pocket without changing its total expansion appreciably.","test":"Measure small water volumes with full container deformation.","contrary_outcome":"Expansion geometry depends only on pocket outline and temperature.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0635","id":"S7-0635","volume":"900v7","title":"A small trapped gas bubble should move toward an advancing melt front before direct contact with that front.","prediction":"A small trapped gas bubble should move toward an advancing melt front before direct contact with that front.","test":"Image small water-ice cells with controlled thermal gradients.","contrary":"Bubble motion begins only after front contact.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0635","hypothesis":"A small trapped gas bubble should move toward an advancing melt front before direct contact with that front.","prediction":"A small trapped gas bubble should move toward an advancing melt front before direct contact with that front.","test":"Image small water-ice cells with controlled thermal gradients.","contrary_outcome":"Bubble motion begins only after front contact.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0636","id":"S7-0636","volume":"900v7","title":"A porous barrier should convert continuous meltwater supply into intermittent discharge by repeated air entry.","prediction":"A porous barrier should convert continuous meltwater supply into intermittent discharge by repeated air entry.","test":"Measure small ice-water models, pressures, and interface motion.","contrary":"Discharge is continuous once supply stabilizes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0636","hypothesis":"A porous barrier should convert continuous meltwater supply into intermittent discharge by repeated air entry.","prediction":"A porous barrier should convert continuous meltwater supply into intermittent discharge by repeated air entry.","test":"Measure small ice-water models, pressures, and interface motion.","contrary_outcome":"Discharge is continuous once supply stabilizes.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0637","id":"S7-0637","volume":"900v7","title":"A thin wet snow analog made from inert beads should drain differently after equal vertical and lateral compaction.","prediction":"A thin wet snow analog made from inert beads should drain differently after equal vertical and lateral compaction.","test":"Measure water, density, and pore geometry in benign cold-free analogs.","contrary":"Drainage depends only on final bulk density.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0637","hypothesis":"A thin wet snow analog made from inert beads should drain differently after equal vertical and lateral compaction.","prediction":"A thin wet snow analog made from inert beads should drain differently after equal vertical and lateral compaction.","test":"Measure water, density, and pore geometry in benign cold-free analogs.","contrary_outcome":"Drainage depends only on final bulk density.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0638","id":"S7-0638","volume":"900v7","title":"A frozen water bridge should fail at a different location when one support warms slowly than when both warm equally at equal mean temperature.","prediction":"A frozen water bridge should fail at a different location when one support warms slowly than when both warm equally at equal mean temperature.","test":"Use guarded low-load small bridges with thermal maps.","contrary":"Failure follows mean temperature and minimum area only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0638","hypothesis":"A frozen water bridge should fail at a different location when one support warms slowly than when both warm equally at equal mean temperature.","prediction":"A frozen water bridge should fail at a different location when one support warms slowly than when both warm equally at equal mean temperature.","test":"Use guarded low-load small bridges with thermal maps.","contrary_outcome":"Failure follows mean temperature and minimum area only.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0639","id":"S7-0639","volume":"900v7","title":"A shallow ice dimple should disappear optically before its thermal influence on local melting vanishes.","prediction":"A shallow ice dimple should disappear optically before its thermal influence on local melting vanishes.","test":"Measure geometry sensitivity and safe-temperature melt rates.","contrary":"Thermal response recovers with visible flatness.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0639","hypothesis":"A shallow ice dimple should disappear optically before its thermal influence on local melting vanishes.","prediction":"A shallow ice dimple should disappear optically before its thermal influence on local melting vanishes.","test":"Measure geometry sensitivity and safe-temperature melt rates.","contrary_outcome":"Thermal response recovers with visible flatness.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0640","id":"S7-0640","volume":"900v7","title":"A fresh water-ice contact should resist tangential motion more after a brief unload than continuous equal-duration loading.","prediction":"A fresh water-ice contact should resist tangential motion more after a brief unload than continuous equal-duration loading.","test":"Use low loads with independent contact-area and temperature measurements.","contrary":"Friction depends only on current load and contact time.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0640","hypothesis":"A fresh water-ice contact should resist tangential motion more after a brief unload than continuous equal-duration loading.","prediction":"A fresh water-ice contact should resist tangential motion more after a brief unload than continuous equal-duration loading.","test":"Use low loads with independent contact-area and temperature measurements.","contrary_outcome":"Friction depends only on current load and contact time.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0641","id":"S7-0641","volume":"900v7","title":"A small vegetation-free flexible mat should alter ripple wavelength through compliance rather than surface roughness.","prediction":"A small vegetation-free flexible mat should alter ripple wavelength through compliance rather than surface roughness.","test":"Use benign water flumes with matched textured rigid controls.","contrary":"Wavelength follows roughness and flow alone.","layers":[1,2],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0641","hypothesis":"A small vegetation-free flexible mat should alter ripple wavelength through compliance rather than surface roughness.","prediction":"A small vegetation-free flexible mat should alter ripple wavelength through compliance rather than surface roughness.","test":"Use benign water flumes with matched textured rigid controls.","contrary_outcome":"Wavelength follows roughness and flow alone.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0641","hypothesis":"A small vegetation-free flexible mat should alter ripple wavelength through compliance rather than surface roughness.","prediction":"A small vegetation-free flexible mat should alter ripple wavelength through compliance rather than surface roughness.","test":"Use benign water flumes with matched textured rigid controls.","contrary_outcome":"Wavelength follows roughness and flow alone.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0642","id":"S7-0642","volume":"900v7","title":"A partial riverbank analog should delay channel migration until its support erodes beyond a geometric threshold.","prediction":"A partial riverbank analog should delay channel migration until its support erodes beyond a geometric threshold.","test":"Use inert small trays with imaged support and bank motion.","contrary":"Migration follows erosion continuously without a threshold.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0642","hypothesis":"A partial riverbank analog should delay channel migration until its support erodes beyond a geometric threshold.","prediction":"A partial riverbank analog should delay channel migration until its support erodes beyond a geometric threshold.","test":"Use inert small trays with imaged support and bank motion.","contrary_outcome":"Migration follows erosion continuously without a threshold.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0643","id":"S7-0643","volume":"900v7","title":"A shallow gravel analog should export fines more efficiently under paired pulses than isolated pulses of equal total duration.","prediction":"A shallow gravel analog should export fines more efficiently under paired pulses than isolated pulses of equal total duration.","test":"Measure inert size-resolved discharge with matched water input.","contrary":"Export depends only on integrated bed shear.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0643","hypothesis":"A shallow gravel analog should export fines more efficiently under paired pulses than isolated pulses of equal total duration.","prediction":"A shallow gravel analog should export fines more efficiently under paired pulses than isolated pulses of equal total duration.","test":"Measure inert size-resolved discharge with matched water input.","contrary_outcome":"Export depends only on integrated bed shear.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0644","id":"S7-0644","volume":"900v7","title":"A surface pebble should rotate into a more stable pose during a subcritical flow pulse without net downstream translation.","prediction":"A surface pebble should rotate into a more stable pose during a subcritical flow pulse without net downstream translation.","test":"Track inert pebble orientation and local water velocity.","contrary":"Pose is unchanged below translational motion onset.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0644","hypothesis":"A surface pebble should rotate into a more stable pose during a subcritical flow pulse without net downstream translation.","prediction":"A surface pebble should rotate into a more stable pose during a subcritical flow pulse without net downstream translation.","test":"Track inert pebble orientation and local water velocity.","contrary_outcome":"Pose is unchanged below translational motion onset.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0645","id":"S7-0645","volume":"900v7","title":"A porous slope should show a remote seep before local surface wetting when a buried high-permeability path fills.","prediction":"A porous slope should show a remote seep before local surface wetting when a buried high-permeability path fills.","test":"Use transparent inert analogs and pressure maps.","contrary":"Seep onset follows nearest surface saturation only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0645","hypothesis":"A porous slope should show a remote seep before local surface wetting when a buried high-permeability path fills.","prediction":"A porous slope should show a remote seep before local surface wetting when a buried high-permeability path fills.","test":"Use transparent inert analogs and pressure maps.","contrary_outcome":"Seep onset follows nearest surface saturation only.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0646","id":"S7-0646","volume":"900v7","title":"A narrow flexible root analog should prevent erosion chiefly by changing pore flow rather than direct grain restraint.","prediction":"A narrow flexible root analog should prevent erosion chiefly by changing pore flow rather than direct grain restraint.","test":"Compare inert fibers with slip-enabled and flow-blocked controls.","contrary":"Protection disappears when direct mechanical restraint is removed.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0646","hypothesis":"A narrow flexible root analog should prevent erosion chiefly by changing pore flow rather than direct grain restraint.","prediction":"A narrow flexible root analog should prevent erosion chiefly by changing pore flow rather than direct grain restraint.","test":"Compare inert fibers with slip-enabled and flow-blocked controls.","contrary_outcome":"Protection disappears when direct mechanical restraint is removed.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0647","id":"S7-0647","volume":"900v7","title":"A closed side basin should return sediment to a channel after main flow decreases, without reversing the mean main flow.","prediction":"A closed side basin should return sediment to a channel after main flow decreases, without reversing the mean main flow.","test":"Measure inert particles and local recirculation.","contrary":"Return requires main-channel flow reversal.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0647","hypothesis":"A closed side basin should return sediment to a channel after main flow decreases, without reversing the mean main flow.","prediction":"A closed side basin should return sediment to a channel after main flow decreases, without reversing the mean main flow.","test":"Measure inert particles and local recirculation.","contrary_outcome":"Return requires main-channel flow reversal.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0648","id":"S7-0648","volume":"900v7","title":"A shallow overflow lip should trap a floating fragment more effectively after its underside wets.","prediction":"A shallow overflow lip should trap a floating fragment more effectively after its underside wets.","test":"Track benign fragments and contact lines with matched flow.","contrary":"Capture probability depends only on fragment size and speed.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0648","hypothesis":"A shallow overflow lip should trap a floating fragment more effectively after its underside wets.","prediction":"A shallow overflow lip should trap a floating fragment more effectively after its underside wets.","test":"Track benign fragments and contact lines with matched flow.","contrary_outcome":"Capture probability depends only on fragment size and speed.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0649","id":"S7-0649","volume":"900v7","title":"A sequence of equal runoff pulses should form a persistent preferred channel even after surface topography is gently leveled.","prediction":"A sequence of equal runoff pulses should form a persistent preferred channel even after surface topography is gently leveled.","test":"Measure inert bed moisture and internal packing after leveling.","contrary":"Leveling erases all channel preference.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0649","hypothesis":"A sequence of equal runoff pulses should form a persistent preferred channel even after surface topography is gently leveled.","prediction":"A sequence of equal runoff pulses should form a persistent preferred channel even after surface topography is gently leveled.","test":"Measure inert bed moisture and internal packing after leveling.","contrary_outcome":"Leveling erases all channel preference.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0650","id":"S7-0650","volume":"900v7","title":"A small upstream pool should reduce downstream erosion variability more than its mean erosion at equal total discharge.","prediction":"A small upstream pool should reduce downstream erosion variability more than its mean erosion at equal total discharge.","test":"Measure inert tray sediment export across replicated pulses.","contrary":"Variability reduction follows mean erosion reduction proportionally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0650","hypothesis":"A small upstream pool should reduce downstream erosion variability more than its mean erosion at equal total discharge.","prediction":"A small upstream pool should reduce downstream erosion variability more than its mean erosion at equal total discharge.","test":"Measure inert tray sediment export across replicated pulses.","contrary_outcome":"Variability reduction follows mean erosion reduction proportionally.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0651","id":"S7-0651","volume":"900v7","title":"A stratified water pocket should drain with a temporary density inversion near its outlet.","prediction":"A stratified water pocket should drain with a temporary density inversion near its outlet.","test":"Measure benign dilute-saline concentration and velocity profiles.","contrary":"Density ordering remains stable throughout drainage.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0651","hypothesis":"A stratified water pocket should drain with a temporary density inversion near its outlet.","prediction":"A stratified water pocket should drain with a temporary density inversion near its outlet.","test":"Measure benign dilute-saline concentration and velocity profiles.","contrary_outcome":"Density ordering remains stable throughout drainage.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0652","id":"S7-0652","volume":"900v7","title":"A slow fresh-water intrusion should displace a denser saline layer more uniformly after a brief pause than continuously.","prediction":"A slow fresh-water intrusion should displace a denser saline layer more uniformly after a brief pause than continuously.","test":"Compare benign water cells with matched elapsed time and volume.","contrary":"Uniformity depends only on total delivered volume.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0652","hypothesis":"A slow fresh-water intrusion should displace a denser saline layer more uniformly after a brief pause than continuously.","prediction":"A slow fresh-water intrusion should displace a denser saline layer more uniformly after a brief pause than continuously.","test":"Compare benign water cells with matched elapsed time and volume.","contrary_outcome":"Uniformity depends only on total delivered volume.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0653","id":"S7-0653","volume":"900v7","title":"A flexible cover should suppress evaporative convection while leaving the mean evaporation rate similar over a limited interval.","prediction":"A flexible cover should suppress evaporative convection while leaving the mean evaporation rate similar over a limited interval.","test":"Measure benign saline water velocity, temperature, and mass.","contrary":"Convection reduction always accompanies proportional evaporation reduction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0653","hypothesis":"A flexible cover should suppress evaporative convection while leaving the mean evaporation rate similar over a limited interval.","prediction":"A flexible cover should suppress evaporative convection while leaving the mean evaporation rate similar over a limited interval.","test":"Measure benign saline water velocity, temperature, and mass.","contrary_outcome":"Convection reduction always accompanies proportional evaporation reduction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0654","id":"S7-0654","volume":"900v7","title":"A small bottom ridge should retain a dense saline tongue after overlying fresh water has been replaced.","prediction":"A small bottom ridge should retain a dense saline tongue after overlying fresh water has been replaced.","test":"Track benign concentration fields and complete water balance.","contrary":"Retention follows total dead volume alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0654","hypothesis":"A small bottom ridge should retain a dense saline tongue after overlying fresh water has been replaced.","prediction":"A small bottom ridge should retain a dense saline tongue after overlying fresh water has been replaced.","test":"Track benign concentration fields and complete water balance.","contrary_outcome":"Retention follows total dead volume alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0655","id":"S7-0655","volume":"900v7","title":"A surface cooling pulse should mix a shallow saline layer differently depending on its preceding flow direction.","prediction":"A surface cooling pulse should mix a shallow saline layer differently depending on its preceding flow direction.","test":"Use modest cooling with independent temperature, salinity, and velocity maps.","contrary":"Mixing is independent of prior flow once current fields match.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0655","hypothesis":"A surface cooling pulse should mix a shallow saline layer differently depending on its preceding flow direction.","prediction":"A surface cooling pulse should mix a shallow saline layer differently depending on its preceding flow direction.","test":"Use modest cooling with independent temperature, salinity, and velocity maps.","contrary_outcome":"Mixing is independent of prior flow once current fields match.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0655","hypothesis":"A surface cooling pulse should mix a shallow saline layer differently depending on its preceding flow direction.","prediction":"A surface cooling pulse should mix a shallow saline layer differently depending on its preceding flow direction.","test":"Use modest cooling with independent temperature, salinity, and velocity maps.","contrary_outcome":"Mixing is independent of prior flow once current fields match.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0656","id":"S7-0656","volume":"900v7","title":"A thin porous separator should transmit concentration fluctuations with a phase lag that changes sign across observation positions.","prediction":"A thin porous separator should transmit concentration fluctuations with a phase lag that changes sign across observation positions.","test":"Measure benign saline pulses at multiple distances.","contrary":"All measured lags retain the same sign.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0656","hypothesis":"A thin porous separator should transmit concentration fluctuations with a phase lag that changes sign across observation positions.","prediction":"A thin porous separator should transmit concentration fluctuations with a phase lag that changes sign across observation positions.","test":"Measure benign saline pulses at multiple distances.","contrary_outcome":"All measured lags retain the same sign.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0657","id":"S7-0657","volume":"900v7","title":"A low-amplitude water oscillation should sharpen one part of a density interface while broadening another.","prediction":"A low-amplitude water oscillation should sharpen one part of a density interface while broadening another.","test":"Map benign concentration fields and full velocity gradients.","contrary":"Interface thickness changes uniformly across the cell.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0657","hypothesis":"A low-amplitude water oscillation should sharpen one part of a density interface while broadening another.","prediction":"A low-amplitude water oscillation should sharpen one part of a density interface while broadening another.","test":"Map benign concentration fields and full velocity gradients.","contrary_outcome":"Interface thickness changes uniformly across the cell.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0658","id":"S7-0658","volume":"900v7","title":"A shallow wedge should retain a dense saline patch after the external concentration returns to fresh-water baseline.","prediction":"A shallow wedge should retain a dense saline patch after the external concentration returns to fresh-water baseline.","test":"Track benign concentration and local circulation with flat-cell controls.","contrary":"The patch flushes at the bulk replacement rate.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0658","hypothesis":"A shallow wedge should retain a dense saline patch after the external concentration returns to fresh-water baseline.","prediction":"A shallow wedge should retain a dense saline patch after the external concentration returns to fresh-water baseline.","test":"Track benign concentration and local circulation with flat-cell controls.","contrary_outcome":"The patch flushes at the bulk replacement rate.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0659","id":"S7-0659","volume":"900v7","title":"A gas bubble crossing a weak saline interface should leave a tracer plume whose direction differs from the bubble's final drift.","prediction":"A gas bubble crossing a weak saline interface should leave a tracer plume whose direction differs from the bubble's final drift.","test":"Track dilute-saline concentration, water velocity, and low-pressure bubbles.","contrary":"The plume follows only the bubble trajectory.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0659","hypothesis":"A gas bubble crossing a weak saline interface should leave a tracer plume whose direction differs from the bubble's final drift.","prediction":"A gas bubble crossing a weak saline interface should leave a tracer plume whose direction differs from the bubble's final drift.","test":"Track dilute-saline concentration, water velocity, and low-pressure bubbles.","contrary_outcome":"The plume follows only the bubble trajectory.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0660","id":"S7-0660","volume":"900v7","title":"A narrow opening between stratified reservoirs should exchange water intermittently under constant boundary levels.","prediction":"A narrow opening between stratified reservoirs should exchange water intermittently under constant boundary levels.","test":"Measure benign salinity, bidirectional flow, and pressure.","contrary":"Exchange becomes steady once boundary levels stabilize.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0660","hypothesis":"A narrow opening between stratified reservoirs should exchange water intermittently under constant boundary levels.","prediction":"A narrow opening between stratified reservoirs should exchange water intermittently under constant boundary levels.","test":"Measure benign salinity, bidirectional flow, and pressure.","contrary_outcome":"Exchange becomes steady once boundary levels stabilize.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0661","id":"S7-0661","volume":"900v7","title":"A dry pinecone scale should respond faster to humidity at its hinge than at its exposed tip.","prediction":"A dry pinecone scale should respond faster to humidity at its hinge than at its exposed tip.","test":"Map benign scale moisture and curvature under controlled humidity.","contrary":"Curvature follows uniform moisture uptake.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0661","hypothesis":"A dry pinecone scale should respond faster to humidity at its hinge than at its exposed tip.","prediction":"A dry pinecone scale should respond faster to humidity at its hinge than at its exposed tip.","test":"Map benign scale moisture and curvature under controlled humidity.","contrary_outcome":"Curvature follows uniform moisture uptake.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0662","id":"S7-0662","volume":"900v7","title":"A detached leaf's curled edge should redirect dew toward its stem more strongly than its surface slope predicts.","prediction":"A detached leaf's curled edge should redirect dew toward its stem more strongly than its surface slope predicts.","test":"Use clean-water condensation, leaf replicas, and measured geometry.","contrary":"Water routing follows local height alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0662","hypothesis":"A detached leaf's curled edge should redirect dew toward its stem more strongly than its surface slope predicts.","prediction":"A detached leaf's curled edge should redirect dew toward its stem more strongly than its surface slope predicts.","test":"Use clean-water condensation, leaf replicas, and measured geometry.","contrary_outcome":"Water routing follows local height alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0663","id":"S7-0663","volume":"900v7","title":"A grass awn should retain a directional displacement after reciprocal humidity cycles even when net length change is zero.","prediction":"A grass awn should retain a directional displacement after reciprocal humidity cycles even when net length change is zero.","test":"Track benign dry awns with friction-reduced controls.","contrary":"Displacement equals net length change only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0663","hypothesis":"A grass awn should retain a directional displacement after reciprocal humidity cycles even when net length change is zero.","prediction":"A grass awn should retain a directional displacement after reciprocal humidity cycles even when net length change is zero.","test":"Track benign dry awns with friction-reduced controls.","contrary_outcome":"Displacement equals net length change only.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0664","id":"S7-0664","volume":"900v7","title":"A seed husk should admit water preferentially at a mechanically stressed seam before the seam visibly opens.","prediction":"A seed husk should admit water preferentially at a mechanically stressed seam before the seam visibly opens.","test":"Use benign dry seeds with strain and dye-front imaging.","contrary":"Water entry follows visible openings alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0664","hypothesis":"A seed husk should admit water preferentially at a mechanically stressed seam before the seam visibly opens.","prediction":"A seed husk should admit water preferentially at a mechanically stressed seam before the seam visibly opens.","test":"Use benign dry seeds with strain and dye-front imaging.","contrary_outcome":"Water entry follows visible openings alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0665","id":"S7-0665","volume":"900v7","title":"A fallen leaf should trap an air pocket longer when its veins face downward than upward at equal curvature.","prediction":"A fallen leaf should trap an air pocket longer when its veins face downward than upward at equal curvature.","test":"Measure benign leaves and geometric replicas during water immersion.","contrary":"Retention depends only on curvature and contact angle.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0665","hypothesis":"A fallen leaf should trap an air pocket longer when its veins face downward than upward at equal curvature.","prediction":"A fallen leaf should trap an air pocket longer when its veins face downward than upward at equal curvature.","test":"Measure benign leaves and geometric replicas during water immersion.","contrary_outcome":"Retention depends only on curvature and contact angle.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0666","id":"S7-0666","volume":"900v7","title":"A dry seed cluster should disperse more unevenly after repeated weak air pulses than one stronger pulse of equal impulse.","prediction":"A dry seed cluster should disperse more unevenly after repeated weak air pulses than one stronger pulse of equal impulse.","test":"Track benign seeds with calibrated airflow and complete counts.","contrary":"Dispersal depends only on total impulse.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0666","hypothesis":"A dry seed cluster should disperse more unevenly after repeated weak air pulses than one stronger pulse of equal impulse.","prediction":"A dry seed cluster should disperse more unevenly after repeated weak air pulses than one stronger pulse of equal impulse.","test":"Track benign seeds with calibrated airflow and complete counts.","contrary_outcome":"Dispersal depends only on total impulse.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0667","id":"S7-0667","volume":"900v7","title":"A hollow stem should redistribute internal water after bending even when its endpoints remain at equal height.","prediction":"A hollow stem should redistribute internal water after bending even when its endpoints remain at equal height.","test":"Measure benign detached stems with tracer imaging and rigid-tube controls.","contrary":"Redistribution follows hydrostatic height alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0667","hypothesis":"A hollow stem should redistribute internal water after bending even when its endpoints remain at equal height.","prediction":"A hollow stem should redistribute internal water after bending even when its endpoints remain at equal height.","test":"Measure benign detached stems with tracer imaging and rigid-tube controls.","contrary_outcome":"Redistribution follows hydrostatic height alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0668","id":"S7-0668","volume":"900v7","title":"A pine needle bundle should retain more dew after a mild vibration than before if droplets merge into sheltered junctions.","prediction":"A pine needle bundle should retain more dew after a mild vibration than before if droplets merge into sheltered junctions.","test":"Measure benign bundles, water mass, and droplet maps.","contrary":"Vibration always reduces retained water mass.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0668","hypothesis":"A pine needle bundle should retain more dew after a mild vibration than before if droplets merge into sheltered junctions.","prediction":"A pine needle bundle should retain more dew after a mild vibration than before if droplets merge into sheltered junctions.","test":"Measure benign bundles, water mass, and droplet maps.","contrary_outcome":"Vibration always reduces retained water mass.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0669","id":"S7-0669","volume":"900v7","title":"A detached petal should flatten during initial rehydration before developing stronger curvature later.","prediction":"A detached petal should flatten during initial rehydration before developing stronger curvature later.","test":"Map benign petal shape, water uptake, and layer strain.","contrary":"Curvature changes monotonically with water uptake.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0669","hypothesis":"A detached petal should flatten during initial rehydration before developing stronger curvature later.","prediction":"A detached petal should flatten during initial rehydration before developing stronger curvature later.","test":"Map benign petal shape, water uptake, and layer strain.","contrary_outcome":"Curvature changes monotonically with water uptake.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0669","hypothesis":"A detached petal should flatten during initial rehydration before developing stronger curvature later.","prediction":"A detached petal should flatten during initial rehydration before developing stronger curvature later.","test":"Map benign petal shape, water uptake, and layer strain.","contrary_outcome":"Curvature changes monotonically with water uptake.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0670","id":"S7-0670","volume":"900v7","title":"A porous seed coat should show uptake hysteresis after a nonfracturing compression cycle.","prediction":"A porous seed coat should show uptake hysteresis after a nonfracturing compression cycle.","test":"Measure benign nonviable seeds with water fronts and recovered geometry.","contrary":"Uptake depends only on final coat dimensions.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0670","hypothesis":"A porous seed coat should show uptake hysteresis after a nonfracturing compression cycle.","prediction":"A porous seed coat should show uptake hysteresis after a nonfracturing compression cycle.","test":"Measure benign nonviable seeds with water fronts and recovered geometry.","contrary_outcome":"Uptake depends only on final coat dimensions.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0671","id":"S7-0671","volume":"900v7","title":"A leaf-vein replica should redistribute runoff after one branch is blocked without changing total outflow much.","prediction":"A leaf-vein replica should redistribute runoff after one branch is blocked without changing total outflow much.","test":"Use inert replicas with clean-water imaging and branch collection.","contrary":"Branch fractions remain fixed at matched total outflow.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0671","hypothesis":"A leaf-vein replica should redistribute runoff after one branch is blocked without changing total outflow much.","prediction":"A leaf-vein replica should redistribute runoff after one branch is blocked without changing total outflow much.","test":"Use inert replicas with clean-water imaging and branch collection.","contrary_outcome":"Branch fractions remain fixed at matched total outflow.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0672","id":"S7-0672","volume":"900v7","title":"A dry reed joint should transmit bending pulses differently before and after humidification at equal mean stiffness.","prediction":"A dry reed joint should transmit bending pulses differently before and after humidification at equal mean stiffness.","test":"Measure benign detached material with small pulses and moisture maps.","contrary":"Pulse differences vanish after stiffness matching.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0672","hypothesis":"A dry reed joint should transmit bending pulses differently before and after humidification at equal mean stiffness.","prediction":"A dry reed joint should transmit bending pulses differently before and after humidification at equal mean stiffness.","test":"Measure benign detached material with small pulses and moisture maps.","contrary_outcome":"Pulse differences vanish after stiffness matching.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0673","id":"S7-0673","volume":"900v7","title":"A seed's rolling threshold should depend on whether its surface was wetted before or after placement.","prediction":"A seed's rolling threshold should depend on whether its surface was wetted before or after placement.","test":"Use benign nonviable seeds with contact imaging and low-slope tests.","contrary":"Threshold follows current moisture and position only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0673","hypothesis":"A seed's rolling threshold should depend on whether its surface was wetted before or after placement.","prediction":"A seed's rolling threshold should depend on whether its surface was wetted before or after placement.","test":"Use benign nonviable seeds with contact imaging and low-slope tests.","contrary_outcome":"Threshold follows current moisture and position only.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0674","id":"S7-0674","volume":"900v7","title":"A thin leaf replica should shed water first from a nonlowest point during airflow reversal.","prediction":"A thin leaf replica should shed water first from a nonlowest point during airflow reversal.","test":"Measure inert replicas, droplet paths, and local airflow.","contrary":"Shedding always begins at the lowest point.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0674","hypothesis":"A thin leaf replica should shed water first from a nonlowest point during airflow reversal.","prediction":"A thin leaf replica should shed water first from a nonlowest point during airflow reversal.","test":"Measure inert replicas, droplet paths, and local airflow.","contrary_outcome":"Shedding always begins at the lowest point.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0675","id":"S7-0675","volume":"900v7","title":"A detached fern-like branch should change its drag variability more than mean drag when its small joints soften.","prediction":"A detached fern-like branch should change its drag variability more than mean drag when its small joints soften.","test":"Use benign dried structures or inert replicas with calibrated airflow.","contrary":"Variability changes proportionally to mean drag.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0675","hypothesis":"A detached fern-like branch should change its drag variability more than mean drag when its small joints soften.","prediction":"A detached fern-like branch should change its drag variability more than mean drag when its small joints soften.","test":"Use benign dried structures or inert replicas with calibrated airflow.","contrary_outcome":"Variability changes proportionally to mean drag.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0676","id":"S7-0676","volume":"900v7","title":"A dry plant fiber knot should move its highest-curvature point during humidity recovery without endpoint displacement.","prediction":"A dry plant fiber knot should move its highest-curvature point during humidity recovery without endpoint displacement.","test":"Track benign fibers with local moisture and three-dimensional shape.","contrary":"Curvature maxima stay fixed after endpoints stop.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0676","hypothesis":"A dry plant fiber knot should move its highest-curvature point during humidity recovery without endpoint displacement.","prediction":"A dry plant fiber knot should move its highest-curvature point during humidity recovery without endpoint displacement.","test":"Track benign fibers with local moisture and three-dimensional shape.","contrary_outcome":"Curvature maxima stay fixed after endpoints stop.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0677","id":"S7-0677","volume":"900v7","title":"A seed wing should produce a different descent path after reversible humidification even when its projected area recovers.","prediction":"A seed wing should produce a different descent path after reversible humidification even when its projected area recovers.","test":"Use benign nonviable seeds, still-air drops, and full shape measurements.","contrary":"Trajectory depends only on recovered projected area.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0677","hypothesis":"A seed wing should produce a different descent path after reversible humidification even when its projected area recovers.","prediction":"A seed wing should produce a different descent path after reversible humidification even when its projected area recovers.","test":"Use benign nonviable seeds, still-air drops, and full shape measurements.","contrary_outcome":"Trajectory depends only on recovered projected area.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0678","id":"S7-0678","volume":"900v7","title":"A leaf-litter layer should delay first drainage more after gentle horizontal compression than equal vertical densification.","prediction":"A leaf-litter layer should delay first drainage more after gentle horizontal compression than equal vertical densification.","test":"Use benign dry material and inert analog controls with water balance.","contrary":"Drainage depends only on final bulk density.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0678","hypothesis":"A leaf-litter layer should delay first drainage more after gentle horizontal compression than equal vertical densification.","prediction":"A leaf-litter layer should delay first drainage more after gentle horizontal compression than equal vertical densification.","test":"Use benign dry material and inert analog controls with water balance.","contrary_outcome":"Drainage depends only on final bulk density.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0679","id":"S7-0679","volume":"900v7","title":"A hollow dry stem should soften locally after external wetting before internal water appears.","prediction":"A hollow dry stem should soften locally after external wetting before internal water appears.","test":"Measure benign detached stems with low-load stiffness and moisture imaging.","contrary":"Softening begins only after visible internal filling.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0679","hypothesis":"A hollow dry stem should soften locally after external wetting before internal water appears.","prediction":"A hollow dry stem should soften locally after external wetting before internal water appears.","test":"Measure benign detached stems with low-load stiffness and moisture imaging.","contrary_outcome":"Softening begins only after visible internal filling.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0680","id":"S7-0680","volume":"900v7","title":"A burr-like inert attachment should release at lower force after a brief reverse rotation than after straight unloading.","prediction":"A burr-like inert attachment should release at lower force after a brief reverse rotation than after straight unloading.","test":"Use benign replicas with contact-force and geometry measurements.","contrary":"Release force depends only on current contact count.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0680","hypothesis":"A burr-like inert attachment should release at lower force after a brief reverse rotation than after straight unloading.","prediction":"A burr-like inert attachment should release at lower force after a brief reverse rotation than after straight unloading.","test":"Use benign replicas with contact-force and geometry measurements.","contrary_outcome":"Release force depends only on current contact count.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0681","id":"S7-0681","volume":"900v7","title":"A folded petal replica should collect airborne water droplets more efficiently when allowed to oscillate weakly.","prediction":"A folded petal replica should collect airborne water droplets more efficiently when allowed to oscillate weakly.","test":"Use inert replicas, low-speed droplets, and fixed-shape controls.","contrary":"Collection depends only on mean projected area.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0681","hypothesis":"A folded petal replica should collect airborne water droplets more efficiently when allowed to oscillate weakly.","prediction":"A folded petal replica should collect airborne water droplets more efficiently when allowed to oscillate weakly.","test":"Use inert replicas, low-speed droplets, and fixed-shape controls.","contrary_outcome":"Collection depends only on mean projected area.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0682","id":"S7-0682","volume":"900v7","title":"A dry bark strip should twist differently after humidity enters from its ends rather than broad faces.","prediction":"A dry bark strip should twist differently after humidity enters from its ends rather than broad faces.","test":"Map benign detached material with controlled moisture access.","contrary":"Twist follows total uptake alone.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0682","hypothesis":"A dry bark strip should twist differently after humidity enters from its ends rather than broad faces.","prediction":"A dry bark strip should twist differently after humidity enters from its ends rather than broad faces.","test":"Map benign detached material with controlled moisture access.","contrary_outcome":"Twist follows total uptake alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0683","id":"S7-0683","volume":"900v7","title":"A papery seed pod should open in a different order after equal humid and dry holds arranged in opposite sequences.","prediction":"A papery seed pod should open in a different order after equal humid and dry holds arranged in opposite sequences.","test":"Use benign empty pods with humidity and hinge imaging.","contrary":"Opening depends only on final moisture.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0683","hypothesis":"A papery seed pod should open in a different order after equal humid and dry holds arranged in opposite sequences.","prediction":"A papery seed pod should open in a different order after equal humid and dry holds arranged in opposite sequences.","test":"Use benign empty pods with humidity and hinge imaging.","contrary_outcome":"Opening depends only on final moisture.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0683","hypothesis":"A papery seed pod should open in a different order after equal humid and dry holds arranged in opposite sequences.","prediction":"A papery seed pod should open in a different order after equal humid and dry holds arranged in opposite sequences.","test":"Use benign empty pods with humidity and hinge imaging.","contrary_outcome":"Opening depends only on final moisture.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0684","id":"S7-0684","volume":"900v7","title":"A branching inert root model should retain particles preferentially at intersections that are not the narrowest gaps.","prediction":"A branching inert root model should retain particles preferentially at intersections that are not the narrowest gaps.","test":"Track inert sediment and local water velocity.","contrary":"Retention is predicted by gap width alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0684","hypothesis":"A branching inert root model should retain particles preferentially at intersections that are not the narrowest gaps.","prediction":"A branching inert root model should retain particles preferentially at intersections that are not the narrowest gaps.","test":"Track inert sediment and local water velocity.","contrary_outcome":"Retention is predicted by gap width alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0685","id":"S7-0685","volume":"900v7","title":"A leaf's surface texture should steer a very small droplet differently before and after its first traversal.","prediction":"A leaf's surface texture should steer a very small droplet differently before and after its first traversal.","test":"Use benign detached leaves and clean-water repeats with contamination controls.","contrary":"Paths are identical at matched volume and tilt.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0685","hypothesis":"A leaf's surface texture should steer a very small droplet differently before and after its first traversal.","prediction":"A leaf's surface texture should steer a very small droplet differently before and after its first traversal.","test":"Use benign detached leaves and clean-water repeats with contamination controls.","contrary_outcome":"Paths are identical at matched volume and tilt.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0686","id":"S7-0686","volume":"900v7","title":"A compacted cellulose nest analog should preserve a moisture gradient after its average humidity equilibrates.","prediction":"A compacted cellulose nest analog should preserve a moisture gradient after its average humidity equilibrates.","test":"Use inert fiber structures with depth moisture sensing.","contrary":"All local moisture equilibrates with the mean.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0686","hypothesis":"A compacted cellulose nest analog should preserve a moisture gradient after its average humidity equilibrates.","prediction":"A compacted cellulose nest analog should preserve a moisture gradient after its average humidity equilibrates.","test":"Use inert fiber structures with depth moisture sensing.","contrary_outcome":"All local moisture equilibrates with the mean.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0687","id":"S7-0687","volume":"900v7","title":"A dry seed plume should collapse at an intermediate humidity more abruptly than its individual fibers bend.","prediction":"A dry seed plume should collapse at an intermediate humidity more abruptly than its individual fibers bend.","test":"Measure benign nonviable structures with controlled humidity and fiber imaging.","contrary":"Collective shape follows the average fiber curvature smoothly.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0687","hypothesis":"A dry seed plume should collapse at an intermediate humidity more abruptly than its individual fibers bend.","prediction":"A dry seed plume should collapse at an intermediate humidity more abruptly than its individual fibers bend.","test":"Measure benign nonviable structures with controlled humidity and fiber imaging.","contrary_outcome":"Collective shape follows the average fiber curvature smoothly.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0688","id":"S7-0688","volume":"900v7","title":"A detached needle cluster should change its vibration axis after one junction wets without a large frequency shift.","prediction":"A detached needle cluster should change its vibration axis after one junction wets without a large frequency shift.","test":"Measure gentle vibration, water mass, and joint geometry.","contrary":"Axis change requires a comparable frequency change.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0688","hypothesis":"A detached needle cluster should change its vibration axis after one junction wets without a large frequency shift.","prediction":"A detached needle cluster should change its vibration axis after one junction wets without a large frequency shift.","test":"Measure gentle vibration, water mass, and joint geometry.","contrary_outcome":"Axis change requires a comparable frequency change.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0689","id":"S7-0689","volume":"900v7","title":"A plant-stem replica with asymmetric pores should route water differently after opposite bending histories.","prediction":"A plant-stem replica with asymmetric pores should route water differently after opposite bending histories.","test":"Use inert models with recovered geometry and tracer imaging.","contrary":"Routing is fixed by final outer shape.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0689","hypothesis":"A plant-stem replica with asymmetric pores should route water differently after opposite bending histories.","prediction":"A plant-stem replica with asymmetric pores should route water differently after opposite bending histories.","test":"Use inert models with recovered geometry and tracer imaging.","contrary_outcome":"Routing is fixed by final outer shape.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0690","id":"S7-0690","volume":"900v7","title":"A dry husk should show delayed local swelling after its total absorbed-water mass reaches a plateau.","prediction":"A dry husk should show delayed local swelling after its total absorbed-water mass reaches a plateau.","test":"Measure benign nonviable material with mass and local strain maps.","contrary":"All swelling stops with net uptake.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0690","hypothesis":"A dry husk should show delayed local swelling after its total absorbed-water mass reaches a plateau.","prediction":"A dry husk should show delayed local swelling after its total absorbed-water mass reaches a plateau.","test":"Measure benign nonviable material with mass and local strain maps.","contrary_outcome":"All swelling stops with net uptake.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0691","id":"S7-0691","volume":"900v7","title":"A cork-like cellular material should preserve an anisotropic pressure response after isotropic compression recovery.","prediction":"A cork-like cellular material should preserve an anisotropic pressure response after isotropic compression recovery.","test":"Measure benign samples with orthogonal low-load tests and cell imaging.","contrary":"Recovered response becomes isotropic.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0691","hypothesis":"A cork-like cellular material should preserve an anisotropic pressure response after isotropic compression recovery.","prediction":"A cork-like cellular material should preserve an anisotropic pressure response after isotropic compression recovery.","test":"Measure benign samples with orthogonal low-load tests and cell imaging.","contrary_outcome":"Recovered response becomes isotropic.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0692","id":"S7-0692","volume":"900v7","title":"A wood veneer should develop opposite early and late twist during one humidity step when its grain angle varies across width.","prediction":"A wood veneer should develop opposite early and late twist during one humidity step when its grain angle varies across width.","test":"Map benign veneer moisture, grain, and shape.","contrary":"Twist retains one sign throughout uptake.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0692","hypothesis":"A wood veneer should develop opposite early and late twist during one humidity step when its grain angle varies across width.","prediction":"A wood veneer should develop opposite early and late twist during one humidity step when its grain angle varies across width.","test":"Map benign veneer moisture, grain, and shape.","contrary_outcome":"Twist retains one sign throughout uptake.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0693","id":"S7-0693","volume":"900v7","title":"A paper-like botanical sheet should retain different wrinkle patterns after equal wetting from its two faces.","prediction":"A paper-like botanical sheet should retain different wrinkle patterns after equal wetting from its two faces.","test":"Use benign detached material and inert cellulose controls.","contrary":"Final wrinkles depend only on total water.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0693","hypothesis":"A paper-like botanical sheet should retain different wrinkle patterns after equal wetting from its two faces.","prediction":"A paper-like botanical sheet should retain different wrinkle patterns after equal wetting from its two faces.","test":"Use benign detached material and inert cellulose controls.","contrary_outcome":"Final wrinkles depend only on total water.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0694","id":"S7-0694","volume":"900v7","title":"A detached stem segment should refill a gas-blocked internal channel faster after gentle torsion than after equal bending.","prediction":"A detached stem segment should refill a gas-blocked internal channel faster after gentle torsion than after equal bending.","test":"Use benign dyed-water segments and transparent inert controls.","contrary":"Refill depends only on maximum strain.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0694","hypothesis":"A detached stem segment should refill a gas-blocked internal channel faster after gentle torsion than after equal bending.","prediction":"A detached stem segment should refill a gas-blocked internal channel faster after gentle torsion than after equal bending.","test":"Use benign dyed-water segments and transparent inert controls.","contrary_outcome":"Refill depends only on maximum strain.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0695","id":"S7-0695","volume":"900v7","title":"A dry branching structure should direct vibration energy toward its thinner branch after an intermediate joint softens.","prediction":"A dry branching structure should direct vibration energy toward its thinner branch after an intermediate joint softens.","test":"Measure benign structures or replicas with low-amplitude motion mapping.","contrary":"Energy follows branch mass and stiffness without joint-specific routing.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0695","hypothesis":"A dry branching structure should direct vibration energy toward its thinner branch after an intermediate joint softens.","prediction":"A dry branching structure should direct vibration energy toward its thinner branch after an intermediate joint softens.","test":"Measure benign structures or replicas with low-amplitude motion mapping.","contrary_outcome":"Energy follows branch mass and stiffness without joint-specific routing.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0696","id":"S7-0696","volume":"900v7","title":"A rough fruit-skin replica should delay coalescence of neighboring droplets despite bringing their visible outlines into contact.","prediction":"A rough fruit-skin replica should delay coalescence of neighboring droplets despite bringing their visible outlines into contact.","test":"Use inert textured replicas and high-speed water-film imaging.","contrary":"Visible contact always produces immediate merger.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0696","hypothesis":"A rough fruit-skin replica should delay coalescence of neighboring droplets despite bringing their visible outlines into contact.","prediction":"A rough fruit-skin replica should delay coalescence of neighboring droplets despite bringing their visible outlines into contact.","test":"Use inert textured replicas and high-speed water-film imaging.","contrary_outcome":"Visible contact always produces immediate merger.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0697","id":"S7-0697","volume":"900v7","title":"A flattened seed replica should switch between sliding and rolling at the same slope after a tiny transverse tap.","prediction":"A flattened seed replica should switch between sliding and rolling at the same slope after a tiny transverse tap.","test":"Track inert replicas with measured initial contacts.","contrary":"Motion mode depends only on slope and shape.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0697","hypothesis":"A flattened seed replica should switch between sliding and rolling at the same slope after a tiny transverse tap.","prediction":"A flattened seed replica should switch between sliding and rolling at the same slope after a tiny transverse tap.","test":"Track inert replicas with measured initial contacts.","contrary_outcome":"Motion mode depends only on slope and shape.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0697","hypothesis":"A flattened seed replica should switch between sliding and rolling at the same slope after a tiny transverse tap.","prediction":"A flattened seed replica should switch between sliding and rolling at the same slope after a tiny transverse tap.","test":"Track inert replicas with measured initial contacts.","contrary_outcome":"Motion mode depends only on slope and shape.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0698","id":"S7-0698","volume":"900v7","title":"A dry cellulose tube should show a delayed ovalization after its humidity-driven axial extension stops.","prediction":"A dry cellulose tube should show a delayed ovalization after its humidity-driven axial extension stops.","test":"Measure benign tubes with mass, length, and cross-section tracking.","contrary":"Ovalization stops whenever axial extension stops.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0698","hypothesis":"A dry cellulose tube should show a delayed ovalization after its humidity-driven axial extension stops.","prediction":"A dry cellulose tube should show a delayed ovalization after its humidity-driven axial extension stops.","test":"Measure benign tubes with mass, length, and cross-section tracking.","contrary_outcome":"Ovalization stops whenever axial extension stops.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0699","id":"S7-0699","volume":"900v7","title":"A small branching fiber network should retain a detached droplet at a junction even after every single strand would shed it alone.","prediction":"A small branching fiber network should retain a detached droplet at a junction even after every single strand would shed it alone.","test":"Measure benign inert fibers with calibrated geometry and water volume.","contrary":"Junction retention equals the strongest single strand.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0699","hypothesis":"A small branching fiber network should retain a detached droplet at a junction even after every single strand would shed it alone.","prediction":"A small branching fiber network should retain a detached droplet at a junction even after every single strand would shed it alone.","test":"Measure benign inert fibers with calibrated geometry and water volume.","contrary_outcome":"Junction retention equals the strongest single strand.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0700","id":"S7-0700","volume":"900v7","title":"A thin natural-fiber strip should have different crease recovery after tension is released before versus after drying.","prediction":"A thin natural-fiber strip should have different crease recovery after tension is released before versus after drying.","test":"Use benign cellulose material with matched moisture and load histories.","contrary":"Recovery depends only on final moisture and maximum strain.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0700","hypothesis":"A thin natural-fiber strip should have different crease recovery after tension is released before versus after drying.","prediction":"A thin natural-fiber strip should have different crease recovery after tension is released before versus after drying.","test":"Use benign cellulose material with matched moisture and load histories.","contrary_outcome":"Recovery depends only on final moisture and maximum strain.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0701","id":"S7-0701","volume":"900v7","title":"A floating leaf replica should stabilize a small trapped air patch through oscillatory edge motion.","prediction":"A floating leaf replica should stabilize a small trapped air patch through oscillatory edge motion.","test":"Measure inert replicas with low-amplitude waves and fixed-edge controls.","contrary":"Motion only accelerates air loss.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0701","hypothesis":"A floating leaf replica should stabilize a small trapped air patch through oscillatory edge motion.","prediction":"A floating leaf replica should stabilize a small trapped air patch through oscillatory edge motion.","test":"Measure inert replicas with low-amplitude waves and fixed-edge controls.","contrary_outcome":"Motion only accelerates air loss.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0702","id":"S7-0702","volume":"900v7","title":"A dry grass-stem bundle should compact radially under axial tension before individual stems elongate measurably.","prediction":"A dry grass-stem bundle should compact radially under axial tension before individual stems elongate measurably.","test":"Track benign detached stems with local strain and packing maps.","contrary":"Compaction follows resolved stem extension only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0702","hypothesis":"A dry grass-stem bundle should compact radially under axial tension before individual stems elongate measurably.","prediction":"A dry grass-stem bundle should compact radially under axial tension before individual stems elongate measurably.","test":"Track benign detached stems with local strain and packing maps.","contrary_outcome":"Compaction follows resolved stem extension only.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0703","id":"S7-0703","volume":"900v7","title":"A conical seed shell replica should direct initial rewetting uphill along one seam.","prediction":"A conical seed shell replica should direct initial rewetting uphill along one seam.","test":"Use inert patterned replicas with known contact angles.","contrary":"Wetting follows gravity and shortest path only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0703","hypothesis":"A conical seed shell replica should direct initial rewetting uphill along one seam.","prediction":"A conical seed shell replica should direct initial rewetting uphill along one seam.","test":"Use inert patterned replicas with known contact angles.","contrary_outcome":"Wetting follows gravity and shortest path only.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0704","id":"S7-0704","volume":"900v7","title":"A detached leaf midrib should recover bending more slowly after a humid hold than after equal water uptake without bending.","prediction":"A detached leaf midrib should recover bending more slowly after a humid hold than after equal water uptake without bending.","test":"Measure benign material with independent stiffness and moisture.","contrary":"Recovery depends only on total water content.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0704","hypothesis":"A detached leaf midrib should recover bending more slowly after a humid hold than after equal water uptake without bending.","prediction":"A detached leaf midrib should recover bending more slowly after a humid hold than after equal water uptake without bending.","test":"Measure benign material with independent stiffness and moisture.","contrary_outcome":"Recovery depends only on total water content.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0705","id":"S7-0705","volume":"900v7","title":"A dry porous plant fiber should release trapped air in bursts during slow immersion.","prediction":"A dry porous plant fiber should release trapped air in bursts during slow immersion.","test":"Use benign nonliving fibers with bubble and water-front imaging.","contrary":"Air release is smooth at constant immersion speed.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0705","hypothesis":"A dry porous plant fiber should release trapped air in bursts during slow immersion.","prediction":"A dry porous plant fiber should release trapped air in bursts during slow immersion.","test":"Use benign nonliving fibers with bubble and water-front imaging.","contrary_outcome":"Air release is smooth at constant immersion speed.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0706","id":"S7-0706","volume":"900v7","title":"A layered bark replica should open an internal drainage gap while its outer thickness increases during wetting.","prediction":"A layered bark replica should open an internal drainage gap while its outer thickness increases during wetting.","test":"Use benign inert laminates with water and gap imaging.","contrary":"All internal gaps narrow as thickness grows.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0706","hypothesis":"A layered bark replica should open an internal drainage gap while its outer thickness increases during wetting.","prediction":"A layered bark replica should open an internal drainage gap while its outer thickness increases during wetting.","test":"Use benign inert laminates with water and gap imaging.","contrary_outcome":"All internal gaps narrow as thickness grows.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0707","id":"S7-0707","volume":"900v7","title":"A soft seed-wing replica should have a descent orientation that depends on where a small dew droplet first attached.","prediction":"A soft seed-wing replica should have a descent orientation that depends on where a small dew droplet first attached.","test":"Use inert replicas with relocated equal water masses and full motion tracking.","contrary":"Orientation follows current mass distribution only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0707","hypothesis":"A soft seed-wing replica should have a descent orientation that depends on where a small dew droplet first attached.","prediction":"A soft seed-wing replica should have a descent orientation that depends on where a small dew droplet first attached.","test":"Use inert replicas with relocated equal water masses and full motion tracking.","contrary_outcome":"Orientation follows current mass distribution only.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0708","id":"S7-0708","volume":"900v7","title":"A leaf-litter analog should regain load-bearing stiffness before its original thickness after drying.","prediction":"A leaf-litter analog should regain load-bearing stiffness before its original thickness after drying.","test":"Measure benign inert cellulose mats with mass and small-load mechanics.","contrary":"Stiffness recovery is a unique function of thickness.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0708","hypothesis":"A leaf-litter analog should regain load-bearing stiffness before its original thickness after drying.","prediction":"A leaf-litter analog should regain load-bearing stiffness before its original thickness after drying.","test":"Measure benign inert cellulose mats with mass and small-load mechanics.","contrary_outcome":"Stiffness recovery is a unique function of thickness.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0709","id":"S7-0709","volume":"900v7","title":"A hollow branching stem replica should trap air preferentially in a wider branch when filled from below.","prediction":"A hollow branching stem replica should trap air preferentially in a wider branch when filled from below.","test":"Use transparent inert models with equal surface treatment.","contrary":"Air retention increases monotonically as branch width decreases.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0709","hypothesis":"A hollow branching stem replica should trap air preferentially in a wider branch when filled from below.","prediction":"A hollow branching stem replica should trap air preferentially in a wider branch when filled from below.","test":"Use transparent inert models with equal surface treatment.","contrary_outcome":"Air retention increases monotonically as branch width decreases.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0710","id":"S7-0710","volume":"900v7","title":"A papery cone should collapse along a different seam under humid airflow than dry airflow at equal drag force.","prediction":"A papery cone should collapse along a different seam under humid airflow than dry airflow at equal drag force.","test":"Use inert cellulose models with force and moisture tracking.","contrary":"Collapse location follows drag and initial defects alone.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0710","hypothesis":"A papery cone should collapse along a different seam under humid airflow than dry airflow at equal drag force.","prediction":"A papery cone should collapse along a different seam under humid airflow than dry airflow at equal drag force.","test":"Use inert cellulose models with force and moisture tracking.","contrary_outcome":"Collapse location follows drag and initial defects alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0711","id":"S7-0711","volume":"900v7","title":"A dry wood shaving should redistribute curvature after one tip is briefly wetted even after that tip dries.","prediction":"A dry wood shaving should redistribute curvature after one tip is briefly wetted even after that tip dries.","test":"Map benign shavings with matched whole-sample moisture.","contrary":"Curvature returns when local water content returns.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0711","hypothesis":"A dry wood shaving should redistribute curvature after one tip is briefly wetted even after that tip dries.","prediction":"A dry wood shaving should redistribute curvature after one tip is briefly wetted even after that tip dries.","test":"Map benign shavings with matched whole-sample moisture.","contrary_outcome":"Curvature returns when local water content returns.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0712","id":"S7-0712","volume":"900v7","title":"A layered seed coat replica should have different water-entry pressure after inside-out versus outside-in drying.","prediction":"A layered seed coat replica should have different water-entry pressure after inside-out versus outside-in drying.","test":"Use inert benign laminates with controlled pressure and pore imaging.","contrary":"Entry pressure depends only on final porosity.","layers":[1,2],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0712","hypothesis":"A layered seed coat replica should have different water-entry pressure after inside-out versus outside-in drying.","prediction":"A layered seed coat replica should have different water-entry pressure after inside-out versus outside-in drying.","test":"Use inert benign laminates with controlled pressure and pore imaging.","contrary_outcome":"Entry pressure depends only on final porosity.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0712","hypothesis":"A layered seed coat replica should have different water-entry pressure after inside-out versus outside-in drying.","prediction":"A layered seed coat replica should have different water-entry pressure after inside-out versus outside-in drying.","test":"Use inert benign laminates with controlled pressure and pore imaging.","contrary_outcome":"Entry pressure depends only on final porosity.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0713","id":"S7-0713","volume":"900v7","title":"A suspended cellulose fringe should collect water preferentially near its attachment after gentle oscillation.","prediction":"A suspended cellulose fringe should collect water preferentially near its attachment after gentle oscillation.","test":"Measure inert fibers, droplet trajectories, and complete water balance.","contrary":"Collection follows exposed length alone.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0713","hypothesis":"A suspended cellulose fringe should collect water preferentially near its attachment after gentle oscillation.","prediction":"A suspended cellulose fringe should collect water preferentially near its attachment after gentle oscillation.","test":"Measure inert fibers, droplet trajectories, and complete water balance.","contrary_outcome":"Collection follows exposed length alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0714","id":"S7-0714","volume":"900v7","title":"A branching fiber network should retain a directional mechanical memory after all external forces return to zero.","prediction":"A branching fiber network should retain a directional mechanical memory after all external forces return to zero.","test":"Measure benign inert networks under reversed loading and contact imaging.","contrary":"Recovered compliance is independent of prior direction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0714","hypothesis":"A branching fiber network should retain a directional mechanical memory after all external forces return to zero.","prediction":"A branching fiber network should retain a directional mechanical memory after all external forces return to zero.","test":"Measure benign inert networks under reversed loading and contact imaging.","contrary_outcome":"Recovered compliance is independent of prior direction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0715","id":"S7-0715","volume":"900v7","title":"A thin leaf replica should develop a stable twist under symmetric water loading if one edge can slip.","prediction":"A thin leaf replica should develop a stable twist under symmetric water loading if one edge can slip.","test":"Use inert films with symmetric drops and controlled edge constraints.","contrary":"Twist requires unequal water mass or initial curvature.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0715","hypothesis":"A thin leaf replica should develop a stable twist under symmetric water loading if one edge can slip.","prediction":"A thin leaf replica should develop a stable twist under symmetric water loading if one edge can slip.","test":"Use inert films with symmetric drops and controlled edge constraints.","contrary_outcome":"Twist requires unequal water mass or initial curvature.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0716","id":"S7-0716","volume":"900v7","title":"A dry reed-like tube should transmit an acoustic pulse differently when its internal partitions are wet versus its walls at equal total water.","prediction":"A dry reed-like tube should transmit an acoustic pulse differently when its internal partitions are wet versus its walls at equal total water.","test":"Use inert tube replicas with controlled wetting maps.","contrary":"Response depends only on total added water mass.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0716","hypothesis":"A dry reed-like tube should transmit an acoustic pulse differently when its internal partitions are wet versus its walls at equal total water.","prediction":"A dry reed-like tube should transmit an acoustic pulse differently when its internal partitions are wet versus its walls at equal total water.","test":"Use inert tube replicas with controlled wetting maps.","contrary_outcome":"Response depends only on total added water mass.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0717","id":"S7-0717","volume":"900v7","title":"A curved cellulose strip should absorb water faster from its concave face than convex face even after exposed area is matched.","prediction":"A curved cellulose strip should absorb water faster from its concave face than convex face even after exposed area is matched.","test":"Measure benign strips with independent contact-angle and pore controls.","contrary":"Uptake rates match after area correction.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0717","hypothesis":"A curved cellulose strip should absorb water faster from its concave face than convex face even after exposed area is matched.","prediction":"A curved cellulose strip should absorb water faster from its concave face than convex face even after exposed area is matched.","test":"Measure benign strips with independent contact-angle and pore controls.","contrary_outcome":"Uptake rates match after area correction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0718","id":"S7-0718","volume":"900v7","title":"A floating porous leaf analog should lose buoyancy in discrete steps as separate air compartments fill.","prediction":"A floating porous leaf analog should lose buoyancy in discrete steps as separate air compartments fill.","test":"Use inert transparent models with compartment and height imaging.","contrary":"Buoyancy declines smoothly with total water uptake.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0718","hypothesis":"A floating porous leaf analog should lose buoyancy in discrete steps as separate air compartments fill.","prediction":"A floating porous leaf analog should lose buoyancy in discrete steps as separate air compartments fill.","test":"Use inert transparent models with compartment and height imaging.","contrary_outcome":"Buoyancy declines smoothly with total water uptake.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0719","id":"S7-0719","volume":"900v7","title":"A seed-plume replica should retain more particles after a weak oscillation than after static exposure of equal duration.","prediction":"A seed-plume replica should retain more particles after a weak oscillation than after static exposure of equal duration.","test":"Use benign inert fibers and dust with enclosed tracking.","contrary":"Capture depends only on total intercepted area.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0719","hypothesis":"A seed-plume replica should retain more particles after a weak oscillation than after static exposure of equal duration.","prediction":"A seed-plume replica should retain more particles after a weak oscillation than after static exposure of equal duration.","test":"Use benign inert fibers and dust with enclosed tracking.","contrary_outcome":"Capture depends only on total intercepted area.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0720","id":"S7-0720","volume":"900v7","title":"A layered cellulose joint should alter its bending axis during drying before its overall stiffness recovers.","prediction":"A layered cellulose joint should alter its bending axis during drying before its overall stiffness recovers.","test":"Map benign joint modes, moisture, and mechanical response.","contrary":"Axis rotation occurs only alongside recovered stiffness.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0720","hypothesis":"A layered cellulose joint should alter its bending axis during drying before its overall stiffness recovers.","prediction":"A layered cellulose joint should alter its bending axis during drying before its overall stiffness recovers.","test":"Map benign joint modes, moisture, and mechanical response.","contrary_outcome":"Axis rotation occurs only alongside recovered stiffness.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0721","id":"S7-0721","volume":"900v7","title":"A low-pressure air jet should sort equal-mass folded paper objects by hinge relaxation time rather than static projected area.","prediction":"A low-pressure air jet should sort equal-mass folded paper objects by hinge relaxation time rather than static projected area.","test":"Track inert objects with independently calibrated hinge dynamics.","contrary":"Trajectories follow static drag and mass alone.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0721","hypothesis":"A low-pressure air jet should sort equal-mass folded paper objects by hinge relaxation time rather than static projected area.","prediction":"A low-pressure air jet should sort equal-mass folded paper objects by hinge relaxation time rather than static projected area.","test":"Track inert objects with independently calibrated hinge dynamics.","contrary_outcome":"Trajectories follow static drag and mass alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0722","id":"S7-0722","volume":"900v7","title":"A passive rotating vane should retain a different rest orientation after two equal gusts arrive in opposite orders.","prediction":"A passive rotating vane should retain a different rest orientation after two equal gusts arrive in opposite orders.","test":"Measure benign vanes with calibrated airflow and bearing friction.","contrary":"Final orientation depends only on total gust impulse.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0722","hypothesis":"A passive rotating vane should retain a different rest orientation after two equal gusts arrive in opposite orders.","prediction":"A passive rotating vane should retain a different rest orientation after two equal gusts arrive in opposite orders.","test":"Measure benign vanes with calibrated airflow and bearing friction.","contrary_outcome":"Final orientation depends only on total gust impulse.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0723","id":"S7-0723","volume":"900v7","title":"A flexible windbreak should reduce downstream velocity fluctuations more than a rigid windbreak of equal mean porosity.","prediction":"A flexible windbreak should reduce downstream velocity fluctuations more than a rigid windbreak of equal mean porosity.","test":"Measure low-speed air fields and structural motion.","contrary":"Fluctuation reduction follows mean velocity reduction only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0723","hypothesis":"A flexible windbreak should reduce downstream velocity fluctuations more than a rigid windbreak of equal mean porosity.","prediction":"A flexible windbreak should reduce downstream velocity fluctuations more than a rigid windbreak of equal mean porosity.","test":"Measure low-speed air fields and structural motion.","contrary_outcome":"Fluctuation reduction follows mean velocity reduction only.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0724","id":"S7-0724","volume":"900v7","title":"A small air pocket beneath a flapping sheet should synchronize neighboring folds without direct sheet contact.","prediction":"A small air pocket beneath a flapping sheet should synchronize neighboring folds without direct sheet contact.","test":"Measure quiet airflow, pocket pressure, and fold phases.","contrary":"Synchrony disappears when mechanical support coupling is removed.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0724","hypothesis":"A small air pocket beneath a flapping sheet should synchronize neighboring folds without direct sheet contact.","prediction":"A small air pocket beneath a flapping sheet should synchronize neighboring folds without direct sheet contact.","test":"Measure quiet airflow, pocket pressure, and fold phases.","contrary_outcome":"Synchrony disappears when mechanical support coupling is removed.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0725","id":"S7-0725","volume":"900v7","title":"A narrow porous fringe should reduce a bluff object's wake switching without substantially changing average drag.","prediction":"A narrow porous fringe should reduce a bluff object's wake switching without substantially changing average drag.","test":"Measure low-speed airflow and force with fringe-fixed controls.","contrary":"Wake stability changes only with mean drag.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0725","hypothesis":"A narrow porous fringe should reduce a bluff object's wake switching without substantially changing average drag.","prediction":"A narrow porous fringe should reduce a bluff object's wake switching without substantially changing average drag.","test":"Measure low-speed airflow and force with fringe-fixed controls.","contrary_outcome":"Wake stability changes only with mean drag.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0726","id":"S7-0726","volume":"900v7","title":"A conical air diffuser should produce different particle deposition patterns after opposite flow-ramp histories.","prediction":"A conical air diffuser should produce different particle deposition patterns after opposite flow-ramp histories.","test":"Use enclosed inert dust, low airflow, and complete deposition maps.","contrary":"Patterns depend only on final airflow and geometry.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0726","hypothesis":"A conical air diffuser should produce different particle deposition patterns after opposite flow-ramp histories.","prediction":"A conical air diffuser should produce different particle deposition patterns after opposite flow-ramp histories.","test":"Use enclosed inert dust, low airflow, and complete deposition maps.","contrary_outcome":"Patterns depend only on final airflow and geometry.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0727","id":"S7-0727","volume":"900v7","title":"A soft flag should show a delayed flutter onset after a short high-humidity exposure even after its mean stiffness recovers.","prediction":"A soft flag should show a delayed flutter onset after a short high-humidity exposure even after its mean stiffness recovers.","test":"Measure benign cloth moisture and dynamic response.","contrary":"Onset is determined by current stiffness and mass.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0727","hypothesis":"A soft flag should show a delayed flutter onset after a short high-humidity exposure even after its mean stiffness recovers.","prediction":"A soft flag should show a delayed flutter onset after a short high-humidity exposure even after its mean stiffness recovers.","test":"Measure benign cloth moisture and dynamic response.","contrary_outcome":"Onset is determined by current stiffness and mass.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0728","id":"S7-0728","volume":"900v7","title":"A loosely layered screen should trap more airborne inert particles during gusts than steady airflow at equal total air volume.","prediction":"A loosely layered screen should trap more airborne inert particles during gusts than steady airflow at equal total air volume.","test":"Measure enclosed particle counts and interlayer motion.","contrary":"Capture depends only on total throughput.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0728","hypothesis":"A loosely layered screen should trap more airborne inert particles during gusts than steady airflow at equal total air volume.","prediction":"A loosely layered screen should trap more airborne inert particles during gusts than steady airflow at equal total air volume.","test":"Measure enclosed particle counts and interlayer motion.","contrary_outcome":"Capture depends only on total throughput.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0729","id":"S7-0729","volume":"900v7","title":"A small compliant roof should reduce pressure peaks inside an enclosure by opening an edge gap before visible uplift.","prediction":"A small compliant roof should reduce pressure peaks inside an enclosure by opening an edge gap before visible uplift.","test":"Measure low-pressure air, gap capacitance, and optical motion.","contrary":"Pressure relief begins only after resolved uplift.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0729","hypothesis":"A small compliant roof should reduce pressure peaks inside an enclosure by opening an edge gap before visible uplift.","prediction":"A small compliant roof should reduce pressure peaks inside an enclosure by opening an edge gap before visible uplift.","test":"Measure low-pressure air, gap capacitance, and optical motion.","contrary_outcome":"Pressure relief begins only after resolved uplift.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0730","id":"S7-0730","volume":"900v7","title":"A narrow gap between two flexible strips should become a preferred airflow path only after one strip briefly contacts the other.","prediction":"A narrow gap between two flexible strips should become a preferred airflow path only after one strip briefly contacts the other.","test":"Map low-speed flow and contact history.","contrary":"Path selection depends only on current gap geometry.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0730","hypothesis":"A narrow gap between two flexible strips should become a preferred airflow path only after one strip briefly contacts the other.","prediction":"A narrow gap between two flexible strips should become a preferred airflow path only after one strip briefly contacts the other.","test":"Map low-speed flow and contact history.","contrary_outcome":"Path selection depends only on current gap geometry.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0731","id":"S7-0731","volume":"900v7","title":"A suspended flexible ribbon should experience a reversed transient torque when airflow stops abruptly.","prediction":"A suspended flexible ribbon should experience a reversed transient torque when airflow stops abruptly.","test":"Measure low-energy motion and local air velocity.","contrary":"Torque decays monotonically without sign reversal.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0731","hypothesis":"A suspended flexible ribbon should experience a reversed transient torque when airflow stops abruptly.","prediction":"A suspended flexible ribbon should experience a reversed transient torque when airflow stops abruptly.","test":"Measure low-energy motion and local air velocity.","contrary_outcome":"Torque decays monotonically without sign reversal.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0732","id":"S7-0732","volume":"900v7","title":"A porous cone should retain an asymmetric wake after an off-center obstruction is removed.","prediction":"A porous cone should retain an asymmetric wake after an off-center obstruction is removed.","test":"Measure low-speed air fields with repeated symmetric initialization.","contrary":"Wake symmetry returns immediately with obstacle removal.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0732","hypothesis":"A porous cone should retain an asymmetric wake after an off-center obstruction is removed.","prediction":"A porous cone should retain an asymmetric wake after an off-center obstruction is removed.","test":"Measure low-speed air fields with repeated symmetric initialization.","contrary_outcome":"Wake symmetry returns immediately with obstacle removal.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0733","id":"S7-0733","volume":"900v7","title":"A short pulse through one enclosure vent should determine which of two other vents later carries outflow under weak heating.","prediction":"A short pulse through one enclosure vent should determine which of two other vents later carries outflow under weak heating.","test":"Measure low-power convection and vent flow directions.","contrary":"The later flow pattern is independent of pulse history.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0733","hypothesis":"A short pulse through one enclosure vent should determine which of two other vents later carries outflow under weak heating.","prediction":"A short pulse through one enclosure vent should determine which of two other vents later carries outflow under weak heating.","test":"Measure low-power convection and vent flow directions.","contrary_outcome":"The later flow pattern is independent of pulse history.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0734","id":"S7-0734","volume":"900v7","title":"A compliant duct elbow should suppress a narrow pressure-oscillation band without reducing mean airflow appreciably.","prediction":"A compliant duct elbow should suppress a narrow pressure-oscillation band without reducing mean airflow appreciably.","test":"Measure low-pressure air spectra and wall motion.","contrary":"Suppression scales only with mean resistance.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0734","hypothesis":"A compliant duct elbow should suppress a narrow pressure-oscillation band without reducing mean airflow appreciably.","prediction":"A compliant duct elbow should suppress a narrow pressure-oscillation band without reducing mean airflow appreciably.","test":"Measure low-pressure air spectra and wall motion.","contrary_outcome":"Suppression scales only with mean resistance.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0735","id":"S7-0735","volume":"900v7","title":"A flexible leaf-shaped vane should distinguish gust duration from peak speed through its recovery trajectory.","prediction":"A flexible leaf-shaped vane should distinguish gust duration from peak speed through its recovery trajectory.","test":"Validate inert replicas against independently measured gusts.","contrary":"Different gusts with equal impulse produce indistinguishable recovery.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0735","hypothesis":"A flexible leaf-shaped vane should distinguish gust duration from peak speed through its recovery trajectory.","prediction":"A flexible leaf-shaped vane should distinguish gust duration from peak speed through its recovery trajectory.","test":"Validate inert replicas against independently measured gusts.","contrary_outcome":"Different gusts with equal impulse produce indistinguishable recovery.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0735","hypothesis":"A flexible leaf-shaped vane should distinguish gust duration from peak speed through its recovery trajectory.","prediction":"A flexible leaf-shaped vane should distinguish gust duration from peak speed through its recovery trajectory.","test":"Validate inert replicas against independently measured gusts.","contrary_outcome":"Different gusts with equal impulse produce indistinguishable recovery.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0736","id":"S7-0736","volume":"900v7","title":"A side opening should reduce wind-induced cavity noise most when its air path includes a small compliant volume.","prediction":"A side opening should reduce wind-induced cavity noise most when its air path includes a small compliant volume.","test":"Measure quiet low-speed flow and pressure spectra.","contrary":"Noise reduction depends only on opening area.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0736","hypothesis":"A side opening should reduce wind-induced cavity noise most when its air path includes a small compliant volume.","prediction":"A side opening should reduce wind-induced cavity noise most when its air path includes a small compliant volume.","test":"Measure quiet low-speed flow and pressure spectra.","contrary_outcome":"Noise reduction depends only on opening area.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0737","id":"S7-0737","volume":"900v7","title":"A loose particle layer should attenuate an air-pressure pulse more during its first exposure than later repeats.","prediction":"A loose particle layer should attenuate an air-pressure pulse more during its first exposure than later repeats.","test":"Use enclosed inert particles with measured packing and pulse energy.","contrary":"Attenuation is stationary after equal initial density.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0737","hypothesis":"A loose particle layer should attenuate an air-pressure pulse more during its first exposure than later repeats.","prediction":"A loose particle layer should attenuate an air-pressure pulse more during its first exposure than later repeats.","test":"Use enclosed inert particles with measured packing and pulse energy.","contrary_outcome":"Attenuation is stationary after equal initial density.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0738","id":"S7-0738","volume":"900v7","title":"A dry fiber fringe should show a directional vibration bias after equal crosswind exposures arranged in different orders.","prediction":"A dry fiber fringe should show a directional vibration bias after equal crosswind exposures arranged in different orders.","test":"Track benign inert fibers with restored flow conditions.","contrary":"Response is independent of exposure order.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0738","hypothesis":"A dry fiber fringe should show a directional vibration bias after equal crosswind exposures arranged in different orders.","prediction":"A dry fiber fringe should show a directional vibration bias after equal crosswind exposures arranged in different orders.","test":"Track benign inert fibers with restored flow conditions.","contrary_outcome":"Response is independent of exposure order.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0739","id":"S7-0739","volume":"900v7","title":"A shallow air cushion should support a light object at different heights during increasing and decreasing flow.","prediction":"A shallow air cushion should support a light object at different heights during increasing and decreasing flow.","test":"Measure low-pressure air, gap profile, and object force.","contrary":"Height is a unique function of airflow.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0739","hypothesis":"A shallow air cushion should support a light object at different heights during increasing and decreasing flow.","prediction":"A shallow air cushion should support a light object at different heights during increasing and decreasing flow.","test":"Measure low-pressure air, gap profile, and object force.","contrary_outcome":"Height is a unique function of airflow.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0740","id":"S7-0740","volume":"900v7","title":"A partially wet screen should steer low-speed air toward its drying edge before total pressure drop changes appreciably.","prediction":"A partially wet screen should steer low-speed air toward its drying edge before total pressure drop changes appreciably.","test":"Map benign screen wetness and air velocity.","contrary":"Flow distribution follows total pressure drop alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0740","hypothesis":"A partially wet screen should steer low-speed air toward its drying edge before total pressure drop changes appreciably.","prediction":"A partially wet screen should steer low-speed air toward its drying edge before total pressure drop changes appreciably.","test":"Map benign screen wetness and air velocity.","contrary_outcome":"Flow distribution follows total pressure drop alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0741","id":"S7-0741","volume":"900v7","title":"A water droplet on a flexible inclined wire should oscillate in position under constant gentle airflow.","prediction":"A water droplet on a flexible inclined wire should oscillate in position under constant gentle airflow.","test":"Measure water geometry, wire motion, and air speed.","contrary":"The droplet reaches a fixed position after initial transients.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0741","hypothesis":"A water droplet on a flexible inclined wire should oscillate in position under constant gentle airflow.","prediction":"A water droplet on a flexible inclined wire should oscillate in position under constant gentle airflow.","test":"Measure water geometry, wire motion, and air speed.","contrary_outcome":"The droplet reaches a fixed position after initial transients.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0742","id":"S7-0742","volume":"900v7","title":"A stiffening layer placed near a soft vane's tip should suppress flutter more than the same layer near its root at equal mass.","prediction":"A stiffening layer placed near a soft vane's tip should suppress flutter more than the same layer near its root at equal mass.","test":"Compare low-speed inert vanes with measured stiffness profiles.","contrary":"Suppression follows total bending stiffness only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0742","hypothesis":"A stiffening layer placed near a soft vane's tip should suppress flutter more than the same layer near its root at equal mass.","prediction":"A stiffening layer placed near a soft vane's tip should suppress flutter more than the same layer near its root at equal mass.","test":"Compare low-speed inert vanes with measured stiffness profiles.","contrary_outcome":"Suppression follows total bending stiffness only.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0743","id":"S7-0743","volume":"900v7","title":"A short cavity neck should produce a pressure signal sensitive to airflow direction even when its mean pressure is near zero.","prediction":"A short cavity neck should produce a pressure signal sensitive to airflow direction even when its mean pressure is near zero.","test":"Measure calibrated low-speed opposing flows and quiet spectra.","contrary":"Signals cannot distinguish directions above noise.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0743","hypothesis":"A short cavity neck should produce a pressure signal sensitive to airflow direction even when its mean pressure is near zero.","prediction":"A short cavity neck should produce a pressure signal sensitive to airflow direction even when its mean pressure is near zero.","test":"Measure calibrated low-speed opposing flows and quiet spectra.","contrary_outcome":"Signals cannot distinguish directions above noise.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0744","id":"S7-0744","volume":"900v7","title":"A flexible divider should reduce mixing of two parallel low-speed air streams despite increasing interface motion.","prediction":"A flexible divider should reduce mixing of two parallel low-speed air streams despite increasing interface motion.","test":"Measure benign humidity tracers, velocity, and divider shape.","contrary":"More interface motion always increases mixing.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0744","hypothesis":"A flexible divider should reduce mixing of two parallel low-speed air streams despite increasing interface motion.","prediction":"A flexible divider should reduce mixing of two parallel low-speed air streams despite increasing interface motion.","test":"Measure benign humidity tracers, velocity, and divider shape.","contrary_outcome":"More interface motion always increases mixing.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0745","id":"S7-0745","volume":"900v7","title":"A porous side pocket should retain inert aerosol particles after the main airflow reverses.","prediction":"A porous side pocket should retain inert aerosol particles after the main airflow reverses.","test":"Use enclosed safe inert tracers with full mass balance.","contrary":"Particles flush at the bulk replacement rate.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0745","hypothesis":"A porous side pocket should retain inert aerosol particles after the main airflow reverses.","prediction":"A porous side pocket should retain inert aerosol particles after the main airflow reverses.","test":"Use enclosed safe inert tracers with full mass balance.","contrary_outcome":"Particles flush at the bulk replacement rate.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0746","id":"S7-0746","volume":"900v7","title":"A weak electrostatic charge should change dust deposition on a flapping insulating sheet more than on a fixed sheet.","prediction":"A weak electrostatic charge should change dust deposition on a flapping insulating sheet more than on a fixed sheet.","test":"Use modest charges and enclosed inert dust with motion controls.","contrary":"Charge and motion effects combine independently.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0746","hypothesis":"A weak electrostatic charge should change dust deposition on a flapping insulating sheet more than on a fixed sheet.","prediction":"A weak electrostatic charge should change dust deposition on a flapping insulating sheet more than on a fixed sheet.","test":"Use modest charges and enclosed inert dust with motion controls.","contrary_outcome":"Charge and motion effects combine independently.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0747","id":"S7-0747","volume":"900v7","title":"A narrow air jet should remain attached to a moving soft surface after the surface passes its static detachment angle.","prediction":"A narrow air jet should remain attached to a moving soft surface after the surface passes its static detachment angle.","test":"Measure low-speed air and surface curvature through controlled cycles.","contrary":"Attachment follows the static angle threshold.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0747","hypothesis":"A narrow air jet should remain attached to a moving soft surface after the surface passes its static detachment angle.","prediction":"A narrow air jet should remain attached to a moving soft surface after the surface passes its static detachment angle.","test":"Measure low-speed air and surface curvature through controlled cycles.","contrary_outcome":"Attachment follows the static angle threshold.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0748","id":"S7-0748","volume":"900v7","title":"A pair of passive vanes should lock into opposite phases only within an intermediate gap range.","prediction":"A pair of passive vanes should lock into opposite phases only within an intermediate gap range.","test":"Track benign flexible vanes with isolated and rigid controls.","contrary":"Relative phase follows support vibration alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0748","hypothesis":"A pair of passive vanes should lock into opposite phases only within an intermediate gap range.","prediction":"A pair of passive vanes should lock into opposite phases only within an intermediate gap range.","test":"Track benign flexible vanes with isolated and rigid controls.","contrary_outcome":"Relative phase follows support vibration alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0749","id":"S7-0749","volume":"900v7","title":"A slowly collapsing air channel should emit a pressure pulse before its minimum gap becomes optically unresolved.","prediction":"A slowly collapsing air channel should emit a pressure pulse before its minimum gap becomes optically unresolved.","test":"Measure low-pressure models with calibrated gap sensitivity.","contrary":"Pulse onset requires complete visible closure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0749","hypothesis":"A slowly collapsing air channel should emit a pressure pulse before its minimum gap becomes optically unresolved.","prediction":"A slowly collapsing air channel should emit a pressure pulse before its minimum gap becomes optically unresolved.","test":"Measure low-pressure models with calibrated gap sensitivity.","contrary_outcome":"Pulse onset requires complete visible closure.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0750","id":"S7-0750","volume":"900v7","title":"A porous baffle should change its effective acoustic leakage after a brief airflow reversal even when mean resistance recovers.","prediction":"A porous baffle should change its effective acoustic leakage after a brief airflow reversal even when mean resistance recovers.","test":"Measure quiet transmission, low air flow, and internal moisture.","contrary":"Acoustic response returns whenever resistance returns.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0750","hypothesis":"A porous baffle should change its effective acoustic leakage after a brief airflow reversal even when mean resistance recovers.","prediction":"A porous baffle should change its effective acoustic leakage after a brief airflow reversal even when mean resistance recovers.","test":"Measure quiet transmission, low air flow, and internal moisture.","contrary_outcome":"Acoustic response returns whenever resistance returns.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0751","id":"S7-0751","volume":"900v7","title":"A weakly confined pendulum should show different return times after equal clockwise and counterclockwise loop trajectories.","prediction":"A weakly confined pendulum should show different return times after equal clockwise and counterclockwise loop trajectories.","test":"Measure low-energy motion and support friction with mirrored controls.","contrary":"Return time depends only on final energy.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0751","hypothesis":"A weakly confined pendulum should show different return times after equal clockwise and counterclockwise loop trajectories.","prediction":"A weakly confined pendulum should show different return times after equal clockwise and counterclockwise loop trajectories.","test":"Measure low-energy motion and support friction with mirrored controls.","contrary_outcome":"Return time depends only on final energy.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0752","id":"S7-0752","volume":"900v7","title":"A floating asymmetric ring should convert slow vertical oscillation into net rotation only when one contact line is pinned.","prediction":"A floating asymmetric ring should convert slow vertical oscillation into net rotation only when one contact line is pinned.","test":"Measure water geometry and torque with freely sliding controls.","contrary":"Rotation persists equally without pinning.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0752","hypothesis":"A floating asymmetric ring should convert slow vertical oscillation into net rotation only when one contact line is pinned.","prediction":"A floating asymmetric ring should convert slow vertical oscillation into net rotation only when one contact line is pinned.","test":"Measure water geometry and torque with freely sliding controls.","contrary_outcome":"Rotation persists equally without pinning.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0753","id":"S7-0753","volume":"900v7","title":"A small coupled-spring network should localize energy at a previously loaded node after all spring lengths recover.","prediction":"A small coupled-spring network should localize energy at a previously loaded node after all spring lengths recover.","test":"Measure gentle pulses and individual connector friction.","contrary":"Energy distribution is independent of loading history.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0753","hypothesis":"A small coupled-spring network should localize energy at a previously loaded node after all spring lengths recover.","prediction":"A small coupled-spring network should localize energy at a previously loaded node after all spring lengths recover.","test":"Measure gentle pulses and individual connector friction.","contrary_outcome":"Energy distribution is independent of loading history.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0754","id":"S7-0754","volume":"900v7","title":"A compliant slider should stop farther after a smaller impulse when its contact has aged longer.","prediction":"A compliant slider should stop farther after a smaller impulse when its contact has aged longer.","test":"Measure low-energy motion, input impulse, and contact area.","contrary":"Stopping distance is monotonic in impulse after current friction matching.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0754","hypothesis":"A compliant slider should stop farther after a smaller impulse when its contact has aged longer.","prediction":"A compliant slider should stop farther after a smaller impulse when its contact has aged longer.","test":"Measure low-energy motion, input impulse, and contact area.","contrary_outcome":"Stopping distance is monotonic in impulse after current friction matching.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0755","id":"S7-0755","volume":"900v7","title":"A soft rolling ring should reverse its wobble direction after a temporary flat contact forms and recovers.","prediction":"A soft rolling ring should reverse its wobble direction after a temporary flat contact forms and recovers.","test":"Track benign low-speed rings with full shape reconstruction.","contrary":"Wobble direction follows initial angular momentum only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0755","hypothesis":"A soft rolling ring should reverse its wobble direction after a temporary flat contact forms and recovers.","prediction":"A soft rolling ring should reverse its wobble direction after a temporary flat contact forms and recovers.","test":"Track benign low-speed rings with full shape reconstruction.","contrary_outcome":"Wobble direction follows initial angular momentum only.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0756","id":"S7-0756","volume":"900v7","title":"A hinged chain should transfer a disturbance faster after a brief transverse preload than after axial preload of equal energy.","prediction":"A hinged chain should transfer a disturbance faster after a brief transverse preload than after axial preload of equal energy.","test":"Measure low-energy motion and hinge-contact geometry.","contrary":"Propagation depends only on final stiffness and tension.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0756","hypothesis":"A hinged chain should transfer a disturbance faster after a brief transverse preload than after axial preload of equal energy.","prediction":"A hinged chain should transfer a disturbance faster after a brief transverse preload than after axial preload of equal energy.","test":"Measure low-energy motion and hinge-contact geometry.","contrary_outcome":"Propagation depends only on final stiffness and tension.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0757","id":"S7-0757","volume":"900v7","title":"A frictional network should retain distinct pulse-transmission paths after the same final boundary forces are reached by different routes.","prediction":"A frictional network should retain distinct pulse-transmission paths after the same final boundary forces are reached by different routes.","test":"Use benign contact networks with independent force imaging.","contrary":"Transmission paths are unique at final force.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0757","hypothesis":"A frictional network should retain distinct pulse-transmission paths after the same final boundary forces are reached by different routes.","prediction":"A frictional network should retain distinct pulse-transmission paths after the same final boundary forces are reached by different routes.","test":"Use benign contact networks with independent force imaging.","contrary_outcome":"Transmission paths are unique at final force.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0758","id":"S7-0758","volume":"900v7","title":"A shallow shell should show a time-delayed snap under constant subcritical load after a humidity step.","prediction":"A shallow shell should show a time-delayed snap under constant subcritical load after a humidity step.","test":"Use guarded low-energy cellulose models with full moisture maps.","contrary":"Snap occurs only when load exceeds the measured instantaneous threshold.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0758","hypothesis":"A shallow shell should show a time-delayed snap under constant subcritical load after a humidity step.","prediction":"A shallow shell should show a time-delayed snap under constant subcritical load after a humidity step.","test":"Use guarded low-energy cellulose models with full moisture maps.","contrary_outcome":"Snap occurs only when load exceeds the measured instantaneous threshold.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0759","id":"S7-0759","volume":"900v7","title":"A soft annular support should produce opposite phase shifts for radial and tangential small vibrations after compression.","prediction":"A soft annular support should produce opposite phase shifts for radial and tangential small vibrations after compression.","test":"Measure low-amplitude responses and contact strain.","contrary":"Both phase shifts have the same sign and scaling.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0759","hypothesis":"A soft annular support should produce opposite phase shifts for radial and tangential small vibrations after compression.","prediction":"A soft annular support should produce opposite phase shifts for radial and tangential small vibrations after compression.","test":"Measure low-amplitude responses and contact strain.","contrary_outcome":"Both phase shifts have the same sign and scaling.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0760","id":"S7-0760","volume":"900v7","title":"A cable loop should store a localized twist that moves when one support is translated without endpoint rotation.","prediction":"A cable loop should store a localized twist that moves when one support is translated without endpoint rotation.","test":"Track benign cords and local twist markers.","contrary":"Twist distribution changes only with applied rotation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0760","hypothesis":"A cable loop should store a localized twist that moves when one support is translated without endpoint rotation.","prediction":"A cable loop should store a localized twist that moves when one support is translated without endpoint rotation.","test":"Track benign cords and local twist markers.","contrary_outcome":"Twist distribution changes only with applied rotation.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0761","id":"S7-0761","volume":"900v7","title":"A small inertial mass attached through a slack link should attenuate the second of two equal shocks more than the first.","prediction":"A small inertial mass attached through a slack link should attenuate the second of two equal shocks more than the first.","test":"Use guarded low-energy impulses and measured link recruitment.","contrary":"Attenuation is identical after matching initial conditions.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0761","hypothesis":"A small inertial mass attached through a slack link should attenuate the second of two equal shocks more than the first.","prediction":"A small inertial mass attached through a slack link should attenuate the second of two equal shocks more than the first.","test":"Use guarded low-energy impulses and measured link recruitment.","contrary_outcome":"Attenuation is identical after matching initial conditions.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0762","id":"S7-0762","volume":"900v7","title":"A soft stop's location should control the sign of a beam's postimpact mean displacement at equal input energy.","prediction":"A soft stop's location should control the sign of a beam's postimpact mean displacement at equal input energy.","test":"Measure guarded low-energy beams with mirrored stop placements.","contrary":"Mean displacement follows impulse direction alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0762","hypothesis":"A soft stop's location should control the sign of a beam's postimpact mean displacement at equal input energy.","prediction":"A soft stop's location should control the sign of a beam's postimpact mean displacement at equal input energy.","test":"Measure guarded low-energy beams with mirrored stop placements.","contrary_outcome":"Mean displacement follows impulse direction alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0763","id":"S7-0763","volume":"900v7","title":"A layered ring should exhibit a moving neutral axis during a slow torsion hold.","prediction":"A layered ring should exhibit a moving neutral axis during a slow torsion hold.","test":"Map benign layers and local strain over relaxation.","contrary":"The neutral axis stays fixed at constant torque.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0763","hypothesis":"A layered ring should exhibit a moving neutral axis during a slow torsion hold.","prediction":"A layered ring should exhibit a moving neutral axis during a slow torsion hold.","test":"Map benign layers and local strain over relaxation.","contrary_outcome":"The neutral axis stays fixed at constant torque.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0764","id":"S7-0764","volume":"900v7","title":"A small elastic loop should become more resistant to sideways motion after partial unloading than at maximum load.","prediction":"A small elastic loop should become more resistant to sideways motion after partial unloading than at maximum load.","test":"Measure low-force incremental lateral compliance.","contrary":"Lateral stiffness increases monotonically with normal load.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0764","hypothesis":"A small elastic loop should become more resistant to sideways motion after partial unloading than at maximum load.","prediction":"A small elastic loop should become more resistant to sideways motion after partial unloading than at maximum load.","test":"Measure low-force incremental lateral compliance.","contrary_outcome":"Lateral stiffness increases monotonically with normal load.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0765","id":"S7-0765","volume":"900v7","title":"A loose collar should select one of two nearly equal vibration modes according to its previous sliding direction.","prediction":"A loose collar should select one of two nearly equal vibration modes according to its previous sliding direction.","test":"Measure gentle spectra and contact positions with mirrored histories.","contrary":"Mode preference depends only on current collar position.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0765","hypothesis":"A loose collar should select one of two nearly equal vibration modes according to its previous sliding direction.","prediction":"A loose collar should select one of two nearly equal vibration modes according to its previous sliding direction.","test":"Measure gentle spectra and contact positions with mirrored histories.","contrary_outcome":"Mode preference depends only on current collar position.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0766","id":"S7-0766","volume":"900v7","title":"A flexible tripod should redistribute support forces after one foot is briefly lifted even when all feet return to their marked positions.","prediction":"A flexible tripod should redistribute support forces after one foot is briefly lifted even when all feet return to their marked positions.","test":"Measure benign low-load supports and foot contact patches.","contrary":"Original load fractions return with original positions.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0766","hypothesis":"A flexible tripod should redistribute support forces after one foot is briefly lifted even when all feet return to their marked positions.","prediction":"A flexible tripod should redistribute support forces after one foot is briefly lifted even when all feet return to their marked positions.","test":"Measure benign low-load supports and foot contact patches.","contrary_outcome":"Original load fractions return with original positions.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0767","id":"S7-0767","volume":"900v7","title":"A thin paper ring should twist under axisymmetric compression when one seam can slide.","prediction":"A thin paper ring should twist under axisymmetric compression when one seam can slide.","test":"Measure low-energy shape with locked-seam and seamless controls.","contrary":"Twist requires asymmetric external loading.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0767","hypothesis":"A thin paper ring should twist under axisymmetric compression when one seam can slide.","prediction":"A thin paper ring should twist under axisymmetric compression when one seam can slide.","test":"Measure low-energy shape with locked-seam and seamless controls.","contrary_outcome":"Twist requires asymmetric external loading.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0768","id":"S7-0768","volume":"900v7","title":"A soft wedge should show an intermediate loading-rate minimum in insertion work.","prediction":"A soft wedge should show an intermediate loading-rate minimum in insertion work.","test":"Measure benign force-displacement curves with thermal and friction controls.","contrary":"Work changes monotonically with loading rate.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0768","hypothesis":"A soft wedge should show an intermediate loading-rate minimum in insertion work.","prediction":"A soft wedge should show an intermediate loading-rate minimum in insertion work.","test":"Measure benign force-displacement curves with thermal and friction controls.","contrary_outcome":"Work changes monotonically with loading rate.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0768","hypothesis":"A soft wedge should show an intermediate loading-rate minimum in insertion work.","prediction":"A soft wedge should show an intermediate loading-rate minimum in insertion work.","test":"Measure benign force-displacement curves with thermal and friction controls.","contrary_outcome":"Work changes monotonically with loading rate.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0769","id":"S7-0769","volume":"900v7","title":"A prestressed membrane should release stored energy into a remote fold before its loading point moves after unclamping.","prediction":"A prestressed membrane should release stored energy into a remote fold before its loading point moves after unclamping.","test":"Track high-speed low-energy motion with independent release timing.","contrary":"Motion always begins at the loading point.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0769","hypothesis":"A prestressed membrane should release stored energy into a remote fold before its loading point moves after unclamping.","prediction":"A prestressed membrane should release stored energy into a remote fold before its loading point moves after unclamping.","test":"Track high-speed low-energy motion with independent release timing.","contrary_outcome":"Motion always begins at the loading point.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0770","id":"S7-0770","volume":"900v7","title":"A compliant hinge pair should recover in the same order after opposite loading sequences if their relaxation times are widely separated.","prediction":"A compliant hinge pair should recover in the same order after opposite loading sequences if their relaxation times are widely separated.","test":"Measure benign hinges with independently calibrated recovery times.","contrary":"Recovery always reverses the loading order.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0770","hypothesis":"A compliant hinge pair should recover in the same order after opposite loading sequences if their relaxation times are widely separated.","prediction":"A compliant hinge pair should recover in the same order after opposite loading sequences if their relaxation times are widely separated.","test":"Measure benign hinges with independently calibrated recovery times.","contrary_outcome":"Recovery always reverses the loading order.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0771","id":"S7-0771","volume":"900v7","title":"A water-wetted friction joint should change its mechanical noise before its mean slip force changes.","prediction":"A water-wetted friction joint should change its mechanical noise before its mean slip force changes.","test":"Measure low-force cycles with synchronized contact imaging.","contrary":"Noise changes only after mean-force changes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0771","hypothesis":"A water-wetted friction joint should change its mechanical noise before its mean slip force changes.","prediction":"A water-wetted friction joint should change its mechanical noise before its mean slip force changes.","test":"Measure low-force cycles with synchronized contact imaging.","contrary_outcome":"Noise changes only after mean-force changes.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0772","id":"S7-0772","volume":"900v7","title":"A patterned soft contact should develop a pressure maximum at a previously unloaded island during a fixed-load hold.","prediction":"A patterned soft contact should develop a pressure maximum at a previously unloaded island during a fixed-load hold.","test":"Map benign contact pressure and local displacement.","contrary":"Every island pressure decays or stays constant.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0772","hypothesis":"A patterned soft contact should develop a pressure maximum at a previously unloaded island during a fixed-load hold.","prediction":"A patterned soft contact should develop a pressure maximum at a previously unloaded island during a fixed-load hold.","test":"Map benign contact pressure and local displacement.","contrary_outcome":"Every island pressure decays or stays constant.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0773","id":"S7-0773","volume":"900v7","title":"A folded beam should reveal a hidden sliding contact through different responses to symmetric and antisymmetric weak excitation.","prediction":"A folded beam should reveal a hidden sliding contact through different responses to symmetric and antisymmetric weak excitation.","test":"Validate concealed contact states with independent microscopy.","contrary":"Responses differ only through overall stiffness.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0773","hypothesis":"A folded beam should reveal a hidden sliding contact through different responses to symmetric and antisymmetric weak excitation.","prediction":"A folded beam should reveal a hidden sliding contact through different responses to symmetric and antisymmetric weak excitation.","test":"Validate concealed contact states with independent microscopy.","contrary_outcome":"Responses differ only through overall stiffness.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0774","id":"S7-0774","volume":"900v7","title":"A thin adhesive layer should transmit a short pulse farther after partial debonding if the remaining path becomes more continuous.","prediction":"A thin adhesive layer should transmit a short pulse farther after partial debonding if the remaining path becomes more continuous.","test":"Map benign interfaces, gentle pulses, and bonded geometry.","contrary":"Propagation distance decreases monotonically with debonded area.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0774","hypothesis":"A thin adhesive layer should transmit a short pulse farther after partial debonding if the remaining path becomes more continuous.","prediction":"A thin adhesive layer should transmit a short pulse farther after partial debonding if the remaining path becomes more continuous.","test":"Map benign interfaces, gentle pulses, and bonded geometry.","contrary_outcome":"Propagation distance decreases monotonically with debonded area.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0775","id":"S7-0775","volume":"900v7","title":"A porous pad should exhibit different compression noise when air exits through its sides versus its bottom at equal mean force.","prediction":"A porous pad should exhibit different compression noise when air exits through its sides versus its bottom at equal mean force.","test":"Measure low-pressure air flow and mechanical spectra.","contrary":"Noise depends only on total airflow and mean force.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0775","hypothesis":"A porous pad should exhibit different compression noise when air exits through its sides versus its bottom at equal mean force.","prediction":"A porous pad should exhibit different compression noise when air exits through its sides versus its bottom at equal mean force.","test":"Measure low-pressure air flow and mechanical spectra.","contrary_outcome":"Noise depends only on total airflow and mean force.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0776","id":"S7-0776","volume":"900v7","title":"A soft knot should release stored torsion in separate steps after one end is freed.","prediction":"A soft knot should release stored torsion in separate steps after one end is freed.","test":"Track benign low-energy cords and contact slips.","contrary":"Torsion relaxes smoothly without discrete correlated slips.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0776","hypothesis":"A soft knot should release stored torsion in separate steps after one end is freed.","prediction":"A soft knot should release stored torsion in separate steps after one end is freed.","test":"Track benign low-energy cords and contact slips.","contrary_outcome":"Torsion relaxes smoothly without discrete correlated slips.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0777","id":"S7-0777","volume":"900v7","title":"A flexible ring touching three supports should lose one contact and gain another during slow uniform warming.","prediction":"A flexible ring touching three supports should lose one contact and gain another during slow uniform warming.","test":"Measure modest temperature, ring shape, and support forces.","contrary":"Contact topology remains unchanged during uniform expansion.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0777","hypothesis":"A flexible ring touching three supports should lose one contact and gain another during slow uniform warming.","prediction":"A flexible ring touching three supports should lose one contact and gain another during slow uniform warming.","test":"Measure modest temperature, ring shape, and support forces.","contrary_outcome":"Contact topology remains unchanged during uniform expansion.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0778","id":"S7-0778","volume":"900v7","title":"A dry fiber bundle should show a delayed transverse contraction after axial force reaches its steady value.","prediction":"A dry fiber bundle should show a delayed transverse contraction after axial force reaches its steady value.","test":"Measure benign fibers with local force and shape maps.","contrary":"Transverse strain stabilizes with axial force.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0778","hypothesis":"A dry fiber bundle should show a delayed transverse contraction after axial force reaches its steady value.","prediction":"A dry fiber bundle should show a delayed transverse contraction after axial force reaches its steady value.","test":"Measure benign fibers with local force and shape maps.","contrary_outcome":"Transverse strain stabilizes with axial force.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0779","id":"S7-0779","volume":"900v7","title":"A shallow mechanical pocket should retain a rolling object more strongly after a brief vibration that leaves its visible position unchanged.","prediction":"A shallow mechanical pocket should retain a rolling object more strongly after a brief vibration that leaves its visible position unchanged.","test":"Measure low-energy escape thresholds and microscopic contact poses.","contrary":"Retention depends only on visible position and pocket geometry.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0779","hypothesis":"A shallow mechanical pocket should retain a rolling object more strongly after a brief vibration that leaves its visible position unchanged.","prediction":"A shallow mechanical pocket should retain a rolling object more strongly after a brief vibration that leaves its visible position unchanged.","test":"Measure low-energy escape thresholds and microscopic contact poses.","contrary_outcome":"Retention depends only on visible position and pocket geometry.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0780","id":"S7-0780","volume":"900v7","title":"A compliant frame should retain different local stiffness after equal work is applied through one point versus distributed points.","prediction":"A compliant frame should retain different local stiffness after equal work is applied through one point versus distributed points.","test":"Map low-force stiffness and contact states after full unloading.","contrary":"Recovered stiffness depends only on total input work.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0780","hypothesis":"A compliant frame should retain different local stiffness after equal work is applied through one point versus distributed points.","prediction":"A compliant frame should retain different local stiffness after equal work is applied through one point versus distributed points.","test":"Map low-force stiffness and contact states after full unloading.","contrary_outcome":"Recovered stiffness depends only on total input work.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0781","id":"S7-0781","volume":"900v7","title":"A gel-filled pore should transmit a concentration pulse differently after shear that leaves its hydraulic conductance unchanged.","prediction":"A gel-filled pore should transmit a concentration pulse differently after shear that leaves its hydraulic conductance unchanged.","test":"Use benign tracers with independent binding and pore-geometry checks.","contrary":"Transport recovers whenever conductance recovers.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0781","hypothesis":"A gel-filled pore should transmit a concentration pulse differently after shear that leaves its hydraulic conductance unchanged.","prediction":"A gel-filled pore should transmit a concentration pulse differently after shear that leaves its hydraulic conductance unchanged.","test":"Use benign tracers with independent binding and pore-geometry checks.","contrary_outcome":"Transport recovers whenever conductance recovers.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0782","id":"S7-0782","volume":"900v7","title":"A dissolving salt grain should leave a persistent low-permeability cavity if surrounding soft particles collapse into its space.","prediction":"A dissolving salt grain should leave a persistent low-permeability cavity if surrounding soft particles collapse into its space.","test":"Image benign mixed beds and measure low-head flow.","contrary":"Permeability always increases with lost solid volume.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0782","hypothesis":"A dissolving salt grain should leave a persistent low-permeability cavity if surrounding soft particles collapse into its space.","prediction":"A dissolving salt grain should leave a persistent low-permeability cavity if surrounding soft particles collapse into its space.","test":"Image benign mixed beds and measure low-head flow.","contrary_outcome":"Permeability always increases with lost solid volume.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0783","id":"S7-0783","volume":"900v7","title":"A thin soluble film should dissolve faster beneath a moving contact line than a stationary one at equal water exposure.","prediction":"A thin soluble film should dissolve faster beneath a moving contact line than a stationary one at equal water exposure.","test":"Measure benign films with local thickness and contact-line speed.","contrary":"Dissolution follows exposure duration only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0783","hypothesis":"A thin soluble film should dissolve faster beneath a moving contact line than a stationary one at equal water exposure.","prediction":"A thin soluble film should dissolve faster beneath a moving contact line than a stationary one at equal water exposure.","test":"Measure benign films with local thickness and contact-line speed.","contrary_outcome":"Dissolution follows exposure duration only.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0784","id":"S7-0784","volume":"900v7","title":"A layered adsorbent should release a tracer in reversed spatial order after a short pressure hold.","prediction":"A layered adsorbent should release a tracer in reversed spatial order after a short pressure hold.","test":"Use benign validated dye pairs with depth sampling and expelled-water balance.","contrary":"Release order depends only on initial concentration.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0784","hypothesis":"A layered adsorbent should release a tracer in reversed spatial order after a short pressure hold.","prediction":"A layered adsorbent should release a tracer in reversed spatial order after a short pressure hold.","test":"Use benign validated dye pairs with depth sampling and expelled-water balance.","contrary_outcome":"Release order depends only on initial concentration.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0785","id":"S7-0785","volume":"900v7","title":"A drying gel should retain different internal dye patterns after equal overall shrinkage reached through fast and slow boundary drying.","prediction":"A drying gel should retain different internal dye patterns after equal overall shrinkage reached through fast and slow boundary drying.","test":"Map benign gels with independent three-dimensional concentration.","contrary":"Patterns depend only on final shrinkage.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0785","hypothesis":"A drying gel should retain different internal dye patterns after equal overall shrinkage reached through fast and slow boundary drying.","prediction":"A drying gel should retain different internal dye patterns after equal overall shrinkage reached through fast and slow boundary drying.","test":"Map benign gels with independent three-dimensional concentration.","contrary_outcome":"Patterns depend only on final shrinkage.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0786","id":"S7-0786","volume":"900v7","title":"A mineral-coated flexible fiber should shed deposits preferentially on its concave side during low-amplitude bending.","prediction":"A mineral-coated flexible fiber should shed deposits preferentially on its concave side during low-amplitude bending.","test":"Measure benign calcium-carbonate deposits and local strain.","contrary":"Deposit loss follows strain magnitude without side preference.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0786","hypothesis":"A mineral-coated flexible fiber should shed deposits preferentially on its concave side during low-amplitude bending.","prediction":"A mineral-coated flexible fiber should shed deposits preferentially on its concave side during low-amplitude bending.","test":"Measure benign calcium-carbonate deposits and local strain.","contrary_outcome":"Deposit loss follows strain magnitude without side preference.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0787","id":"S7-0787","volume":"900v7","title":"A partially dissolved sugar joint should temporarily become more compliant without a proportional loss in peak load capacity.","prediction":"A partially dissolved sugar joint should temporarily become more compliant without a proportional loss in peak load capacity.","test":"Use low-energy benign joints with geometry and small-load tests.","contrary":"Compliance and strength track remaining cross-section proportionally.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0787","hypothesis":"A partially dissolved sugar joint should temporarily become more compliant without a proportional loss in peak load capacity.","prediction":"A partially dissolved sugar joint should temporarily become more compliant without a proportional loss in peak load capacity.","test":"Use low-energy benign joints with geometry and small-load tests.","contrary_outcome":"Compliance and strength track remaining cross-section proportionally.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0788","id":"S7-0788","volume":"900v7","title":"A porous gel's surface charge proxy should recover after washing on a different timescale from its tracer-binding capacity.","prediction":"A porous gel's surface charge proxy should recover after washing on a different timescale from its tracer-binding capacity.","test":"Use low-voltage benign saline measurements and independent adsorption tests.","contrary":"Both observables recover together after concentration correction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0788","hypothesis":"A porous gel's surface charge proxy should recover after washing on a different timescale from its tracer-binding capacity.","prediction":"A porous gel's surface charge proxy should recover after washing on a different timescale from its tracer-binding capacity.","test":"Use low-voltage benign saline measurements and independent adsorption tests.","contrary_outcome":"Both observables recover together after concentration correction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0789","id":"S7-0789","volume":"900v7","title":"A shallow recess should retain soluble material longer when periodically flushed than continuously flushed at equal total volume.","prediction":"A shallow recess should retain soluble material longer when periodically flushed than continuously flushed at equal total volume.","test":"Measure benign sugar deposits and local water exchange.","contrary":"Retention depends only on total water throughput.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0789","hypothesis":"A shallow recess should retain soluble material longer when periodically flushed than continuously flushed at equal total volume.","prediction":"A shallow recess should retain soluble material longer when periodically flushed than continuously flushed at equal total volume.","test":"Measure benign sugar deposits and local water exchange.","contrary_outcome":"Retention depends only on total water throughput.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0790","id":"S7-0790","volume":"900v7","title":"A closed gel interface should transmit small molecules before it transmits low-head bulk water.","prediction":"A closed gel interface should transmit small molecules before it transmits low-head bulk water.","test":"Use benign size-calibrated dyes and independent flow detection.","contrary":"Tracer arrival begins only with detectable bulk flow.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0790","hypothesis":"A closed gel interface should transmit small molecules before it transmits low-head bulk water.","prediction":"A closed gel interface should transmit small molecules before it transmits low-head bulk water.","test":"Use benign size-calibrated dyes and independent flow detection.","contrary_outcome":"Tracer arrival begins only with detectable bulk flow.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0791","id":"S7-0791","volume":"900v7","title":"A salt crust should grow a hollow underside pocket when evaporation is strongest away from its visible edge.","prediction":"A salt crust should grow a hollow underside pocket when evaporation is strongest away from its visible edge.","test":"Map benign crystallization with underside and top imaging.","contrary":"Pocket location follows exposed edge geometry alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0791","hypothesis":"A salt crust should grow a hollow underside pocket when evaporation is strongest away from its visible edge.","prediction":"A salt crust should grow a hollow underside pocket when evaporation is strongest away from its visible edge.","test":"Map benign crystallization with underside and top imaging.","contrary_outcome":"Pocket location follows exposed edge geometry alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0792","id":"S7-0792","volume":"900v7","title":"A porous thread should release tracer from its center before its ends after a brief local compression.","prediction":"A porous thread should release tracer from its center before its ends after a brief local compression.","test":"Measure benign dyed water and distributed concentration.","contrary":"Release follows nearest outlet distance only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0792","hypothesis":"A porous thread should release tracer from its center before its ends after a brief local compression.","prediction":"A porous thread should release tracer from its center before its ends after a brief local compression.","test":"Measure benign dyed water and distributed concentration.","contrary_outcome":"Release follows nearest outlet distance only.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0793","id":"S7-0793","volume":"900v7","title":"A prewetted adsorbent should show less irreversible tracer retention than a dry adsorbent at equal final moisture.","prediction":"A prewetted adsorbent should show less irreversible tracer retention than a dry adsorbent at equal final moisture.","test":"Use benign validated tracers with complete washout and mass balance.","contrary":"Retention depends only on final water and dose.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0793","hypothesis":"A prewetted adsorbent should show less irreversible tracer retention than a dry adsorbent at equal final moisture.","prediction":"A prewetted adsorbent should show less irreversible tracer retention than a dry adsorbent at equal final moisture.","test":"Use benign validated tracers with complete washout and mass balance.","contrary_outcome":"Retention depends only on final water and dose.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0794","id":"S7-0794","volume":"900v7","title":"A thin gel should develop a lateral concentration gradient after uniform drying if one edge can slide and the other cannot.","prediction":"A thin gel should develop a lateral concentration gradient after uniform drying if one edge can slide and the other cannot.","test":"Map benign strain, water, and tracer concentration.","contrary":"Concentration remains laterally uniform at matched thickness.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0794","hypothesis":"A thin gel should develop a lateral concentration gradient after uniform drying if one edge can slide and the other cannot.","prediction":"A thin gel should develop a lateral concentration gradient after uniform drying if one edge can slide and the other cannot.","test":"Map benign strain, water, and tracer concentration.","contrary_outcome":"Concentration remains laterally uniform at matched thickness.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0795","id":"S7-0795","volume":"900v7","title":"A benign mineral deposit should alter a channel's pressure noise before its mean hydraulic resistance changes.","prediction":"A benign mineral deposit should alter a channel's pressure noise before its mean hydraulic resistance changes.","test":"Measure low-head water, deposit images, and sensor noise controls.","contrary":"Noise increases only with mean resistance.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0795","hypothesis":"A benign mineral deposit should alter a channel's pressure noise before its mean hydraulic resistance changes.","prediction":"A benign mineral deposit should alter a channel's pressure noise before its mean hydraulic resistance changes.","test":"Measure low-head water, deposit images, and sensor noise controls.","contrary_outcome":"Noise increases only with mean resistance.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0796","id":"S7-0796","volume":"900v7","title":"A trapped saline pocket should freshen faster after small shape oscillations even when the mean boundary is stationary.","prediction":"A trapped saline pocket should freshen faster after small shape oscillations even when the mean boundary is stationary.","test":"Use benign water cells with measured flow and diffusion controls.","contrary":"Exchange depends only on mean pocket geometry.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0796","hypothesis":"A trapped saline pocket should freshen faster after small shape oscillations even when the mean boundary is stationary.","prediction":"A trapped saline pocket should freshen faster after small shape oscillations even when the mean boundary is stationary.","test":"Use benign water cells with measured flow and diffusion controls.","contrary_outcome":"Exchange depends only on mean pocket geometry.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0797","id":"S7-0797","volume":"900v7","title":"A dissolving porous pellet should show a temporary rise in discharge concentration after mechanical load is removed.","prediction":"A dissolving porous pellet should show a temporary rise in discharge concentration after mechanical load is removed.","test":"Measure benign sugar pellets, expelled water, and local strain.","contrary":"Concentration follows dissolution area alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0797","hypothesis":"A dissolving porous pellet should show a temporary rise in discharge concentration after mechanical load is removed.","prediction":"A dissolving porous pellet should show a temporary rise in discharge concentration after mechanical load is removed.","test":"Measure benign sugar pellets, expelled water, and local strain.","contrary_outcome":"Concentration follows dissolution area alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0798","id":"S7-0798","volume":"900v7","title":"A layered gel should retain a concentration overshoot after an external pulse returns to baseline if its interface binds tracer reversibly.","prediction":"A layered gel should retain a concentration overshoot after an external pulse returns to baseline if its interface binds tracer reversibly.","test":"Use benign validated dye binding and independent layer measurements.","contrary":"All local concentrations decay monotonically after pulse removal.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0798","hypothesis":"A layered gel should retain a concentration overshoot after an external pulse returns to baseline if its interface binds tracer reversibly.","prediction":"A layered gel should retain a concentration overshoot after an external pulse returns to baseline if its interface binds tracer reversibly.","test":"Use benign validated dye binding and independent layer measurements.","contrary_outcome":"All local concentrations decay monotonically after pulse removal.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0799","id":"S7-0799","volume":"900v7","title":"A rough soluble surface should become optically smoother before its true surface area decreases substantially.","prediction":"A rough soluble surface should become optically smoother before its true surface area decreases substantially.","test":"Compare benign salt profilometry, area reconstruction, and images.","contrary":"Optical smoothness tracks true area monotonically.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0799","hypothesis":"A rough soluble surface should become optically smoother before its true surface area decreases substantially.","prediction":"A rough soluble surface should become optically smoother before its true surface area decreases substantially.","test":"Compare benign salt profilometry, area reconstruction, and images.","contrary_outcome":"Optical smoothness tracks true area monotonically.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0800","id":"S7-0800","volume":"900v7","title":"A partially hydrated fiber mat should take up a second water pulse less uniformly after an intermediate drying pause.","prediction":"A partially hydrated fiber mat should take up a second water pulse less uniformly after an intermediate drying pause.","test":"Measure benign cellulose moisture maps and equal-dose controls.","contrary":"Uniformity depends only on total retained water.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0800","hypothesis":"A partially hydrated fiber mat should take up a second water pulse less uniformly after an intermediate drying pause.","prediction":"A partially hydrated fiber mat should take up a second water pulse less uniformly after an intermediate drying pause.","test":"Measure benign cellulose moisture maps and equal-dose controls.","contrary_outcome":"Uniformity depends only on total retained water.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0801","id":"S7-0801","volume":"900v7","title":"A weakly confined gel inclusion should rotate during tracer uptake if swelling is anisotropic despite isotropic external concentration.","prediction":"A weakly confined gel inclusion should rotate during tracer uptake if swelling is anisotropic despite isotropic external concentration.","test":"Track benign inclusion shape and independent swelling tensors.","contrary":"Rotation requires an external concentration gradient.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0801","hypothesis":"A weakly confined gel inclusion should rotate during tracer uptake if swelling is anisotropic despite isotropic external concentration.","prediction":"A weakly confined gel inclusion should rotate during tracer uptake if swelling is anisotropic despite isotropic external concentration.","test":"Track benign inclusion shape and independent swelling tensors.","contrary_outcome":"Rotation requires an external concentration gradient.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0802","id":"S7-0802","volume":"900v7","title":"A small water-filled cut should delay crack reopening in a drying gel relative to an equally humid unfilled cut.","prediction":"A small water-filled cut should delay crack reopening in a drying gel relative to an equally humid unfilled cut.","test":"Measure benign films with local moisture and gap imaging.","contrary":"Reopening depends only on surrounding humidity.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0802","hypothesis":"A small water-filled cut should delay crack reopening in a drying gel relative to an equally humid unfilled cut.","prediction":"A small water-filled cut should delay crack reopening in a drying gel relative to an equally humid unfilled cut.","test":"Measure benign films with local moisture and gap imaging.","contrary_outcome":"Reopening depends only on surrounding humidity.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0803","id":"S7-0803","volume":"900v7","title":"A soluble bridge should fail at its thicker end if that end constrains swelling more strongly.","prediction":"A soluble bridge should fail at its thicker end if that end constrains swelling more strongly.","test":"Use guarded low-load benign sugar-gel models with strain maps.","contrary":"Failure always follows minimum cross-section.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0803","hypothesis":"A soluble bridge should fail at its thicker end if that end constrains swelling more strongly.","prediction":"A soluble bridge should fail at its thicker end if that end constrains swelling more strongly.","test":"Use guarded low-load benign sugar-gel models with strain maps.","contrary_outcome":"Failure always follows minimum cross-section.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0804","id":"S7-0804","volume":"900v7","title":"A porous film should pass a tracer pulse more narrowly after a brief reverse flush than a forward flush of equal volume.","prediction":"A porous film should pass a tracer pulse more narrowly after a brief reverse flush than a forward flush of equal volume.","test":"Measure benign dye breakthroughs and pore occupancy.","contrary":"Pulse width depends only on total flushed volume.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0804","hypothesis":"A porous film should pass a tracer pulse more narrowly after a brief reverse flush than a forward flush of equal volume.","prediction":"A porous film should pass a tracer pulse more narrowly after a brief reverse flush than a forward flush of equal volume.","test":"Measure benign dye breakthroughs and pore occupancy.","contrary_outcome":"Pulse width depends only on total flushed volume.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0805","id":"S7-0805","volume":"900v7","title":"A salt-bearing foam should develop electrically disconnected wet regions before it loses mechanical continuity.","prediction":"A salt-bearing foam should develop electrically disconnected wet regions before it loses mechanical continuity.","test":"Use low-current maps and low-load force tests with water imaging.","contrary":"Electrical and mechanical connectivity fail together.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0805","hypothesis":"A salt-bearing foam should develop electrically disconnected wet regions before it loses mechanical continuity.","prediction":"A salt-bearing foam should develop electrically disconnected wet regions before it loses mechanical continuity.","test":"Use low-current maps and low-load force tests with water imaging.","contrary_outcome":"Electrical and mechanical connectivity fail together.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0806","id":"S7-0806","volume":"900v7","title":"A gel's visible dye boundary should move against measured bulk water motion when reversible adsorption dominates locally.","prediction":"A gel's visible dye boundary should move against measured bulk water motion when reversible adsorption dominates locally.","test":"Measure benign validated tracers and independent water velocities.","contrary":"All front movement follows local water advection.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0806","hypothesis":"A gel's visible dye boundary should move against measured bulk water motion when reversible adsorption dominates locally.","prediction":"A gel's visible dye boundary should move against measured bulk water motion when reversible adsorption dominates locally.","test":"Measure benign validated tracers and independent water velocities.","contrary_outcome":"All front movement follows local water advection.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0807","id":"S7-0807","volume":"900v7","title":"A thin coating should retain an adsorption memory of its first contact side after full visible wetting.","prediction":"A thin coating should retain an adsorption memory of its first contact side after full visible wetting.","test":"Use benign tracer coatings with equal exposure and depth sampling.","contrary":"Binding depends only on final dose and water content.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0807","hypothesis":"A thin coating should retain an adsorption memory of its first contact side after full visible wetting.","prediction":"A thin coating should retain an adsorption memory of its first contact side after full visible wetting.","test":"Use benign tracer coatings with equal exposure and depth sampling.","contrary_outcome":"Binding depends only on final dose and water content.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0808","id":"S7-0808","volume":"900v7","title":"A small concentration pulse should trigger a moving swelling wave in a constrained gel after the pulse itself has passed.","prediction":"A small concentration pulse should trigger a moving swelling wave in a constrained gel after the pulse itself has passed.","test":"Measure benign gels with independent concentration and strain maps.","contrary":"Swelling maxima coincide with local concentration maxima.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0808","hypothesis":"A small concentration pulse should trigger a moving swelling wave in a constrained gel after the pulse itself has passed.","prediction":"A small concentration pulse should trigger a moving swelling wave in a constrained gel after the pulse itself has passed.","test":"Measure benign gels with independent concentration and strain maps.","contrary_outcome":"Swelling maxima coincide with local concentration maxima.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0809","id":"S7-0809","volume":"900v7","title":"A dissolving inclusion should change the direction of a nearby crack before its cavity reaches the crack tip.","prediction":"A dissolving inclusion should change the direction of a nearby crack before its cavity reaches the crack tip.","test":"Use guarded low-energy benign gel models and cavity imaging.","contrary":"Crack direction changes only at direct cavity contact.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0809","hypothesis":"A dissolving inclusion should change the direction of a nearby crack before its cavity reaches the crack tip.","prediction":"A dissolving inclusion should change the direction of a nearby crack before its cavity reaches the crack tip.","test":"Use guarded low-energy benign gel models and cavity imaging.","contrary_outcome":"Crack direction changes only at direct cavity contact.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0810","id":"S7-0810","volume":"900v7","title":"A porous salt bridge should regain conductance before its original water mass after rewetting.","prediction":"A porous salt bridge should regain conductance before its original water mass after rewetting.","test":"Measure low-voltage response, mass, and liquid connectivity.","contrary":"Conductance follows total water mass alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0810","hypothesis":"A porous salt bridge should regain conductance before its original water mass after rewetting.","prediction":"A porous salt bridge should regain conductance before its original water mass after rewetting.","test":"Measure low-voltage response, mass, and liquid connectivity.","contrary_outcome":"Conductance follows total water mass alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0811","id":"S7-0811","volume":"900v7","title":"A capillary collector should preserve a record of droplet arrival order in its internal liquid segmentation.","prediction":"A capillary collector should preserve a record of droplet arrival order in its internal liquid segmentation.","test":"Use clean-water droplets with benign optical labels and full mass balance.","contrary":"Segmentation depends only on total collected volume.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0811","hypothesis":"A capillary collector should preserve a record of droplet arrival order in its internal liquid segmentation.","prediction":"A capillary collector should preserve a record of droplet arrival order in its internal liquid segmentation.","test":"Use clean-water droplets with benign optical labels and full mass balance.","contrary_outcome":"Segmentation depends only on total collected volume.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0811","hypothesis":"A capillary collector should preserve a record of droplet arrival order in its internal liquid segmentation.","prediction":"A capillary collector should preserve a record of droplet arrival order in its internal liquid segmentation.","test":"Use clean-water droplets with benign optical labels and full mass balance.","contrary_outcome":"Segmentation depends only on total collected volume.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0812","id":"S7-0812","volume":"900v7","title":"A soft pressure reservoir should amplify one narrow band of input fluctuations while damping lower and higher bands.","prediction":"A soft pressure reservoir should amplify one narrow band of input fluctuations while damping lower and higher bands.","test":"Measure low-pressure transfer functions and wall motion.","contrary":"Attenuation changes monotonically with frequency.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0812","hypothesis":"A soft pressure reservoir should amplify one narrow band of input fluctuations while damping lower and higher bands.","prediction":"A soft pressure reservoir should amplify one narrow band of input fluctuations while damping lower and higher bands.","test":"Measure low-pressure transfer functions and wall motion.","contrary_outcome":"Attenuation changes monotonically with frequency.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0813","id":"S7-0813","volume":"900v7","title":"A narrow split outlet should route particles by their position within an incoming pulse rather than particle size alone.","prediction":"A narrow split outlet should route particles by their position within an incoming pulse rather than particle size alone.","test":"Track inert particles, local flow, and timed outlet fractions.","contrary":"Routing depends only on size and mean flow split.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0813","hypothesis":"A narrow split outlet should route particles by their position within an incoming pulse rather than particle size alone.","prediction":"A narrow split outlet should route particles by their position within an incoming pulse rather than particle size alone.","test":"Track inert particles, local flow, and timed outlet fractions.","contrary_outcome":"Routing depends only on size and mean flow split.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0814","id":"S7-0814","volume":"900v7","title":"A water-filled compliant ring should develop a temporary circulating flow after a local squeeze is released.","prediction":"A water-filled compliant ring should develop a temporary circulating flow after a local squeeze is released.","test":"Measure full velocity and wall shape with symmetric squeeze controls.","contrary":"Flow stops as soon as wall motion stops.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0814","hypothesis":"A water-filled compliant ring should develop a temporary circulating flow after a local squeeze is released.","prediction":"A water-filled compliant ring should develop a temporary circulating flow after a local squeeze is released.","test":"Measure full velocity and wall shape with symmetric squeeze controls.","contrary_outcome":"Flow stops as soon as wall motion stops.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0815","id":"S7-0815","volume":"900v7","title":"A shallow water cavity should retain two stable recirculation patterns at the same forcing after opposite startup sequences.","prediction":"A shallow water cavity should retain two stable recirculation patterns at the same forcing after opposite startup sequences.","test":"Map low-speed flow with repeated symmetric initialization.","contrary":"Only one stationary pattern survives.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0815","hypothesis":"A shallow water cavity should retain two stable recirculation patterns at the same forcing after opposite startup sequences.","prediction":"A shallow water cavity should retain two stable recirculation patterns at the same forcing after opposite startup sequences.","test":"Map low-speed flow with repeated symmetric initialization.","contrary_outcome":"Only one stationary pattern survives.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0816","id":"S7-0816","volume":"900v7","title":"A gas-permeable but water-blocking wall should shorten trapped-bubble clearance without changing channel shape.","prediction":"A gas-permeable but water-blocking wall should shorten trapped-bubble clearance without changing channel shape.","test":"Measure low-pressure bubble volume and independent gas loss.","contrary":"Clearance requires liquid leakage or geometric change.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0816","hypothesis":"A gas-permeable but water-blocking wall should shorten trapped-bubble clearance without changing channel shape.","prediction":"A gas-permeable but water-blocking wall should shorten trapped-bubble clearance without changing channel shape.","test":"Measure low-pressure bubble volume and independent gas loss.","contrary_outcome":"Clearance requires liquid leakage or geometric change.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0817","id":"S7-0817","volume":"900v7","title":"A porous side branch should release a late particle burst after the main flow weakens.","prediction":"A porous side branch should release a late particle burst after the main flow weakens.","test":"Track inert particles and branch pressure with settling controls.","contrary":"Particle release increases only when main flow strengthens.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0817","hypothesis":"A porous side branch should release a late particle burst after the main flow weakens.","prediction":"A porous side branch should release a late particle burst after the main flow weakens.","test":"Track inert particles and branch pressure with settling controls.","contrary_outcome":"Particle release increases only when main flow strengthens.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0818","id":"S7-0818","volume":"900v7","title":"A small flexible lip should make droplet shedding intervals more regular while leaving mean discharged volume similar.","prediction":"A small flexible lip should make droplet shedding intervals more regular while leaving mean discharged volume similar.","test":"Measure clean-water drops, lip motion, and fixed-lip controls.","contrary":"Interval regularity follows only mean flow.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0818","hypothesis":"A small flexible lip should make droplet shedding intervals more regular while leaving mean discharged volume similar.","prediction":"A small flexible lip should make droplet shedding intervals more regular while leaving mean discharged volume similar.","test":"Measure clean-water drops, lip motion, and fixed-lip controls.","contrary_outcome":"Interval regularity follows only mean flow.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0819","id":"S7-0819","volume":"900v7","title":"A shallow fluid pocket should exchange more tracer during slow oscillation when one wall is rough than when both are smooth at equal resistance.","prediction":"A shallow fluid pocket should exchange more tracer during slow oscillation when one wall is rough than when both are smooth at equal resistance.","test":"Measure benign dye and full velocity fields.","contrary":"Resistance alone predicts exchange.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0819","hypothesis":"A shallow fluid pocket should exchange more tracer during slow oscillation when one wall is rough than when both are smooth at equal resistance.","prediction":"A shallow fluid pocket should exchange more tracer during slow oscillation when one wall is rough than when both are smooth at equal resistance.","test":"Measure benign dye and full velocity fields.","contrary_outcome":"Resistance alone predicts exchange.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0820","id":"S7-0820","volume":"900v7","title":"A suspended water-filled loop should change its mechanical damping after air moves between its two upper pockets.","prediction":"A suspended water-filled loop should change its mechanical damping after air moves between its two upper pockets.","test":"Track low-energy loop motion and air distribution.","contrary":"Damping depends only on total gas volume.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0820","hypothesis":"A suspended water-filled loop should change its mechanical damping after air moves between its two upper pockets.","prediction":"A suspended water-filled loop should change its mechanical damping after air moves between its two upper pockets.","test":"Track low-energy loop motion and air distribution.","contrary_outcome":"Damping depends only on total gas volume.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0821","id":"S7-0821","volume":"900v7","title":"A soft diffuser should retain a changed jet spreading angle after a brief pressure pulse even when its outlet width recovers.","prediction":"A soft diffuser should retain a changed jet spreading angle after a brief pressure pulse even when its outlet width recovers.","test":"Measure low-head water, internal shape, and velocity.","contrary":"Spreading angle is fixed by recovered outlet width.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0821","hypothesis":"A soft diffuser should retain a changed jet spreading angle after a brief pressure pulse even when its outlet width recovers.","prediction":"A soft diffuser should retain a changed jet spreading angle after a brief pressure pulse even when its outlet width recovers.","test":"Measure low-head water, internal shape, and velocity.","contrary_outcome":"Spreading angle is fixed by recovered outlet width.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0822","id":"S7-0822","volume":"900v7","title":"A moving water meniscus should carry a pressure fluctuation upstream faster than its visible contact line moves.","prediction":"A moving water meniscus should carry a pressure fluctuation upstream faster than its visible contact line moves.","test":"Measure low-pressure sensors and high-speed interface positions.","contrary":"All fluctuations travel with the contact line.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0822","hypothesis":"A moving water meniscus should carry a pressure fluctuation upstream faster than its visible contact line moves.","prediction":"A moving water meniscus should carry a pressure fluctuation upstream faster than its visible contact line moves.","test":"Measure low-pressure sensors and high-speed interface positions.","contrary_outcome":"All fluctuations travel with the contact line.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0823","id":"S7-0823","volume":"900v7","title":"A porous bed should release trapped bubbles more efficiently under unequal reciprocal flow strokes with zero net volume.","prediction":"A porous bed should release trapped bubbles more efficiently under unequal reciprocal flow strokes with zero net volume.","test":"Compare benign water-air models at matched absolute throughput.","contrary":"Release depends only on net or absolute throughput.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0823","hypothesis":"A porous bed should release trapped bubbles more efficiently under unequal reciprocal flow strokes with zero net volume.","prediction":"A porous bed should release trapped bubbles more efficiently under unequal reciprocal flow strokes with zero net volume.","test":"Compare benign water-air models at matched absolute throughput.","contrary_outcome":"Release depends only on net or absolute throughput.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0824","id":"S7-0824","volume":"900v7","title":"A hanging water film should transfer a lateral impulse to its support after the film's visible motion subsides.","prediction":"A hanging water film should transfer a lateral impulse to its support after the film's visible motion subsides.","test":"Measure small forces and independent film-thickness changes.","contrary":"Support force vanishes with visible film velocity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0824","hypothesis":"A hanging water film should transfer a lateral impulse to its support after the film's visible motion subsides.","prediction":"A hanging water film should transfer a lateral impulse to its support after the film's visible motion subsides.","test":"Measure small forces and independent film-thickness changes.","contrary_outcome":"Support force vanishes with visible film velocity.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0825","id":"S7-0825","volume":"900v7","title":"A flexible channel should show a flow-rate maximum after inlet pressure has already started falling.","prediction":"A flexible channel should show a flow-rate maximum after inlet pressure has already started falling.","test":"Measure low-head pressure, wall storage, and discharge.","contrary":"Discharge peaks with pressure after sensor-lag correction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0825","hypothesis":"A flexible channel should show a flow-rate maximum after inlet pressure has already started falling.","prediction":"A flexible channel should show a flow-rate maximum after inlet pressure has already started falling.","test":"Measure low-head pressure, wall storage, and discharge.","contrary_outcome":"Discharge peaks with pressure after sensor-lag correction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0826","id":"S7-0826","volume":"900v7","title":"A surface obstacle should change which bubbles coalesce without changing their mean trajectories appreciably.","prediction":"A surface obstacle should change which bubbles coalesce without changing their mean trajectories appreciably.","test":"Track low-pressure bubbles with matched size and speed.","contrary":"Coalescence is determined entirely by measured trajectories.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0826","hypothesis":"A surface obstacle should change which bubbles coalesce without changing their mean trajectories appreciably.","prediction":"A surface obstacle should change which bubbles coalesce without changing their mean trajectories appreciably.","test":"Track low-pressure bubbles with matched size and speed.","contrary_outcome":"Coalescence is determined entirely by measured trajectories.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0827","id":"S7-0827","volume":"900v7","title":"A shallow porous bank should make water-level recovery nonmonotonic after a brief external withdrawal.","prediction":"A shallow porous bank should make water-level recovery nonmonotonic after a brief external withdrawal.","test":"Measure benign reservoir levels and pore-water redistribution.","contrary":"Level approaches equilibrium monotonically.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0827","hypothesis":"A shallow porous bank should make water-level recovery nonmonotonic after a brief external withdrawal.","prediction":"A shallow porous bank should make water-level recovery nonmonotonic after a brief external withdrawal.","test":"Measure benign reservoir levels and pore-water redistribution.","contrary_outcome":"Level approaches equilibrium monotonically.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0828","id":"S7-0828","volume":"900v7","title":"A small liquid bridge should shift a rolling object's equilibrium position without changing its apparent static friction coefficient.","prediction":"A small liquid bridge should shift a rolling object's equilibrium position without changing its apparent static friction coefficient.","test":"Measure low-force motion, water geometry, and dry references.","contrary":"Position shifts are explained only by friction changes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0828","hypothesis":"A small liquid bridge should shift a rolling object's equilibrium position without changing its apparent static friction coefficient.","prediction":"A small liquid bridge should shift a rolling object's equilibrium position without changing its apparent static friction coefficient.","test":"Measure low-force motion, water geometry, and dry references.","contrary_outcome":"Position shifts are explained only by friction changes.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0829","id":"S7-0829","volume":"900v7","title":"A water-filled crack should transmit a pressure pulse after its visible aperture closes if roughness keeps a connected thin path.","prediction":"A water-filled crack should transmit a pressure pulse after its visible aperture closes if roughness keeps a connected thin path.","test":"Use benign transparent models with calibrated aperture and low-pressure sensing.","contrary":"Closure eliminates transmission within detection limits.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0829","hypothesis":"A water-filled crack should transmit a pressure pulse after its visible aperture closes if roughness keeps a connected thin path.","prediction":"A water-filled crack should transmit a pressure pulse after its visible aperture closes if roughness keeps a connected thin path.","test":"Use benign transparent models with calibrated aperture and low-pressure sensing.","contrary_outcome":"Closure eliminates transmission within detection limits.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0830","id":"S7-0830","volume":"900v7","title":"A train of unequal bubbles should produce less pressure noise than equal bubbles at the same gas volume and water flow.","prediction":"A train of unequal bubbles should produce less pressure noise than equal bubbles at the same gas volume and water flow.","test":"Measure low-pressure channels with independently tracked bubble sequences.","contrary":"Noise depends only on gas fraction and mean size.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0830","hypothesis":"A train of unequal bubbles should produce less pressure noise than equal bubbles at the same gas volume and water flow.","prediction":"A train of unequal bubbles should produce less pressure noise than equal bubbles at the same gas volume and water flow.","test":"Measure low-pressure channels with independently tracked bubble sequences.","contrary_outcome":"Noise depends only on gas fraction and mean size.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0831","id":"S7-0831","volume":"900v7","title":"A bright reference stripe should reveal thermal lensing in a water cell before apparent particle velocities change significantly.","prediction":"A bright reference stripe should reveal thermal lensing in a water cell before apparent particle velocities change significantly.","test":"Compare safe-temperature optical distortion and independent flow.","contrary":"Reference changes offer no reliable warning of velocity bias.","layers":[1],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0831","hypothesis":"A bright reference stripe should reveal thermal lensing in a water cell before apparent particle velocities change significantly.","prediction":"A bright reference stripe should reveal thermal lensing in a water cell before apparent particle velocities change significantly.","test":"Compare safe-temperature optical distortion and independent flow.","contrary_outcome":"Reference changes offer no reliable warning of velocity bias.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0832","id":"S7-0832","volume":"900v7","title":"A paired shadow image should distinguish local film lift-off from substrate bending at equal outer silhouette.","prediction":"A paired shadow image should distinguish local film lift-off from substrate bending at equal outer silhouette.","test":"Use benign films with independent gap and curvature measurements.","contrary":"Both motions remain indistinguishable after pairing.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0832","hypothesis":"A paired shadow image should distinguish local film lift-off from substrate bending at equal outer silhouette.","prediction":"A paired shadow image should distinguish local film lift-off from substrate bending at equal outer silhouette.","test":"Use benign films with independent gap and curvature measurements.","contrary_outcome":"Both motions remain indistinguishable after pairing.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0833","id":"S7-0833","volume":"900v7","title":"A projected point array should locate hidden water pockets beneath a translucent sheet more reliably during gentle flexing than at rest.","prediction":"A projected point array should locate hidden water pockets beneath a translucent sheet more reliably during gentle flexing than at rest.","test":"Validate concealed benign phantoms at matched imaging time.","contrary":"Flexing adds no localization information.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0833","hypothesis":"A projected point array should locate hidden water pockets beneath a translucent sheet more reliably during gentle flexing than at rest.","prediction":"A projected point array should locate hidden water pockets beneath a translucent sheet more reliably during gentle flexing than at rest.","test":"Validate concealed benign phantoms at matched imaging time.","contrary_outcome":"Flexing adds no localization information.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0834","id":"S7-0834","volume":"900v7","title":"A two-polarization image should distinguish a closed crack from a bonded seam at equal apparent width under mild compression.","prediction":"A two-polarization image should distinguish a closed crack from a bonded seam at equal apparent width under mild compression.","test":"Use benign transparent coupons with independently known interfaces.","contrary":"Classification follows width alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0834","hypothesis":"A two-polarization image should distinguish a closed crack from a bonded seam at equal apparent width under mild compression.","prediction":"A two-polarization image should distinguish a closed crack from a bonded seam at equal apparent width under mild compression.","test":"Use benign transparent coupons with independently known interfaces.","contrary_outcome":"Classification follows width alone.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0835","id":"S7-0835","volume":"900v7","title":"A thin water coating should reverse the sign of an optical slope estimate near a textured ridge without changing the true solid slope.","prediction":"A thin water coating should reverse the sign of an optical slope estimate near a textured ridge without changing the true solid slope.","test":"Compare calibrated profilometry and multiple viewing directions.","contrary":"Estimated slope retains the correct sign after static calibration.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0835","hypothesis":"A thin water coating should reverse the sign of an optical slope estimate near a textured ridge without changing the true solid slope.","prediction":"A thin water coating should reverse the sign of an optical slope estimate near a textured ridge without changing the true solid slope.","test":"Compare calibrated profilometry and multiple viewing directions.","contrary_outcome":"Estimated slope retains the correct sign after static calibration.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0836","id":"S7-0836","volume":"900v7","title":"A rough gel contact should show a traveling optical decorrelation front during unloading before a visible gap opens.","prediction":"A rough gel contact should show a traveling optical decorrelation front during unloading before a visible gap opens.","test":"Measure benign interfaces with calibrated gap detection.","contrary":"Decorrelation begins only after resolved separation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0836","hypothesis":"A rough gel contact should show a traveling optical decorrelation front during unloading before a visible gap opens.","prediction":"A rough gel contact should show a traveling optical decorrelation front during unloading before a visible gap opens.","test":"Measure benign interfaces with calibrated gap detection.","contrary_outcome":"Decorrelation begins only after resolved separation.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0837","id":"S7-0837","volume":"900v7","title":"A folded film should retain a spatial phase pattern after total transmitted intensity returns to its preloading value.","prediction":"A folded film should retain a spatial phase pattern after total transmitted intensity returns to its preloading value.","test":"Measure low-intensity interferometric patterns and independent strain.","contrary":"Phase recovery matches mean intensity recovery.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0837","hypothesis":"A folded film should retain a spatial phase pattern after total transmitted intensity returns to its preloading value.","prediction":"A folded film should retain a spatial phase pattern after total transmitted intensity returns to its preloading value.","test":"Measure low-intensity interferometric patterns and independent strain.","contrary_outcome":"Phase recovery matches mean intensity recovery.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0838","id":"S7-0838","volume":"900v7","title":"A moving diffuse reflection should identify surface water flow beneath a stationary porous screen.","prediction":"A moving diffuse reflection should identify surface water flow beneath a stationary porous screen.","test":"Validate benign water models with independent tracer velocity.","contrary":"Reflection follows only screen motion or illumination noise.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0838","hypothesis":"A moving diffuse reflection should identify surface water flow beneath a stationary porous screen.","prediction":"A moving diffuse reflection should identify surface water flow beneath a stationary porous screen.","test":"Validate benign water models with independent tracer velocity.","contrary_outcome":"Reflection follows only screen motion or illumination noise.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0839","id":"S7-0839","volume":"900v7","title":"A transparent pressure window should shift the apparent location of a concealed pore when pressure changes without pore motion.","prediction":"A transparent pressure window should shift the apparent location of a concealed pore when pressure changes without pore motion.","test":"Measure low-pressure phantoms with rigid optical references.","contrary":"Location remains accurate after an initial calibration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0839","hypothesis":"A transparent pressure window should shift the apparent location of a concealed pore when pressure changes without pore motion.","prediction":"A transparent pressure window should shift the apparent location of a concealed pore when pressure changes without pore motion.","test":"Measure low-pressure phantoms with rigid optical references.","contrary_outcome":"Location remains accurate after an initial calibration.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0840","id":"S7-0840","volume":"900v7","title":"A calibrated image pair should separate droplet translation from rotation of an asymmetric internal tracer pattern.","prediction":"A calibrated image pair should separate droplet translation from rotation of an asymmetric internal tracer pattern.","test":"Track benign water droplets with independent multi-view geometry.","contrary":"The two motions remain confounded on held-out trajectories.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0840","hypothesis":"A calibrated image pair should separate droplet translation from rotation of an asymmetric internal tracer pattern.","prediction":"A calibrated image pair should separate droplet translation from rotation of an asymmetric internal tracer pattern.","test":"Track benign water droplets with independent multi-view geometry.","contrary_outcome":"The two motions remain confounded on held-out trajectories.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0841","id":"S7-0841","volume":"900v7","title":"A calibration load applied through a soft cable should produce a different force-sensor zero after slow and abrupt removal.","prediction":"A calibration load applied through a soft cable should produce a different force-sensor zero after slow and abrupt removal.","test":"Measure independent reference force, cable motion, and sensor temperature.","contrary":"Zero shift depends only on previous peak load.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0841","hypothesis":"A calibration load applied through a soft cable should produce a different force-sensor zero after slow and abrupt removal.","prediction":"A calibration load applied through a soft cable should produce a different force-sensor zero after slow and abrupt removal.","test":"Measure independent reference force, cable motion, and sensor temperature.","contrary_outcome":"Zero shift depends only on previous peak load.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0842","id":"S7-0842","volume":"900v7","title":"A water-level sensor should misread a moving curved meniscus differently during rising and falling level at equal true volume.","prediction":"A water-level sensor should misread a moving curved meniscus differently during rising and falling level at equal true volume.","test":"Compare independent collected-volume and optical geometry references.","contrary":"Error is a unique function of true level.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0842","hypothesis":"A water-level sensor should misread a moving curved meniscus differently during rising and falling level at equal true volume.","prediction":"A water-level sensor should misread a moving curved meniscus differently during rising and falling level at equal true volume.","test":"Compare independent collected-volume and optical geometry references.","contrary_outcome":"Error is a unique function of true level.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0843","id":"S7-0843","volume":"900v7","title":"A pressure sensor's protective cavity should create a false overshoot when its trapped gas warms during compression.","prediction":"A pressure sensor's protective cavity should create a false overshoot when its trapped gas warms during compression.","test":"Measure modest pulses with fast gas thermometry and direct reference sensing.","contrary":"Overshoot remains after measured thermal correction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0843","hypothesis":"A pressure sensor's protective cavity should create a false overshoot when its trapped gas warms during compression.","prediction":"A pressure sensor's protective cavity should create a false overshoot when its trapped gas warms during compression.","test":"Measure modest pulses with fast gas thermometry and direct reference sensing.","contrary_outcome":"Overshoot remains after measured thermal correction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0844","id":"S7-0844","volume":"900v7","title":"A glued displacement target should rotate relative to a creeping substrate without visible adhesive failure.","prediction":"A glued displacement target should rotate relative to a creeping substrate without visible adhesive failure.","test":"Track benign materials with independent surface markers and bond imaging.","contrary":"Target motion follows substrate motion exactly.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0844","hypothesis":"A glued displacement target should rotate relative to a creeping substrate without visible adhesive failure.","prediction":"A glued displacement target should rotate relative to a creeping substrate without visible adhesive failure.","test":"Track benign materials with independent surface markers and bond imaging.","contrary_outcome":"Target motion follows substrate motion exactly.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0845","id":"S7-0845","volume":"900v7","title":"A vibration sensor mounted near a soft edge should alter the mode it is intended to measure more than an equal mass placed centrally.","prediction":"A vibration sensor mounted near a soft edge should alter the mode it is intended to measure more than an equal mass placed centrally.","test":"Compare noncontact mode maps with sensor-on and mass-only controls.","contrary":"Bias depends only on total added mass.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0845","hypothesis":"A vibration sensor mounted near a soft edge should alter the mode it is intended to measure more than an equal mass placed centrally.","prediction":"A vibration sensor mounted near a soft edge should alter the mode it is intended to measure more than an equal mass placed centrally.","test":"Compare noncontact mode maps with sensor-on and mass-only controls.","contrary_outcome":"Bias depends only on total added mass.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0846","id":"S7-0846","volume":"900v7","title":"A constant-current resistance measurement should confuse strain-induced contact motion with saline concentration change less when electrode identities are swapped.","prediction":"A constant-current resistance measurement should confuse strain-induced contact motion with saline concentration change less when electrode identities are swapped.","test":"Validate benign gels with independent strain and concentration references.","contrary":"Swapping adds no identifiability.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0846","hypothesis":"A constant-current resistance measurement should confuse strain-induced contact motion with saline concentration change less when electrode identities are swapped.","prediction":"A constant-current resistance measurement should confuse strain-induced contact motion with saline concentration change less when electrode identities are swapped.","test":"Validate benign gels with independent strain and concentration references.","contrary_outcome":"Swapping adds no identifiability.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0847","id":"S7-0847","volume":"900v7","title":"A camera's autoexposure should create an apparent collective particle rearrangement when one bright bubble enters the frame.","prediction":"A camera's autoexposure should create an apparent collective particle rearrangement when one bright bubble enters the frame.","test":"Compare raw fixed-exposure and automatic images against particle ground truth.","contrary":"Detected rearrangements remain unchanged after exposure control.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0847","hypothesis":"A camera's autoexposure should create an apparent collective particle rearrangement when one bright bubble enters the frame.","prediction":"A camera's autoexposure should create an apparent collective particle rearrangement when one bright bubble enters the frame.","test":"Compare raw fixed-exposure and automatic images against particle ground truth.","contrary_outcome":"Detected rearrangements remain unchanged after exposure control.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0848","id":"S7-0848","volume":"900v7","title":"A slow moisture sensor should report a false reversal of a drying front when local temperature changes rapidly.","prediction":"A slow moisture sensor should report a false reversal of a drying front when local temperature changes rapidly.","test":"Measure benign porous samples with independent moisture and temperature.","contrary":"Inferred front direction follows true moisture throughout.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0848","hypothesis":"A slow moisture sensor should report a false reversal of a drying front when local temperature changes rapidly.","prediction":"A slow moisture sensor should report a false reversal of a drying front when local temperature changes rapidly.","test":"Measure benign porous samples with independent moisture and temperature.","contrary_outcome":"Inferred front direction follows true moisture throughout.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0849","id":"S7-0849","volume":"900v7","title":"A lever force probe should show orientation-dependent thermal drift under uniform mild warming because its supports expand unequally.","prediction":"A lever force probe should show orientation-dependent thermal drift under uniform mild warming because its supports expand unequally.","test":"Measure safe temperatures, geometry, and independent force standards.","contrary":"Drift is independent of orientation after zeroing.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0849","hypothesis":"A lever force probe should show orientation-dependent thermal drift under uniform mild warming because its supports expand unequally.","prediction":"A lever force probe should show orientation-dependent thermal drift under uniform mild warming because its supports expand unequally.","test":"Measure safe temperatures, geometry, and independent force standards.","contrary_outcome":"Drift is independent of orientation after zeroing.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0850","id":"S7-0850","volume":"900v7","title":"A narrow conductivity probe should sample a different effective concentration during increasing and decreasing flow at the same speed.","prediction":"A narrow conductivity probe should sample a different effective concentration during increasing and decreasing flow at the same speed.","test":"Compare benign saline fields and independent local sampling.","contrary":"Readings depend only on current concentration and speed.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0850","hypothesis":"A narrow conductivity probe should sample a different effective concentration during increasing and decreasing flow at the same speed.","prediction":"A narrow conductivity probe should sample a different effective concentration during increasing and decreasing flow at the same speed.","test":"Compare benign saline fields and independent local sampling.","contrary_outcome":"Readings depend only on current concentration and speed.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0851","id":"S7-0851","volume":"900v7","title":"A miniature accelerometer should confuse local rocking with translation on a flexible contact surface.","prediction":"A miniature accelerometer should confuse local rocking with translation on a flexible contact surface.","test":"Compare multi-axis readings with independent optical rigid-body motion.","contrary":"A single calibrated axis resolves both motions accurately.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0851","hypothesis":"A miniature accelerometer should confuse local rocking with translation on a flexible contact surface.","prediction":"A miniature accelerometer should confuse local rocking with translation on a flexible contact surface.","test":"Compare multi-axis readings with independent optical rigid-body motion.","contrary_outcome":"A single calibrated axis resolves both motions accurately.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0852","id":"S7-0852","volume":"900v7","title":"A water-drop volume estimate from silhouette should drift during evaporation when contact-line asymmetry changes below image resolution.","prediction":"A water-drop volume estimate from silhouette should drift during evaporation when contact-line asymmetry changes below image resolution.","test":"Compare gravimetry and multi-view geometry.","contrary":"Single-view estimates retain constant accuracy.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0852","hypothesis":"A water-drop volume estimate from silhouette should drift during evaporation when contact-line asymmetry changes below image resolution.","prediction":"A water-drop volume estimate from silhouette should drift during evaporation when contact-line asymmetry changes below image resolution.","test":"Compare gravimetry and multi-view geometry.","contrary_outcome":"Single-view estimates retain constant accuracy.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0853","id":"S7-0853","volume":"900v7","title":"A thermistor's water film should prolong its cooling response after removal from water beyond its dry calibration time.","prediction":"A thermistor's water film should prolong its cooling response after removal from water beyond its dry calibration time.","test":"Measure benign temperature steps, film volume, and noncontact references.","contrary":"One dry calibration describes both responses.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0853","hypothesis":"A thermistor's water film should prolong its cooling response after removal from water beyond its dry calibration time.","prediction":"A thermistor's water film should prolong its cooling response after removal from water beyond its dry calibration time.","test":"Measure benign temperature steps, film volume, and noncontact references.","contrary_outcome":"One dry calibration describes both responses.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0854","id":"S7-0854","volume":"900v7","title":"A pressure tap's horizontal position should affect apparent hydrostatic level after a bubble is trapped in its connecting line.","prediction":"A pressure tap's horizontal position should affect apparent hydrostatic level after a bubble is trapped in its connecting line.","test":"Map benign water-air geometry and direct pressure.","contrary":"Error depends only on sensor elevation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0854","hypothesis":"A pressure tap's horizontal position should affect apparent hydrostatic level after a bubble is trapped in its connecting line.","prediction":"A pressure tap's horizontal position should affect apparent hydrostatic level after a bubble is trapped in its connecting line.","test":"Map benign water-air geometry and direct pressure.","contrary_outcome":"Error depends only on sensor elevation.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0855","id":"S7-0855","volume":"900v7","title":"A rotating laser-free optical target should distinguish true sample twist from camera-axis rotation.","prediction":"A rotating laser-free optical target should distinguish true sample twist from camera-axis rotation.","test":"Validate benign strips with independent angular references.","contrary":"The two motions remain inseparable after referencing.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0855","hypothesis":"A rotating laser-free optical target should distinguish true sample twist from camera-axis rotation.","prediction":"A rotating laser-free optical target should distinguish true sample twist from camera-axis rotation.","test":"Validate benign strips with independent angular references.","contrary_outcome":"The two motions remain inseparable after referencing.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0856","id":"S7-0856","volume":"900v7","title":"A mechanical micrometer should report different thickness recovery than a noncontact sensor when a porous specimen continues to drain under measurement force.","prediction":"A mechanical micrometer should report different thickness recovery than a noncontact sensor when a porous specimen continues to drain under measurement force.","test":"Measure benign pads with controlled contact duration and water loss.","contrary":"Both methods agree after static-force correction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0856","hypothesis":"A mechanical micrometer should report different thickness recovery than a noncontact sensor when a porous specimen continues to drain under measurement force.","prediction":"A mechanical micrometer should report different thickness recovery than a noncontact sensor when a porous specimen continues to drain under measurement force.","test":"Measure benign pads with controlled contact duration and water loss.","contrary_outcome":"Both methods agree after static-force correction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0857","id":"S7-0857","volume":"900v7","title":"A reference electrical channel should reveal common thermal drift without removing genuine differential strain when both channels share one flexible support.","prediction":"A reference electrical channel should reveal common thermal drift without removing genuine differential strain when both channels share one flexible support.","test":"Validate independent mild temperature and load changes.","contrary":"Compensation removes genuine strain or leaves equal drift.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0857","hypothesis":"A reference electrical channel should reveal common thermal drift without removing genuine differential strain when both channels share one flexible support.","prediction":"A reference electrical channel should reveal common thermal drift without removing genuine differential strain when both channels share one flexible support.","test":"Validate independent mild temperature and load changes.","contrary_outcome":"Compensation removes genuine strain or leaves equal drift.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0858","id":"S7-0858","volume":"900v7","title":"A calibration pulse should expose changing acoustic coupling before the amplitude of naturally occurring events changes detectably.","prediction":"A calibration pulse should expose changing acoustic coupling before the amplitude of naturally occurring events changes detectably.","test":"Measure benign joints with independently controlled coupling.","contrary":"Pulse response provides no earlier coupling warning.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0858","hypothesis":"A calibration pulse should expose changing acoustic coupling before the amplitude of naturally occurring events changes detectably.","prediction":"A calibration pulse should expose changing acoustic coupling before the amplitude of naturally occurring events changes detectably.","test":"Measure benign joints with independently controlled coupling.","contrary_outcome":"Pulse response provides no earlier coupling warning.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0859","id":"S7-0859","volume":"900v7","title":"A flow meter calibrated with steady water should overcount short separated pulses through residual rotor motion.","prediction":"A flow meter calibrated with steady water should overcount short separated pulses through residual rotor motion.","test":"Compare gravimetric collection and time-resolved rotor speed.","contrary":"Total indicated volume is independent of pulse spacing.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0859","hypothesis":"A flow meter calibrated with steady water should overcount short separated pulses through residual rotor motion.","prediction":"A flow meter calibrated with steady water should overcount short separated pulses through residual rotor motion.","test":"Compare gravimetric collection and time-resolved rotor speed.","contrary_outcome":"Total indicated volume is independent of pulse spacing.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0860","id":"S7-0860","volume":"900v7","title":"A floating marker should measure a different apparent wave speed from submerged tracers when surface drift varies spatially.","prediction":"A floating marker should measure a different apparent wave speed from submerged tracers when surface drift varies spatially.","test":"Track both marker types with independent surface profiles.","contrary":"Both recover the same propagation speed after local advection correction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0860","hypothesis":"A floating marker should measure a different apparent wave speed from submerged tracers when surface drift varies spatially.","prediction":"A floating marker should measure a different apparent wave speed from submerged tracers when surface drift varies spatially.","test":"Track both marker types with independent surface profiles.","contrary_outcome":"Both recover the same propagation speed after local advection correction.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0861","id":"S7-0861","volume":"900v7","title":"A temperature reference placed beside a sample should lag the sample's radiant heating differently when its backing is reflective.","prediction":"A temperature reference placed beside a sample should lag the sample's radiant heating differently when its backing is reflective.","test":"Use low-intensity radiation and calibrated contact measurements.","contrary":"Reference error depends only on air temperature.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0861","hypothesis":"A temperature reference placed beside a sample should lag the sample's radiant heating differently when its backing is reflective.","prediction":"A temperature reference placed beside a sample should lag the sample's radiant heating differently when its backing is reflective.","test":"Use low-intensity radiation and calibrated contact measurements.","contrary_outcome":"Reference error depends only on air temperature.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0862","id":"S7-0862","volume":"900v7","title":"A cantilever probe should detect its own wetting-line force before touching a submerged soft specimen.","prediction":"A cantilever probe should detect its own wetting-line force before touching a submerged soft specimen.","test":"Measure benign water interfaces and independent contact timing.","contrary":"Force onset coincides with solid contact.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0862","hypothesis":"A cantilever probe should detect its own wetting-line force before touching a submerged soft specimen.","prediction":"A cantilever probe should detect its own wetting-line force before touching a submerged soft specimen.","test":"Measure benign water interfaces and independent contact timing.","contrary_outcome":"Force onset coincides with solid contact.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0863","id":"S7-0863","volume":"900v7","title":"A camera mounted on the loading frame should underreport slow specimen displacement because the frame itself deforms.","prediction":"A camera mounted on the loading frame should underreport slow specimen displacement because the frame itself deforms.","test":"Compare external and frame-mounted imaging with rigid references.","contrary":"Both recover identical displacement after initial alignment.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0863","hypothesis":"A camera mounted on the loading frame should underreport slow specimen displacement because the frame itself deforms.","prediction":"A camera mounted on the loading frame should underreport slow specimen displacement because the frame itself deforms.","test":"Compare external and frame-mounted imaging with rigid references.","contrary_outcome":"Both recover identical displacement after initial alignment.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0864","id":"S7-0864","volume":"900v7","title":"A porous humidity shield should introduce direction-dependent sensor delay during humidification and drying.","prediction":"A porous humidity shield should introduce direction-dependent sensor delay during humidification and drying.","test":"Compare calibrated air histories with shield moisture measurements.","contrary":"One linear delay kernel describes both directions.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0864","hypothesis":"A porous humidity shield should introduce direction-dependent sensor delay during humidification and drying.","prediction":"A porous humidity shield should introduce direction-dependent sensor delay during humidification and drying.","test":"Compare calibrated air histories with shield moisture measurements.","contrary_outcome":"One linear delay kernel describes both directions.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0865","id":"S7-0865","volume":"900v7","title":"A paired pressure measurement should confuse a propagating pulse with unequal tube compliance less after intentional sensor-position exchange.","prediction":"A paired pressure measurement should confuse a propagating pulse with unequal tube compliance less after intentional sensor-position exchange.","test":"Validate modest known pulses with direct references.","contrary":"Exchange does not improve pulse-speed accuracy.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0865","hypothesis":"A paired pressure measurement should confuse a propagating pulse with unequal tube compliance less after intentional sensor-position exchange.","prediction":"A paired pressure measurement should confuse a propagating pulse with unequal tube compliance less after intentional sensor-position exchange.","test":"Validate modest known pulses with direct references.","contrary_outcome":"Exchange does not improve pulse-speed accuracy.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0866","id":"S7-0866","volume":"900v7","title":"A digital force filter should make the measured onset of slip depend on whether loading accelerates or decelerates.","prediction":"A digital force filter should make the measured onset of slip depend on whether loading accelerates or decelerates.","test":"Compare raw high-bandwidth records and independent contact images.","contrary":"Onset error is independent of loading acceleration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0866","hypothesis":"A digital force filter should make the measured onset of slip depend on whether loading accelerates or decelerates.","prediction":"A digital force filter should make the measured onset of slip depend on whether loading accelerates or decelerates.","test":"Compare raw high-bandwidth records and independent contact images.","contrary_outcome":"Onset error is independent of loading acceleration.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0867","id":"S7-0867","volume":"900v7","title":"A color-based concentration estimate should drift when a soft cell wall stretches even at fixed true solute concentration.","prediction":"A color-based concentration estimate should drift when a soft cell wall stretches even at fixed true solute concentration.","test":"Use benign food dyes with independent path-length and concentration measurements.","contrary":"Initial calibration remains valid across wall strain.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0867","hypothesis":"A color-based concentration estimate should drift when a soft cell wall stretches even at fixed true solute concentration.","prediction":"A color-based concentration estimate should drift when a soft cell wall stretches even at fixed true solute concentration.","test":"Use benign food dyes with independent path-length and concentration measurements.","contrary_outcome":"Initial calibration remains valid across wall strain.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0868","id":"S7-0868","volume":"900v7","title":"A surface probe should change a droplet's depinning angle by anchoring a contact-line segment before appreciable probe force appears.","prediction":"A surface probe should change a droplet's depinning angle by anchoring a contact-line segment before appreciable probe force appears.","test":"Compare water droplets with noncontact references and imaged probe position.","contrary":"Depinning is unaffected until measurable probe loading.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0868","hypothesis":"A surface probe should change a droplet's depinning angle by anchoring a contact-line segment before appreciable probe force appears.","prediction":"A surface probe should change a droplet's depinning angle by anchoring a contact-line segment before appreciable probe force appears.","test":"Compare water droplets with noncontact references and imaged probe position.","contrary_outcome":"Depinning is unaffected until measurable probe loading.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0869","id":"S7-0869","volume":"900v7","title":"A thermal camera should confuse changing reflection with cooling when a wet reflective film changes angle.","prediction":"A thermal camera should confuse changing reflection with cooling when a wet reflective film changes angle.","test":"Compare safe-temperature contact sensing and controlled viewing geometry.","contrary":"Apparent temperature follows true temperature after one emissivity calibration.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0869","hypothesis":"A thermal camera should confuse changing reflection with cooling when a wet reflective film changes angle.","prediction":"A thermal camera should confuse changing reflection with cooling when a wet reflective film changes angle.","test":"Compare safe-temperature contact sensing and controlled viewing geometry.","contrary_outcome":"Apparent temperature follows true temperature after one emissivity calibration.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0870","id":"S7-0870","volume":"900v7","title":"A small load-cell cable loop should generate a repeatable false hysteresis that reverses when cable routing is mirrored.","prediction":"A small load-cell cable loop should generate a repeatable false hysteresis that reverses when cable routing is mirrored.","test":"Use rigid load standards and independently measured cable forces.","contrary":"Hysteresis does not reverse with routing.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0870","hypothesis":"A small load-cell cable loop should generate a repeatable false hysteresis that reverses when cable routing is mirrored.","prediction":"A small load-cell cable loop should generate a repeatable false hysteresis that reverses when cable routing is mirrored.","test":"Use rigid load standards and independently measured cable forces.","contrary_outcome":"Hysteresis does not reverse with routing.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0871","id":"S7-0871","volume":"900v7","title":"A capacitance wetness sensor should retain an offset after complete drying if a benign salt deposit remains between field lines.","prediction":"A capacitance wetness sensor should retain an offset after complete drying if a benign salt deposit remains between field lines.","test":"Measure water mass, salt distribution, and cleaned controls.","contrary":"Signal returns whenever all water is removed.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0871","hypothesis":"A capacitance wetness sensor should retain an offset after complete drying if a benign salt deposit remains between field lines.","prediction":"A capacitance wetness sensor should retain an offset after complete drying if a benign salt deposit remains between field lines.","test":"Measure water mass, salt distribution, and cleaned controls.","contrary_outcome":"Signal returns whenever all water is removed.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0872","id":"S7-0872","volume":"900v7","title":"A weak magnetic position readout should confuse local steel-part rotation with translation unless a second spatial sensor is used.","prediction":"A weak magnetic position readout should confuse local steel-part rotation with translation unless a second spatial sensor is used.","test":"Validate enclosed low-energy parts with optical ground truth.","contrary":"The second sensor adds no independent position information.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0872","hypothesis":"A weak magnetic position readout should confuse local steel-part rotation with translation unless a second spatial sensor is used.","prediction":"A weak magnetic position readout should confuse local steel-part rotation with translation unless a second spatial sensor is used.","test":"Validate enclosed low-energy parts with optical ground truth.","contrary_outcome":"The second sensor adds no independent position information.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0873","id":"S7-0873","volume":"900v7","title":"A reference image taken through the same water path should correct pressure-window distortion better than a reference beside the cell.","prediction":"A reference image taken through the same water path should correct pressure-window distortion better than a reference beside the cell.","test":"Compare low-pressure phantoms with independently fixed targets.","contrary":"Both references provide equal correction accuracy.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0873","hypothesis":"A reference image taken through the same water path should correct pressure-window distortion better than a reference beside the cell.","prediction":"A reference image taken through the same water path should correct pressure-window distortion better than a reference beside the cell.","test":"Compare low-pressure phantoms with independently fixed targets.","contrary_outcome":"Both references provide equal correction accuracy.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0874","id":"S7-0874","volume":"900v7","title":"A small vibration probe should produce apparent damping changes as its adhesive cures despite unchanged specimen response.","prediction":"A small vibration probe should produce apparent damping changes as its adhesive cures despite unchanged specimen response.","test":"Compare benign specimens with simultaneous noncontact motion.","contrary":"Damping estimates remain stationary during adhesive evolution.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0874","hypothesis":"A small vibration probe should produce apparent damping changes as its adhesive cures despite unchanged specimen response.","prediction":"A small vibration probe should produce apparent damping changes as its adhesive cures despite unchanged specimen response.","test":"Compare benign specimens with simultaneous noncontact motion.","contrary_outcome":"Damping estimates remain stationary during adhesive evolution.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0875","id":"S7-0875","volume":"900v7","title":"A drainage collector should miss a short backflow event even when its final collected volume is correct.","prediction":"A drainage collector should miss a short backflow event even when its final collected volume is correct.","test":"Use low-head water with bidirectional optical flow and time-resolved weighing.","contrary":"Collector records reproduce backflow after dynamic calibration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0875","hypothesis":"A drainage collector should miss a short backflow event even when its final collected volume is correct.","prediction":"A drainage collector should miss a short backflow event even when its final collected volume is correct.","test":"Use low-head water with bidirectional optical flow and time-resolved weighing.","contrary_outcome":"Collector records reproduce backflow after dynamic calibration.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0876","id":"S7-0876","volume":"900v7","title":"A conductivity reading should depend on prior polarization duration more strongly in a thin wet film than bulk solution at equal conductance.","prediction":"A conductivity reading should depend on prior polarization duration more strongly in a thin wet film than bulk solution at equal conductance.","test":"Measure low-voltage benign saline geometries with controlled rests.","contrary":"History effects depend only on conductance.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0876","hypothesis":"A conductivity reading should depend on prior polarization duration more strongly in a thin wet film than bulk solution at equal conductance.","prediction":"A conductivity reading should depend on prior polarization duration more strongly in a thin wet film than bulk solution at equal conductance.","test":"Measure low-voltage benign saline geometries with controlled rests.","contrary_outcome":"History effects depend only on conductance.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0877","id":"S7-0877","volume":"900v7","title":"A dry reference object should fail to correct a wet specimen's optical drift when changing humidity alters their surface reflections differently.","prediction":"A dry reference object should fail to correct a wet specimen's optical drift when changing humidity alters their surface reflections differently.","test":"Validate benign materials with independent displacement references.","contrary":"Reference correction remains transferable across wetness states.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0877","hypothesis":"A dry reference object should fail to correct a wet specimen's optical drift when changing humidity alters their surface reflections differently.","prediction":"A dry reference object should fail to correct a wet specimen's optical drift when changing humidity alters their surface reflections differently.","test":"Validate benign materials with independent displacement references.","contrary_outcome":"Reference correction remains transferable across wetness states.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0878","id":"S7-0878","volume":"900v7","title":"A force threshold chosen from quiet data should yield too many false events when a specimen's thermal expansion increases contact noise.","prediction":"A force threshold chosen from quiet data should yield too many false events when a specimen's thermal expansion increases contact noise.","test":"Measure benign small loads with independent event labels.","contrary":"False-event rate is unchanged after temperature varies.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0878","hypothesis":"A force threshold chosen from quiet data should yield too many false events when a specimen's thermal expansion increases contact noise.","prediction":"A force threshold chosen from quiet data should yield too many false events when a specimen's thermal expansion increases contact noise.","test":"Measure benign small loads with independent event labels.","contrary_outcome":"False-event rate is unchanged after temperature varies.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0879","id":"S7-0879","volume":"900v7","title":"A short sampling tube should distort the leading edge of a particle pulse more than its trailing edge through wall capture and release.","prediction":"A short sampling tube should distort the leading edge of a particle pulse more than its trailing edge through wall capture and release.","test":"Use enclosed inert particles with in-situ counting and complete recovery.","contrary":"One symmetric response kernel describes both edges.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0879","hypothesis":"A short sampling tube should distort the leading edge of a particle pulse more than its trailing edge through wall capture and release.","prediction":"A short sampling tube should distort the leading edge of a particle pulse more than its trailing edge through wall capture and release.","test":"Use enclosed inert particles with in-situ counting and complete recovery.","contrary_outcome":"One symmetric response kernel describes both edges.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0880","id":"S7-0880","volume":"900v7","title":"A transparent loading platen should hide central contact loss because edge reflections dominate its intensity signal.","prediction":"A transparent loading platen should hide central contact loss because edge reflections dominate its intensity signal.","test":"Compare benign interfaces with independent contact mapping.","contrary":"Mean intensity resolves central and edge loss equally.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0880","hypothesis":"A transparent loading platen should hide central contact loss because edge reflections dominate its intensity signal.","prediction":"A transparent loading platen should hide central contact loss because edge reflections dominate its intensity signal.","test":"Compare benign interfaces with independent contact mapping.","contrary_outcome":"Mean intensity resolves central and edge loss equally.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0881","id":"S7-0881","volume":"900v7","title":"A fixed optical threshold should underestimate pore connectivity more during drainage than filling because liquid films have different shapes.","prediction":"A fixed optical threshold should underestimate pore connectivity more during drainage than filling because liquid films have different shapes.","test":"Validate benign transparent networks with independent three-dimensional water maps.","contrary":"Connectivity errors depend only on total saturation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0881","hypothesis":"A fixed optical threshold should underestimate pore connectivity more during drainage than filling because liquid films have different shapes.","prediction":"A fixed optical threshold should underestimate pore connectivity more during drainage than filling because liquid films have different shapes.","test":"Validate benign transparent networks with independent three-dimensional water maps.","contrary_outcome":"Connectivity errors depend only on total saturation.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0882","id":"S7-0882","volume":"900v7","title":"A slow scale should report a spurious retained-water increase when a draining specimen's support relaxes vertically.","prediction":"A slow scale should report a spurious retained-water increase when a draining specimen's support relaxes vertically.","test":"Use independent mass collection and support-motion sensing.","contrary":"Apparent mass follows true mass despite support relaxation.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0882","hypothesis":"A slow scale should report a spurious retained-water increase when a draining specimen's support relaxes vertically.","prediction":"A slow scale should report a spurious retained-water increase when a draining specimen's support relaxes vertically.","test":"Use independent mass collection and support-motion sensing.","contrary_outcome":"Apparent mass follows true mass despite support relaxation.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0883","id":"S7-0883","volume":"900v7","title":"A low-cost microphone should change its apparent cavity resonance when condensation alters its protective mesh.","prediction":"A low-cost microphone should change its apparent cavity resonance when condensation alters its protective mesh.","test":"Measure quiet reference cavities and independent microphone transfer functions.","contrary":"Resonance estimates remain stable through mesh wetting.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0883","hypothesis":"A low-cost microphone should change its apparent cavity resonance when condensation alters its protective mesh.","prediction":"A low-cost microphone should change its apparent cavity resonance when condensation alters its protective mesh.","test":"Measure quiet reference cavities and independent microphone transfer functions.","contrary_outcome":"Resonance estimates remain stable through mesh wetting.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0884","id":"S7-0884","volume":"900v7","title":"A bending sensor bonded asymmetrically to a soft tube should bias inferred pressure differently after clockwise and counterclockwise twist.","prediction":"A bending sensor bonded asymmetrically to a soft tube should bias inferred pressure differently after clockwise and counterclockwise twist.","test":"Validate low-pressure water tubes with independent geometry.","contrary":"Pressure error depends only on current curvature.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0884","hypothesis":"A bending sensor bonded asymmetrically to a soft tube should bias inferred pressure differently after clockwise and counterclockwise twist.","prediction":"A bending sensor bonded asymmetrically to a soft tube should bias inferred pressure differently after clockwise and counterclockwise twist.","test":"Validate low-pressure water tubes with independent geometry.","contrary_outcome":"Pressure error depends only on current curvature.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0885","id":"S7-0885","volume":"900v7","title":"A two-view particle measurement should still bias volume if both views share the same refracting window curvature.","prediction":"A two-view particle measurement should still bias volume if both views share the same refracting window curvature.","test":"Compare calibrated inert objects with an external geometric reference.","contrary":"Shared curvature creates no residual volume bias.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0885","hypothesis":"A two-view particle measurement should still bias volume if both views share the same refracting window curvature.","prediction":"A two-view particle measurement should still bias volume if both views share the same refracting window curvature.","test":"Compare calibrated inert objects with an external geometric reference.","contrary_outcome":"Shared curvature creates no residual volume bias.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0886","id":"S7-0886","volume":"900v7","title":"A reference spring should reveal load-cell drift only if its own humidity sensitivity is measured independently.","prediction":"A reference spring should reveal load-cell drift only if its own humidity sensitivity is measured independently.","test":"Validate benign force standards across controlled humidity.","contrary":"Uncorrected referencing rejects all humidity drift accurately.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0886","hypothesis":"A reference spring should reveal load-cell drift only if its own humidity sensitivity is measured independently.","prediction":"A reference spring should reveal load-cell drift only if its own humidity sensitivity is measured independently.","test":"Validate benign force standards across controlled humidity.","contrary_outcome":"Uncorrected referencing rejects all humidity drift accurately.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0887","id":"S7-0887","volume":"900v7","title":"A tiny temperature pulse used as a flow tracer should change the local flow it measures in a strongly stratified water pocket.","prediction":"A tiny temperature pulse used as a flow tracer should change the local flow it measures in a strongly stratified water pocket.","test":"Compare low-power pulses with nonthermal tracer motion.","contrary":"Estimated flow is independent of pulse energy.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0887","hypothesis":"A tiny temperature pulse used as a flow tracer should change the local flow it measures in a strongly stratified water pocket.","prediction":"A tiny temperature pulse used as a flow tracer should change the local flow it measures in a strongly stratified water pocket.","test":"Compare low-power pulses with nonthermal tracer motion.","contrary_outcome":"Estimated flow is independent of pulse energy.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0888","id":"S7-0888","volume":"900v7","title":"A moving water front should alter electrical contact area faster than bulk conductivity, causing a false concentration spike.","prediction":"A moving water front should alter electrical contact area faster than bulk conductivity, causing a false concentration spike.","test":"Measure low-voltage signals with microscope electrode wetting and sampled concentration.","contrary":"Spikes track true concentration rather than contact geometry.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0888","hypothesis":"A moving water front should alter electrical contact area faster than bulk conductivity, causing a false concentration spike.","prediction":"A moving water front should alter electrical contact area faster than bulk conductivity, causing a false concentration spike.","test":"Measure low-voltage signals with microscope electrode wetting and sampled concentration.","contrary_outcome":"Spikes track true concentration rather than contact geometry.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0889","id":"S7-0889","volume":"900v7","title":"A surface displacement sensor should report different recovery times at different viewing angles on a specular soft film.","prediction":"A surface displacement sensor should report different recovery times at different viewing angles on a specular soft film.","test":"Compare benign films with independent contact-free geometry.","contrary":"Recovery time is invariant after one angle calibration.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0889","hypothesis":"A surface displacement sensor should report different recovery times at different viewing angles on a specular soft film.","prediction":"A surface displacement sensor should report different recovery times at different viewing angles on a specular soft film.","test":"Compare benign films with independent contact-free geometry.","contrary_outcome":"Recovery time is invariant after one angle calibration.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0890","id":"S7-0890","volume":"900v7","title":"A low-amplitude test pulse should itself erase a weak granular memory if applied repeatedly often enough.","prediction":"A low-amplitude test pulse should itself erase a weak granular memory if applied repeatedly often enough.","test":"Track inert particle forces with pulse-free controls and varied probe cadence.","contrary":"Memory decay is independent of measurement cadence.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0890","hypothesis":"A low-amplitude test pulse should itself erase a weak granular memory if applied repeatedly often enough.","prediction":"A low-amplitude test pulse should itself erase a weak granular memory if applied repeatedly often enough.","test":"Track inert particle forces with pulse-free controls and varied probe cadence.","contrary_outcome":"Memory decay is independent of measurement cadence.","status":"speculative; unproved","novelty":"unverified"},"lead":{"id":"S7-0890","hypothesis":"A low-amplitude test pulse should itself erase a weak granular memory if applied repeatedly often enough.","prediction":"A low-amplitude test pulse should itself erase a weak granular memory if applied repeatedly often enough.","test":"Track inert particle forces with pulse-free controls and varied probe cadence.","contrary_outcome":"Memory decay is independent of measurement cadence.","status":"speculative; unproved","novelty":"unverified"},"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0891","id":"S7-0891","volume":"900v7","title":"A calibrated dye pulse should detect changes in sampling-line adsorption before steady concentration readings become biased.","prediction":"A calibrated dye pulse should detect changes in sampling-line adsorption before steady concentration readings become biased.","test":"Use benign food-safe dye and independently known inlet concentration.","contrary":"Pulse and steady readings become biased simultaneously.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0891","hypothesis":"A calibrated dye pulse should detect changes in sampling-line adsorption before steady concentration readings become biased.","prediction":"A calibrated dye pulse should detect changes in sampling-line adsorption before steady concentration readings become biased.","test":"Use benign food-safe dye and independently known inlet concentration.","contrary_outcome":"Pulse and steady readings become biased simultaneously.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0892","id":"S7-0892","volume":"900v7","title":"A fluid-level estimate from wall strain should lag differently during filling and draining because the wall stores mechanical memory.","prediction":"A fluid-level estimate from wall strain should lag differently during filling and draining because the wall stores mechanical memory.","test":"Measure low-head soft reservoirs with gravimetric volume references.","contrary":"One static strain-volume curve predicts both histories.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0892","hypothesis":"A fluid-level estimate from wall strain should lag differently during filling and draining because the wall stores mechanical memory.","prediction":"A fluid-level estimate from wall strain should lag differently during filling and draining because the wall stores mechanical memory.","test":"Measure low-head soft reservoirs with gravimetric volume references.","contrary_outcome":"One static strain-volume curve predicts both histories.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0893","id":"S7-0893","volume":"900v7","title":"A zero-pressure calibration should not remove gas-pocket bias from subsequent pressure pulses if the pocket volume changes during calibration.","prediction":"A zero-pressure calibration should not remove gas-pocket bias from subsequent pressure pulses if the pocket volume changes during calibration.","test":"Use rated low-pressure transparent cells and direct reference sensors.","contrary":"Zeroing eliminates all pocket-related dynamic bias.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0893","hypothesis":"A zero-pressure calibration should not remove gas-pocket bias from subsequent pressure pulses if the pocket volume changes during calibration.","prediction":"A zero-pressure calibration should not remove gas-pocket bias from subsequent pressure pulses if the pocket volume changes during calibration.","test":"Use rated low-pressure transparent cells and direct reference sensors.","contrary_outcome":"Zeroing eliminates all pocket-related dynamic bias.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0894","id":"S7-0894","volume":"900v7","title":"A soft marker used for particle tracking should rotate internally before its centroid moves, creating a false strain precursor.","prediction":"A soft marker used for particle tracking should rotate internally before its centroid moves, creating a false strain precursor.","test":"Use benign markers with independent substrate and internal-pattern tracking.","contrary":"Marker-derived strain follows the substrate exactly.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0894","hypothesis":"A soft marker used for particle tracking should rotate internally before its centroid moves, creating a false strain precursor.","prediction":"A soft marker used for particle tracking should rotate internally before its centroid moves, creating a false strain precursor.","test":"Use benign markers with independent substrate and internal-pattern tracking.","contrary_outcome":"Marker-derived strain follows the substrate exactly.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0895","id":"S7-0895","volume":"900v7","title":"A fixed acoustic classifier should mistake increased humidity for a new contact state if propagation loss changes unevenly across sensors.","prediction":"A fixed acoustic classifier should mistake increased humidity for a new contact state if propagation loss changes unevenly across sensors.","test":"Validate benign mechanical networks under independent humidity and contact changes.","contrary":"Classification remains transferable without humidity calibration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0895","hypothesis":"A fixed acoustic classifier should mistake increased humidity for a new contact state if propagation loss changes unevenly across sensors.","prediction":"A fixed acoustic classifier should mistake increased humidity for a new contact state if propagation loss changes unevenly across sensors.","test":"Validate benign mechanical networks under independent humidity and contact changes.","contrary_outcome":"Classification remains transferable without humidity calibration.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0896","id":"S7-0896","volume":"900v7","title":"A laser-free reflected pattern should separate rigid window tilt from sample swelling only if illumination position is also monitored.","prediction":"A laser-free reflected pattern should separate rigid window tilt from sample swelling only if illumination position is also monitored.","test":"Validate benign water cells with independently varied light and geometry.","contrary":"Geometry estimates remain accurate without light monitoring.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0896","hypothesis":"A laser-free reflected pattern should separate rigid window tilt from sample swelling only if illumination position is also monitored.","prediction":"A laser-free reflected pattern should separate rigid window tilt from sample swelling only if illumination position is also monitored.","test":"Validate benign water cells with independently varied light and geometry.","contrary_outcome":"Geometry estimates remain accurate without light monitoring.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0897","id":"S7-0897","volume":"900v7","title":"A thin liquid film should make a contact-pressure indicator continue changing color after force has stopped changing.","prediction":"A thin liquid film should make a contact-pressure indicator continue changing color after force has stopped changing.","test":"Compare benign films with calibrated force and optical wetting maps.","contrary":"Indicator response stabilizes with applied force.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0897","hypothesis":"A thin liquid film should make a contact-pressure indicator continue changing color after force has stopped changing.","prediction":"A thin liquid film should make a contact-pressure indicator continue changing color after force has stopped changing.","test":"Compare benign films with calibrated force and optical wetting maps.","contrary_outcome":"Indicator response stabilizes with applied force.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0898","id":"S7-0898","volume":"900v7","title":"A force sensor's apparent relaxation should depend on the thermal conductivity of its sample contact even at equal mechanical stiffness.","prediction":"A force sensor's apparent relaxation should depend on the thermal conductivity of its sample contact even at equal mechanical stiffness.","test":"Use safe-temperature benign standards with independent mechanical and thermal properties.","contrary":"Relaxation is set only by mechanical stiffness.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0898","hypothesis":"A force sensor's apparent relaxation should depend on the thermal conductivity of its sample contact even at equal mechanical stiffness.","prediction":"A force sensor's apparent relaxation should depend on the thermal conductivity of its sample contact even at equal mechanical stiffness.","test":"Use safe-temperature benign standards with independent mechanical and thermal properties.","contrary_outcome":"Relaxation is set only by mechanical stiffness.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0899","id":"S7-0899","volume":"900v7","title":"A filtered pressure trace should reverse the inferred order of two nearby valve events if the sensors have unequal response kernels.","prediction":"A filtered pressure trace should reverse the inferred order of two nearby valve events if the sensors have unequal response kernels.","test":"Validate low-pressure water events with optical valve timing.","contrary":"Event order survives unequal calibrated filtering.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0899","hypothesis":"A filtered pressure trace should reverse the inferred order of two nearby valve events if the sensors have unequal response kernels.","prediction":"A filtered pressure trace should reverse the inferred order of two nearby valve events if the sensors have unequal response kernels.","test":"Validate low-pressure water events with optical valve timing.","contrary_outcome":"Event order survives unequal calibrated filtering.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v7--S7-0900","id":"S7-0900","volume":"900v7","title":"A multi-reference calibration should recover true slow drift more reliably than repeated zeroing when zeroing disturbs the specimen.","prediction":"A multi-reference calibration should recover true slow drift more reliably than repeated zeroing when zeroing disturbs the specimen.","test":"Compare benign creep tests with independent noncontact motion.","contrary":"Repeated zeroing and passive referencing are equally accurate.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v7/Hypotheses.json","original":{"id":"S7-0900","hypothesis":"A multi-reference calibration should recover true slow drift more reliably than repeated zeroing when zeroing disturbs the specimen.","prediction":"A multi-reference calibration should recover true slow drift more reliably than repeated zeroing when zeroing disturbs the specimen.","test":"Compare benign creep tests with independent noncontact motion.","contrary_outcome":"Repeated zeroing and passive referencing are equally accurate.","status":"speculative; unproved","novelty":"unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v7/Selected90.json","dossier_source":"sources/9v7/Selected9.json"},{"uid":"900v8--S8-0001","id":"S8-0001","volume":"900v8","title":"A rough internal corner could extinguish a liquid-cavity resonance by trapping a movable microbubble at its pressure antinode.","prediction":"A rough internal corner could extinguish a liquid-cavity resonance by trapping a movable microbubble at its pressure antinode.","test":"Map bubble location and acoustic modes.","contrary":"Extinction occurs without bubble trapping.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0001","hypothesis":"A rough internal corner could extinguish a liquid-cavity resonance by trapping a movable microbubble at its pressure antinode.","test":"Map bubble location and acoustic modes.","contrary_result":"Extinction occurs without bubble trapping.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0001","hypothesis":"A rough internal corner could extinguish a liquid-cavity resonance by trapping a movable microbubble at its pressure antinode.","test":"Map bubble location and acoustic modes.","contrary_result":"Extinction occurs without bubble trapping.","status":"Untested; novelty unverified","selection_rationale":"Bubble position and cavity-mode amplitude provide independent observables.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0002","id":"S8-0002","volume":"900v8","title":"An elastic grain with a stiff core could migrate toward weaker shear while an equal-modulus uniform grain migrates oppositely.","prediction":"An elastic grain with a stiff core could migrate toward weaker shear while an equal-modulus uniform grain migrates oppositely.","test":"Track matched grains in shear.","contrary":"Both trajectories follow the same drift law.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0002","hypothesis":"An elastic grain with a stiff core could migrate toward weaker shear while an equal-modulus uniform grain migrates oppositely.","test":"Track matched grains in shear.","contrary_result":"Both trajectories follow the same drift law.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0003","id":"S8-0003","volume":"900v8","title":"A silica surface could accumulate condensation preferentially along a buried strain node rather than its coolest line.","prediction":"A silica surface could accumulate condensation preferentially along a buried strain node rather than its coolest line.","test":"Map strain, temperature and droplets.","contrary":"Temperature alone predicts deposition.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0003","hypothesis":"A silica surface could accumulate condensation preferentially along a buried strain node rather than its coolest line.","test":"Map strain, temperature and droplets.","contrary_result":"Temperature alone predicts deposition.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0004","id":"S8-0004","volume":"900v8","title":"A bent capillary containing two immiscible liquids could reverse its net photothermal torque when the interface crosses the bend.","prediction":"A bent capillary containing two immiscible liquids could reverse its net photothermal torque when the interface crosses the bend.","test":"Measure torque against interface position.","contrary":"Torque never reverses.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0004","hypothesis":"A bent capillary containing two immiscible liquids could reverse its net photothermal torque when the interface crosses the bend.","test":"Measure torque against interface position.","contrary_result":"Torque never reverses.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0005","id":"S8-0005","volume":"900v8","title":"A compressed crystal powder could transfer an optical excitation between grains more efficiently before its electrical contacts percolate.","prediction":"A compressed crystal powder could transfer an optical excitation between grains more efficiently before its electrical contacts percolate.","test":"Measure luminescence transfer and conductivity.","contrary":"Both thresholds coincide.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0005","hypothesis":"A compressed crystal powder could transfer an optical excitation between grains more efficiently before its electrical contacts percolate.","test":"Measure luminescence transfer and conductivity.","contrary_result":"Both thresholds coincide.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0006","id":"S8-0006","volume":"900v8","title":"A thin liquid film could suppress a substrate crack's electric emission by ionic screening without reducing fracture energy.","prediction":"A thin liquid film could suppress a substrate crack's electric emission by ionic screening without reducing fracture energy.","test":"Measure charge, crack motion and energy.","contrary":"Suppression tracks fracture slowing only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0006","hypothesis":"A thin liquid film could suppress a substrate crack's electric emission by ionic screening without reducing fracture energy.","test":"Measure charge, crack motion and energy.","contrary_result":"Suppression tracks fracture slowing only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0007","id":"S8-0007","volume":"900v8","title":"A pair of unequal gas cavities could produce a transient pressure plateau after a sudden shared vent closure.","prediction":"A pair of unequal gas cavities could produce a transient pressure plateau after a sudden shared vent closure.","test":"Measure both cavity pressures.","contrary":"Both pressures relax monotonically without a plateau.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0007","hypothesis":"A pair of unequal gas cavities could produce a transient pressure plateau after a sudden shared vent closure.","test":"Measure both cavity pressures.","contrary_result":"Both pressures relax monotonically without a plateau.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0008","id":"S8-0008","volume":"900v8","title":"A suspended ice plate could rotate its principal bending axis as a melt channel opens internally.","prediction":"A suspended ice plate could rotate its principal bending axis as a melt channel opens internally.","test":"Image channels and vibration modes.","contrary":"Axes follow exterior geometry alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0008","hypothesis":"A suspended ice plate could rotate its principal bending axis as a melt channel opens internally.","test":"Image channels and vibration modes.","contrary_result":"Axes follow exterior geometry alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0009","id":"S8-0009","volume":"900v8","title":"A crystalline inclusion could delay a surrounding gel's thermal contraction through reversible interfacial slip.","prediction":"A crystalline inclusion could delay a surrounding gel's thermal contraction through reversible interfacial slip.","test":"Measure local strain and slip.","contrary":"Contraction follows temperature without delay.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0009","hypothesis":"A crystalline inclusion could delay a surrounding gel's thermal contraction through reversible interfacial slip.","test":"Measure local strain and slip.","contrary_result":"Contraction follows temperature without delay.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0010","id":"S8-0010","volume":"900v8","title":"A porous dielectric could distinguish water adsorption from polar-solvent adsorption through the curvature of its field-induced strain.","prediction":"A porous dielectric could distinguish water adsorption from polar-solvent adsorption through the curvature of its field-induced strain.","test":"Measure strain across independently calibrated uptake.","contrary":"Curvature follows permittivity alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0010","hypothesis":"A porous dielectric could distinguish water adsorption from polar-solvent adsorption through the curvature of its field-induced strain.","test":"Measure strain across independently calibrated uptake.","contrary_result":"Curvature follows permittivity alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0011","id":"S8-0011","volume":"900v8","title":"A granular layer could transmit a localized force sideways farther after gentle radial rather than linear preloading.","prediction":"A granular layer could transmit a localized force sideways farther after gentle radial rather than linear preloading.","test":"Map contact forces at matched density.","contrary":"Force spreading ignores preload geometry.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0011","hypothesis":"A granular layer could transmit a localized force sideways farther after gentle radial rather than linear preloading.","test":"Map contact forces at matched density.","contrary_result":"Force spreading ignores preload geometry.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0012","id":"S8-0012","volume":"900v8","title":"A liquid shell around a rigid bead could generate a delayed acoustic echo whose phase identifies shell drainage direction.","prediction":"A liquid shell around a rigid bead could generate a delayed acoustic echo whose phase identifies shell drainage direction.","test":"Measure shell shape and echoes.","contrary":"Echo phase indicates thickness only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0012","hypothesis":"A liquid shell around a rigid bead could generate a delayed acoustic echo whose phase identifies shell drainage direction.","test":"Measure shell shape and echoes.","contrary_result":"Echo phase indicates thickness only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0013","id":"S8-0013","volume":"900v8","title":"A stepped metal surface could develop alternating hot and cold bands under constant electrical current through reversible contact changes.","prediction":"A stepped metal surface could develop alternating hot and cold bands under constant electrical current through reversible contact changes.","test":"Map temperature and contacts.","contrary":"Bands require current modulation.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0013","hypothesis":"A stepped metal surface could develop alternating hot and cold bands under constant electrical current through reversible contact changes.","test":"Map temperature and contacts.","contrary_result":"Bands require current modulation.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0014","id":"S8-0014","volume":"900v8","title":"An inorganic adsorbent could retain a gas pulse's rise time in its subsequent pressure-relaxation tail.","prediction":"An inorganic adsorbent could retain a gas pulse's rise time in its subsequent pressure-relaxation tail.","test":"Match pulse dose and endpoints.","contrary":"Relaxation depends only on total uptake.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0014","hypothesis":"An inorganic adsorbent could retain a gas pulse's rise time in its subsequent pressure-relaxation tail.","test":"Match pulse dose and endpoints.","contrary_result":"Relaxation depends only on total uptake.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0015","id":"S8-0015","volume":"900v8","title":"A levitated mineral sphere could reveal a tiny liquid inclusion by a temperature-dependent reversal of optical torque.","prediction":"A levitated mineral sphere could reveal a tiny liquid inclusion by a temperature-dependent reversal of optical torque.","test":"Measure torque and inclusion state.","contrary":"Torque follows exterior birefringence only.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0015","hypothesis":"A levitated mineral sphere could reveal a tiny liquid inclusion by a temperature-dependent reversal of optical torque.","test":"Measure torque and inclusion state.","contrary_result":"Torque follows exterior birefringence only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0016","id":"S8-0016","volume":"900v8","title":"A pair of wet sliding surfaces could have lower wear under unequal dwell intervals than equal intervals at fixed total rest.","prediction":"A pair of wet sliding surfaces could have lower wear under unequal dwell intervals than equal intervals at fixed total rest.","test":"Measure wear and liquid redistribution.","contrary":"Wear depends only on total sliding distance.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0016","hypothesis":"A pair of wet sliding surfaces could have lower wear under unequal dwell intervals than equal intervals at fixed total rest.","test":"Measure wear and liquid redistribution.","contrary_result":"Wear depends only on total sliding distance.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0017","id":"S8-0017","volume":"900v8","title":"A bubble moving through a tapered elastic channel could leave a residual wall wave after its pressure disturbance has passed.","prediction":"A bubble moving through a tapered elastic channel could leave a residual wall wave after its pressure disturbance has passed.","test":"Image wall and pressure.","contrary":"Wall motion vanishes with the pressure pulse.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0017","hypothesis":"A bubble moving through a tapered elastic channel could leave a residual wall wave after its pressure disturbance has passed.","test":"Image wall and pressure.","contrary_result":"Wall motion vanishes with the pressure pulse.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0018","id":"S8-0018","volume":"900v8","title":"A frozen granular bridge could exhibit a temporary increase in tensile stiffness during slow sublimation.","prediction":"A frozen granular bridge could exhibit a temporary increase in tensile stiffness during slow sublimation.","test":"Measure neck geometry and stiffness.","contrary":"Stiffness decreases throughout.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0018","hypothesis":"A frozen granular bridge could exhibit a temporary increase in tensile stiffness during slow sublimation.","test":"Measure neck geometry and stiffness.","contrary_result":"Stiffness decreases throughout.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0019","id":"S8-0019","volume":"900v8","title":"A thermal gradient across a porous membrane could reverse its solute selectivity without reversing liquid flow.","prediction":"A thermal gradient across a porous membrane could reverse its solute selectivity without reversing liquid flow.","test":"Measure species fluxes and temperatures.","contrary":"Selectivity changes require reversed flow.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0019","hypothesis":"A thermal gradient across a porous membrane could reverse its solute selectivity without reversing liquid flow.","test":"Measure species fluxes and temperatures.","contrary_result":"Selectivity changes require reversed flow.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0020","id":"S8-0020","volume":"900v8","title":"A thin crystal could focus scattered light along a moving defect-healing front.","prediction":"A thin crystal could focus scattered light along a moving defect-healing front.","test":"Map defects and optical intensity.","contrary":"Focusing follows thickness variations only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0020","hypothesis":"A thin crystal could focus scattered light along a moving defect-healing front.","test":"Map defects and optical intensity.","contrary_result":"Focusing follows thickness variations only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0021","id":"S8-0021","volume":"900v8","title":"An alternating weak magnetic field could reduce settling variability in a suspension without changing its mean rate.","prediction":"An alternating weak magnetic field could reduce settling variability in a suspension without changing its mean rate.","test":"Measure independent particle trajectories.","contrary":"Variance changes only alongside the mean.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0021","hypothesis":"An alternating weak magnetic field could reduce settling variability in a suspension without changing its mean rate.","test":"Measure independent particle trajectories.","contrary_result":"Variance changes only alongside the mean.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0021","hypothesis":"An alternating weak magnetic field could reduce settling variability in a suspension without changing its mean rate.","test":"Measure independent particle trajectories.","contrary_result":"Variance changes only alongside the mean.","status":"Untested; novelty unverified","selection_rationale":"Independent trajectories separate settling variance from mean rate.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0022","id":"S8-0022","volume":"900v8","title":"A dissolving mineral needle could select one of two stable wake states through a brief rotation and retain it afterward.","prediction":"A dissolving mineral needle could select one of two stable wake states through a brief rotation and retain it afterward.","test":"Measure wake after restoring orientation.","contrary":"Wake immediately returns to its original state.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0022","hypothesis":"A dissolving mineral needle could select one of two stable wake states through a brief rotation and retain it afterward.","test":"Measure wake after restoring orientation.","contrary_result":"Wake immediately returns to its original state.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0023","id":"S8-0023","volume":"900v8","title":"A compliant gas pocket could filter concentration noise differently from pressure noise through selective interfacial absorption.","prediction":"A compliant gas pocket could filter concentration noise differently from pressure noise through selective interfacial absorption.","test":"Measure both transfer functions.","contrary":"Both channels share the same filtering.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0023","hypothesis":"A compliant gas pocket could filter concentration noise differently from pressure noise through selective interfacial absorption.","test":"Measure both transfer functions.","contrary_result":"Both channels share the same filtering.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0024","id":"S8-0024","volume":"900v8","title":"A stretched inorganic fiber could become optically less lossy during initial moisture uptake.","prediction":"A stretched inorganic fiber could become optically less lossy during initial moisture uptake.","test":"Measure uptake, strain and transmission.","contrary":"Loss increases monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0024","hypothesis":"A stretched inorganic fiber could become optically less lossy during initial moisture uptake.","test":"Measure uptake, strain and transmission.","contrary_result":"Loss increases monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0025","id":"S8-0025","volume":"900v8","title":"A packed bed could reveal fluid channel formation through a decrease in acoustic coda complexity before flow redistribution.","prediction":"A packed bed could reveal fluid channel formation through a decrease in acoustic coda complexity before flow redistribution.","test":"Measure coda and spatial flow.","contrary":"Flow redistribution precedes coda changes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0025","hypothesis":"A packed bed could reveal fluid channel formation through a decrease in acoustic coda complexity before flow redistribution.","test":"Measure coda and spatial flow.","contrary_result":"Flow redistribution precedes coda changes.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0026","id":"S8-0026","volume":"900v8","title":"A faceted droplet could have a vibration mode insensitive to uniform temperature but sensitive to one missing shell facet.","prediction":"A faceted droplet could have a vibration mode insensitive to uniform temperature but sensitive to one missing shell facet.","test":"Calibrate both perturbations.","contrary":"The mode responds equally to both.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0026","hypothesis":"A faceted droplet could have a vibration mode insensitive to uniform temperature but sensitive to one missing shell facet.","test":"Calibrate both perturbations.","contrary_result":"The mode responds equally to both.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0027","id":"S8-0027","volume":"900v8","title":"A transparent ceramic could retain the direction of a subfracture impulse in its polarization recovery.","prediction":"A transparent ceramic could retain the direction of a subfracture impulse in its polarization recovery.","test":"Reverse impulse direction.","contrary":"Recovery depends only on impulse energy.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0027","hypothesis":"A transparent ceramic could retain the direction of a subfracture impulse in its polarization recovery.","test":"Reverse impulse direction.","contrary_result":"Recovery depends only on impulse energy.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0028","id":"S8-0028","volume":"900v8","title":"A liquid annulus could develop an inward solute flux while its bulk liquid circulates outward near the free surface.","prediction":"A liquid annulus could develop an inward solute flux while its bulk liquid circulates outward near the free surface.","test":"Map concentration and flow.","contrary":"Solute transport follows local flow everywhere.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0028","hypothesis":"A liquid annulus could develop an inward solute flux while its bulk liquid circulates outward near the free surface.","test":"Map concentration and flow.","contrary_result":"Solute transport follows local flow everywhere.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0029","id":"S8-0029","volume":"900v8","title":"A porous magnetic film could change acoustic transmission more during desorption than adsorption at equal gas coverage.","prediction":"A porous magnetic film could change acoustic transmission more during desorption than adsorption at equal gas coverage.","test":"Match coverage histories.","contrary":"Transmission depends only on coverage.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0029","hypothesis":"A porous magnetic film could change acoustic transmission more during desorption than adsorption at equal gas coverage.","test":"Match coverage histories.","contrary_result":"Transmission depends only on coverage.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0030","id":"S8-0030","volume":"900v8","title":"A crystal-coated resonator could distinguish step-flow growth from island growth through different frequency-noise tails.","prediction":"A crystal-coated resonator could distinguish step-flow growth from island growth through different frequency-noise tails.","test":"Image growth while measuring noise.","contrary":"Noise tracks total added mass only.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0030","hypothesis":"A crystal-coated resonator could distinguish step-flow growth from island growth through different frequency-noise tails.","test":"Image growth while measuring noise.","contrary_result":"Noise tracks total added mass only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0031","id":"S8-0031","volume":"900v8","title":"A shallow granular crater could redirect later impacts through a hidden contact anisotropy after the surface is leveled.","prediction":"A shallow granular crater could redirect later impacts through a hidden contact anisotropy after the surface is leveled.","test":"Map trajectories and contacts.","contrary":"Leveling erases all directional response.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0031","hypothesis":"A shallow granular crater could redirect later impacts through a hidden contact anisotropy after the surface is leveled.","test":"Map trajectories and contacts.","contrary_result":"Leveling erases all directional response.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0032","id":"S8-0032","volume":"900v8","title":"A pair of facing ice surfaces could synchronize sublimation roughness through shared vapor transport.","prediction":"A pair of facing ice surfaces could synchronize sublimation roughness through shared vapor transport.","test":"Measure correlated surface evolution.","contrary":"Correlations vanish after thermal drift removal.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0032","hypothesis":"A pair of facing ice surfaces could synchronize sublimation roughness through shared vapor transport.","test":"Measure correlated surface evolution.","contrary_result":"Correlations vanish after thermal drift removal.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0033","id":"S8-0033","volume":"900v8","title":"A flowing nonliving colloid could show a maximum in recoverable elastic energy at intermediate gas content.","prediction":"A flowing nonliving colloid could show a maximum in recoverable elastic energy at intermediate gas content.","test":"Measure gas fraction and rheology.","contrary":"Energy changes monotonically.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0033","hypothesis":"A flowing nonliving colloid could show a maximum in recoverable elastic energy at intermediate gas content.","test":"Measure gas fraction and rheology.","contrary_result":"Energy changes monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0034","id":"S8-0034","volume":"900v8","title":"A hollow ceramic grain could release an internal liquid droplet when externally cooled despite reduced internal vapor pressure.","prediction":"A hollow ceramic grain could release an internal liquid droplet when externally cooled despite reduced internal vapor pressure.","test":"Image release and pressure.","contrary":"Release requires warming.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0034","hypothesis":"A hollow ceramic grain could release an internal liquid droplet when externally cooled despite reduced internal vapor pressure.","test":"Image release and pressure.","contrary_result":"Release requires warming.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0035","id":"S8-0035","volume":"900v8","title":"A temperature-controlled crystal junction could rectify acoustic pulse energy through delayed contact opening.","prediction":"A temperature-controlled crystal junction could rectify acoustic pulse energy through delayed contact opening.","test":"Reverse incident pulse direction.","contrary":"Transmission remains symmetric at all amplitudes.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0035","hypothesis":"A temperature-controlled crystal junction could rectify acoustic pulse energy through delayed contact opening.","test":"Reverse incident pulse direction.","contrary_result":"Transmission remains symmetric at all amplitudes.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0036","id":"S8-0036","volume":"900v8","title":"A thin mineral film could indicate hidden substrate stress through a shifting dissolution-noise correlation length.","prediction":"A thin mineral film could indicate hidden substrate stress through a shifting dissolution-noise correlation length.","test":"Measure stress and dissolution maps.","contrary":"Correlation length follows mean rate only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0036","hypothesis":"A thin mineral film could indicate hidden substrate stress through a shifting dissolution-noise correlation length.","test":"Measure stress and dissolution maps.","contrary_result":"Correlation length follows mean rate only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0037","id":"S8-0037","volume":"900v8","title":"A vapor-filled capillary could preserve a pressure pulse's asymmetry in its later condensation pattern.","prediction":"A vapor-filled capillary could preserve a pressure pulse's asymmetry in its later condensation pattern.","test":"Compare pulses at equal pressure extrema.","contrary":"Pattern depends only on minimum temperature.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0037","hypothesis":"A vapor-filled capillary could preserve a pressure pulse's asymmetry in its later condensation pattern.","test":"Compare pulses at equal pressure extrema.","contrary_result":"Pattern depends only on minimum temperature.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0038","id":"S8-0038","volume":"900v8","title":"An adsorbing metal mesh could generate a transient bending wave as surface coverage crosses a mechanical threshold.","prediction":"An adsorbing metal mesh could generate a transient bending wave as surface coverage crosses a mechanical threshold.","test":"Measure coverage and curvature fields.","contrary":"Bending is spatially uniform.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0038","hypothesis":"An adsorbing metal mesh could generate a transient bending wave as surface coverage crosses a mechanical threshold.","test":"Measure coverage and curvature fields.","contrary_result":"Bending is spatially uniform.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0039","id":"S8-0039","volume":"900v8","title":"A porous plate could develop a reversible permeability increase during weak tensile oscillation even at zero mean strain.","prediction":"A porous plate could develop a reversible permeability increase during weak tensile oscillation even at zero mean strain.","test":"Measure mean flux and pore motion.","contrary":"Flux follows mean aperture only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0039","hypothesis":"A porous plate could develop a reversible permeability increase during weak tensile oscillation even at zero mean strain.","test":"Measure mean flux and pore motion.","contrary_result":"Flux follows mean aperture only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0040","id":"S8-0040","volume":"900v8","title":"A crystalline shell could transmit pressure more uniformly when it contains one deliberately soft seam.","prediction":"A crystalline shell could transmit pressure more uniformly when it contains one deliberately soft seam.","test":"Map internal pressure and shell strain.","contrary":"The seam always increases nonuniformity.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0040","hypothesis":"A crystalline shell could transmit pressure more uniformly when it contains one deliberately soft seam.","test":"Map internal pressure and shell strain.","contrary_result":"The seam always increases nonuniformity.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0041","id":"S8-0041","volume":"900v8","title":"A liquid film could distinguish a scratched support from an adsorbing contaminant through opposite wave-scattering phase.","prediction":"A liquid film could distinguish a scratched support from an adsorbing contaminant through opposite wave-scattering phase.","test":"Calibrate defect types.","contrary":"Scattering phases are indistinguishable.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0041","hypothesis":"A liquid film could distinguish a scratched support from an adsorbing contaminant through opposite wave-scattering phase.","test":"Calibrate defect types.","contrary_result":"Scattering phases are indistinguishable.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0041","hypothesis":"A liquid film could distinguish a scratched support from an adsorbing contaminant through opposite wave-scattering phase.","test":"Calibrate defect types.","contrary_result":"Scattering phases are indistinguishable.","status":"Untested; novelty unverified","selection_rationale":"Calibrated scratch and adsorption controls challenge phase specificity.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0042","id":"S8-0042","volume":"900v8","title":"A magnetic particle chain could transfer heat preferentially through a transient kink during field rotation.","prediction":"A magnetic particle chain could transfer heat preferentially through a transient kink during field rotation.","test":"Measure contacts and heat paths.","contrary":"Heat follows instantaneous chain length only.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0042","hypothesis":"A magnetic particle chain could transfer heat preferentially through a transient kink during field rotation.","test":"Measure contacts and heat paths.","contrary_result":"Heat follows instantaneous chain length only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0043","id":"S8-0043","volume":"900v8","title":"A drying porous disk could display a ring of minimum acoustic attenuation ahead of its visible drying front.","prediction":"A drying porous disk could display a ring of minimum acoustic attenuation ahead of its visible drying front.","test":"Map attenuation and water content.","contrary":"Attenuation follows average saturation only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0043","hypothesis":"A drying porous disk could display a ring of minimum acoustic attenuation ahead of its visible drying front.","test":"Map attenuation and water content.","contrary_result":"Attenuation follows average saturation only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0044","id":"S8-0044","volume":"900v8","title":"A pair of mineral grains could exchange adsorbed water cyclically under a steady thermal gradient without exchanging bulk liquid.","prediction":"A pair of mineral grains could exchange adsorbed water cyclically under a steady thermal gradient without exchanging bulk liquid.","test":"Measure each grain's mass.","contrary":"Water transfer approaches equilibrium monotonically.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0044","hypothesis":"A pair of mineral grains could exchange adsorbed water cyclically under a steady thermal gradient without exchanging bulk liquid.","test":"Measure each grain's mass.","contrary_result":"Water transfer approaches equilibrium monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0045","id":"S8-0045","volume":"900v8","title":"A charged fluid interface could show a temporary reduction in wave damping after a weak neutralizing pulse.","prediction":"A charged fluid interface could show a temporary reduction in wave damping after a weak neutralizing pulse.","test":"Measure potential and ringdown.","contrary":"Damping varies monotonically with charge.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0045","hypothesis":"A charged fluid interface could show a temporary reduction in wave damping after a weak neutralizing pulse.","test":"Measure potential and ringdown.","contrary_result":"Damping varies monotonically with charge.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0046","id":"S8-0046","volume":"900v8","title":"A nonliving cellulose crystal network could recover optical alignment after humidity cycling before recovering tensile stiffness.","prediction":"A nonliving cellulose crystal network could recover optical alignment after humidity cycling before recovering tensile stiffness.","test":"Measure orientation and modulus.","contrary":"Both recover together.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0046","hypothesis":"A nonliving cellulose crystal network could recover optical alignment after humidity cycling before recovering tensile stiffness.","test":"Measure orientation and modulus.","contrary_result":"Both recover together.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0047","id":"S8-0047","volume":"900v8","title":"A thin gas layer could stabilize a liquid jet against one breakup mode while destabilizing another.","prediction":"A thin gas layer could stabilize a liquid jet against one breakup mode while destabilizing another.","test":"Measure mode-specific growth.","contrary":"All modes change in the same direction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0047","hypothesis":"A thin gas layer could stabilize a liquid jet against one breakup mode while destabilizing another.","test":"Measure mode-specific growth.","contrary_result":"All modes change in the same direction.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0048","id":"S8-0048","volume":"900v8","title":"A porous crystal could distinguish trapped gas dissolution from mechanical pore collapse through opposite acoustic phase shifts.","prediction":"A porous crystal could distinguish trapped gas dissolution from mechanical pore collapse through opposite acoustic phase shifts.","test":"Induce both routes separately.","contrary":"Phase changes follow porosity alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0048","hypothesis":"A porous crystal could distinguish trapped gas dissolution from mechanical pore collapse through opposite acoustic phase shifts.","test":"Induce both routes separately.","contrary_result":"Phase changes follow porosity alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0049","id":"S8-0049","volume":"900v8","title":"A compliant thermal contact could show enhanced conductance after an off-center rather than centered load pulse.","prediction":"A compliant thermal contact could show enhanced conductance after an off-center rather than centered load pulse.","test":"Match peak load and work.","contrary":"Conductance depends only on contact area.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0049","hypothesis":"A compliant thermal contact could show enhanced conductance after an off-center rather than centered load pulse.","test":"Match peak load and work.","contrary_result":"Conductance depends only on contact area.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0050","id":"S8-0050","volume":"900v8","title":"A binary salt crystal could exhibit a reversible electrical-noise peak as its hydration boundary crosses an internal grain boundary.","prediction":"A binary salt crystal could exhibit a reversible electrical-noise peak as its hydration boundary crosses an internal grain boundary.","test":"Track hydration and noise.","contrary":"Noise peaks ignore boundary positions.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0050","hypothesis":"A binary salt crystal could exhibit a reversible electrical-noise peak as its hydration boundary crosses an internal grain boundary.","test":"Track hydration and noise.","contrary_result":"Noise peaks ignore boundary positions.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0051","id":"S8-0051","volume":"900v8","title":"A cooling dielectric particle could rotate against its previous electric alignment through delayed surface-charge relaxation.","prediction":"A cooling dielectric particle could rotate against its previous electric alignment through delayed surface-charge relaxation.","test":"Measure rotation and charge.","contrary":"Rotation follows the instantaneous field only.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0051","hypothesis":"A cooling dielectric particle could rotate against its previous electric alignment through delayed surface-charge relaxation.","test":"Measure rotation and charge.","contrary_result":"Rotation follows the instantaneous field only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0052","id":"S8-0052","volume":"900v8","title":"A liquid-loaded cantilever could distinguish gas absorption from evaporation through opposite shifts in two nonlinear resonances.","prediction":"A liquid-loaded cantilever could distinguish gas absorption from evaporation through opposite shifts in two nonlinear resonances.","test":"Calibrate both processes.","contrary":"Shifts depend only on total mass.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0052","hypothesis":"A liquid-loaded cantilever could distinguish gas absorption from evaporation through opposite shifts in two nonlinear resonances.","test":"Calibrate both processes.","contrary_result":"Shifts depend only on total mass.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0053","id":"S8-0053","volume":"900v8","title":"A mineral suspension could develop a transient inversion in particle-size ordering during slow sedimentation without aggregation.","prediction":"A mineral suspension could develop a transient inversion in particle-size ordering during slow sedimentation without aggregation.","test":"Track sizes and velocities.","contrary":"Size ordering remains fixed.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0053","hypothesis":"A mineral suspension could develop a transient inversion in particle-size ordering during slow sedimentation without aggregation.","test":"Track sizes and velocities.","contrary_result":"Size ordering remains fixed.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0054","id":"S8-0054","volume":"900v8","title":"A weakly illuminated oxide surface could shift its preferred condensation site after light is removed.","prediction":"A weakly illuminated oxide surface could shift its preferred condensation site after light is removed.","test":"Map charge, temperature and nucleation.","contrary":"Sites return immediately to baseline.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0054","hypothesis":"A weakly illuminated oxide surface could shift its preferred condensation site after light is removed.","test":"Map charge, temperature and nucleation.","contrary_result":"Sites return immediately to baseline.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0055","id":"S8-0055","volume":"900v8","title":"A thin ice layer could exhibit a reversible acoustic transparency window when its grain boundaries partially thaw.","prediction":"A thin ice layer could exhibit a reversible acoustic transparency window when its grain boundaries partially thaw.","test":"Measure boundary water and transmission.","contrary":"Transmission varies smoothly without a window.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0055","hypothesis":"A thin ice layer could exhibit a reversible acoustic transparency window when its grain boundaries partially thaw.","test":"Measure boundary water and transmission.","contrary_result":"Transmission varies smoothly without a window.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0056","id":"S8-0056","volume":"900v8","title":"A porous sphere could temporarily accelerate upward as its trapped gas dissolves through asymmetric water uptake.","prediction":"A porous sphere could temporarily accelerate upward as its trapped gas dissolves through asymmetric water uptake.","test":"Measure buoyancy, drag and trajectory.","contrary":"It decelerates monotonically toward sinking.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0056","hypothesis":"A porous sphere could temporarily accelerate upward as its trapped gas dissolves through asymmetric water uptake.","test":"Measure buoyancy, drag and trajectory.","contrary_result":"It decelerates monotonically toward sinking.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0057","id":"S8-0057","volume":"900v8","title":"A narrow solvent-free dielectric gap could reveal adsorbate clustering through non-Gaussian force fluctuations.","prediction":"A narrow solvent-free dielectric gap could reveal adsorbate clustering through non-Gaussian force fluctuations.","test":"Measure forces and surface coverage.","contrary":"Fluctuations remain Gaussian after drift correction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0057","hypothesis":"A narrow solvent-free dielectric gap could reveal adsorbate clustering through non-Gaussian force fluctuations.","test":"Measure forces and surface coverage.","contrary_result":"Fluctuations remain Gaussian after drift correction.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0058","id":"S8-0058","volume":"900v8","title":"A mechanically loaded luminescent crystal could separate reversible stress from permanent defects through different delayed-emission polarization.","prediction":"A mechanically loaded luminescent crystal could separate reversible stress from permanent defects through different delayed-emission polarization.","test":"Calibrate both conditions.","contrary":"Polarization signatures coincide.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0058","hypothesis":"A mechanically loaded luminescent crystal could separate reversible stress from permanent defects through different delayed-emission polarization.","test":"Calibrate both conditions.","contrary_result":"Polarization signatures coincide.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0059","id":"S8-0059","volume":"900v8","title":"A thin granular coating could arrest a propagating delamination by dilating locally before the front arrives.","prediction":"A thin granular coating could arrest a propagating delamination by dilating locally before the front arrives.","test":"Image grain motion and front speed.","contrary":"Dilation follows delamination.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0059","hypothesis":"A thin granular coating could arrest a propagating delamination by dilating locally before the front arrives.","test":"Image grain motion and front speed.","contrary_result":"Dilation follows delamination.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0060","id":"S8-0060","volume":"900v8","title":"A moving liquid meniscus could transfer angular momentum to an anisotropic suspended particle without direct contact.","prediction":"A moving liquid meniscus could transfer angular momentum to an anisotropic suspended particle without direct contact.","test":"Measure particle rotation and flow.","contrary":"Rotation requires contact-line attachment.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0060","hypothesis":"A moving liquid meniscus could transfer angular momentum to an anisotropic suspended particle without direct contact.","test":"Measure particle rotation and flow.","contrary_result":"Rotation requires contact-line attachment.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0061","id":"S8-0061","volume":"900v8","title":"A weakly conducting ceramic could store the spacing of two humidity pulses in its later relaxation spectrum.","prediction":"A weakly conducting ceramic could store the spacing of two humidity pulses in its later relaxation spectrum.","test":"Match final uptake and charge.","contrary":"Spectrum depends only on final state.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0061","hypothesis":"A weakly conducting ceramic could store the spacing of two humidity pulses in its later relaxation spectrum.","test":"Match final uptake and charge.","contrary_result":"Spectrum depends only on final state.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0061","hypothesis":"A weakly conducting ceramic could store the spacing of two humidity pulses in its later relaxation spectrum.","test":"Match final uptake and charge.","contrary_result":"Spectrum depends only on final state.","status":"Untested; novelty unverified","selection_rationale":"Matched final uptake makes pulse-spacing memory falsifiable.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0062","id":"S8-0062","volume":"900v8","title":"A nonuniformly frozen droplet could release a localized acoustic pulse before its internal gas pocket connects to the exterior.","prediction":"A nonuniformly frozen droplet could release a localized acoustic pulse before its internal gas pocket connects to the exterior.","test":"Measure acoustics and imaging.","contrary":"Pulse follows vent opening.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0062","hypothesis":"A nonuniformly frozen droplet could release a localized acoustic pulse before its internal gas pocket connects to the exterior.","test":"Measure acoustics and imaging.","contrary_result":"Pulse follows vent opening.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0063","id":"S8-0063","volume":"900v8","title":"A crystalline waveguide could exhibit enhanced transmission after reversible point-defect redistribution despite unchanged mean defect density.","prediction":"A crystalline waveguide could exhibit enhanced transmission after reversible point-defect redistribution despite unchanged mean defect density.","test":"Map defect distribution and waves.","contrary":"Only mean density predicts transmission.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0063","hypothesis":"A crystalline waveguide could exhibit enhanced transmission after reversible point-defect redistribution despite unchanged mean defect density.","test":"Map defect distribution and waves.","contrary_result":"Only mean density predicts transmission.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0064","id":"S8-0064","volume":"900v8","title":"A thin liquid lens could detect subsurface thermal anisotropy from its azimuthal oscillation pattern.","prediction":"A thin liquid lens could detect subsurface thermal anisotropy from its azimuthal oscillation pattern.","test":"Measure lens modes on calibrated substrates.","contrary":"Modes follow lens geometry only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0064","hypothesis":"A thin liquid lens could detect subsurface thermal anisotropy from its azimuthal oscillation pattern.","test":"Measure lens modes on calibrated substrates.","contrary_result":"Modes follow lens geometry only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0065","id":"S8-0065","volume":"900v8","title":"A compressed porous mineral could expel dissolved solute faster than solvent through reversible adsorption-site collapse.","prediction":"A compressed porous mineral could expel dissolved solute faster than solvent through reversible adsorption-site collapse.","test":"Measure effluent composition and strain.","contrary":"Effluent concentration stays constant.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0065","hypothesis":"A compressed porous mineral could expel dissolved solute faster than solvent through reversible adsorption-site collapse.","test":"Measure effluent composition and strain.","contrary_result":"Effluent concentration stays constant.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0066","id":"S8-0066","volume":"900v8","title":"A magnetic inclusion could rotate a local crack trajectory under a field too weak to move the whole specimen.","prediction":"A magnetic inclusion could rotate a local crack trajectory under a field too weak to move the whole specimen.","test":"Map strain and crack paths.","contrary":"Changes require bulk specimen motion.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0066","hypothesis":"A magnetic inclusion could rotate a local crack trajectory under a field too weak to move the whole specimen.","test":"Map strain and crack paths.","contrary_result":"Changes require bulk specimen motion.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0067","id":"S8-0067","volume":"900v8","title":"A suspended salt film could produce delayed torsion during uniform drying through unequal crystallographic expansion axes.","prediction":"A suspended salt film could produce delayed torsion during uniform drying through unequal crystallographic expansion axes.","test":"Measure orientation and strain.","contrary":"Torsion requires an asymmetric evaporation field.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0067","hypothesis":"A suspended salt film could produce delayed torsion during uniform drying through unequal crystallographic expansion axes.","test":"Measure orientation and strain.","contrary_result":"Torsion requires an asymmetric evaporation field.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0068","id":"S8-0068","volume":"900v8","title":"A liquid-filled cavity could distinguish slow wall creep from fluid leakage through opposite shifts in pressure-noise bandwidth.","prediction":"A liquid-filled cavity could distinguish slow wall creep from fluid leakage through opposite shifts in pressure-noise bandwidth.","test":"Calibrate both mechanisms.","contrary":"Bandwidth follows mean pressure only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0068","hypothesis":"A liquid-filled cavity could distinguish slow wall creep from fluid leakage through opposite shifts in pressure-noise bandwidth.","test":"Calibrate both mechanisms.","contrary_result":"Bandwidth follows mean pressure only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0069","id":"S8-0069","volume":"900v8","title":"A thin metal foil could recover electrical conductance before thermal conductance after reversible contact reclosure.","prediction":"A thin metal foil could recover electrical conductance before thermal conductance after reversible contact reclosure.","test":"Measure both channels simultaneously.","contrary":"Recovery ordering is fixed in the opposite direction.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0069","hypothesis":"A thin metal foil could recover electrical conductance before thermal conductance after reversible contact reclosure.","test":"Measure both channels simultaneously.","contrary_result":"Recovery ordering is fixed in the opposite direction.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0070","id":"S8-0070","volume":"900v8","title":"A porous grain bed could redirect a vapor pulse around a hot region without diverting the carrier gas.","prediction":"A porous grain bed could redirect a vapor pulse around a hot region without diverting the carrier gas.","test":"Measure vapor and carrier paths.","contrary":"Both species follow identical paths.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0070","hypothesis":"A porous grain bed could redirect a vapor pulse around a hot region without diverting the carrier gas.","test":"Measure vapor and carrier paths.","contrary_result":"Both species follow identical paths.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0071","id":"S8-0071","volume":"900v8","title":"A liquid interface could preserve a weak impulse's direction in its later capillary-wave phase after shape recovery.","prediction":"A liquid interface could preserve a weak impulse's direction in its later capillary-wave phase after shape recovery.","test":"Reverse impulse direction.","contrary":"Phase records only impulse magnitude.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0071","hypothesis":"A liquid interface could preserve a weak impulse's direction in its later capillary-wave phase after shape recovery.","test":"Reverse impulse direction.","contrary_result":"Phase records only impulse magnitude.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0072","id":"S8-0072","volume":"900v8","title":"A transparent stone analogue could reveal internal salt precipitation through acoustic mode coupling before mass gain is resolved.","prediction":"A transparent stone analogue could reveal internal salt precipitation through acoustic mode coupling before mass gain is resolved.","test":"Measure both with stated sensitivity.","contrary":"Mass change is detected first.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0072","hypothesis":"A transparent stone analogue could reveal internal salt precipitation through acoustic mode coupling before mass gain is resolved.","test":"Measure both with stated sensitivity.","contrary_result":"Mass change is detected first.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0073","id":"S8-0073","volume":"900v8","title":"A weakly twisted elastic tube could guide bubbles into alternating wall contacts under steady flow.","prediction":"A weakly twisted elastic tube could guide bubbles into alternating wall contacts under steady flow.","test":"Image trajectories and wall motion.","contrary":"Contacts are random after geometry correction.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0073","hypothesis":"A weakly twisted elastic tube could guide bubbles into alternating wall contacts under steady flow.","test":"Image trajectories and wall motion.","contrary_result":"Contacts are random after geometry correction.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0074","id":"S8-0074","volume":"900v8","title":"A crystalline hydrate could release water preferentially from mechanically compressed facets at constant temperature.","prediction":"A crystalline hydrate could release water preferentially from mechanically compressed facets at constant temperature.","test":"Measure facet flux and stress.","contrary":"Flux depends only on exposed area.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0074","hypothesis":"A crystalline hydrate could release water preferentially from mechanically compressed facets at constant temperature.","test":"Measure facet flux and stress.","contrary_result":"Flux depends only on exposed area.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0075","id":"S8-0075","volume":"900v8","title":"A sparse particle raft could suppress thermal convection through collective rotation without forming a continuous surface barrier.","prediction":"A sparse particle raft could suppress thermal convection through collective rotation without forming a continuous surface barrier.","test":"Measure rotation and heat transport.","contrary":"Suppression requires continuous coverage.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0075","hypothesis":"A sparse particle raft could suppress thermal convection through collective rotation without forming a continuous surface barrier.","test":"Measure rotation and heat transport.","contrary_result":"Suppression requires continuous coverage.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0076","id":"S8-0076","volume":"900v8","title":"A thin dielectric coating could show reduced field noise after partial rather than complete discharge.","prediction":"A thin dielectric coating could show reduced field noise after partial rather than complete discharge.","test":"Measure charge maps and noise.","contrary":"Noise decreases monotonically with charge removal.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0076","hypothesis":"A thin dielectric coating could show reduced field noise after partial rather than complete discharge.","test":"Measure charge maps and noise.","contrary_result":"Noise decreases monotonically with charge removal.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0077","id":"S8-0077","volume":"900v8","title":"A pair of elastic cavities could exchange a pressure pulse more efficiently when initially detuned.","prediction":"A pair of elastic cavities could exchange a pressure pulse more efficiently when initially detuned.","test":"Measure transfer versus detuning.","contrary":"Transfer is maximal at equal resonance.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0077","hypothesis":"A pair of elastic cavities could exchange a pressure pulse more efficiently when initially detuned.","test":"Measure transfer versus detuning.","contrary_result":"Transfer is maximal at equal resonance.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0078","id":"S8-0078","volume":"900v8","title":"A mineral-coated fiber could distinguish dissolved ion exchange from surface erosion through opposite changes in torsional relaxation.","prediction":"A mineral-coated fiber could distinguish dissolved ion exchange from surface erosion through opposite changes in torsional relaxation.","test":"Calibrate separately.","contrary":"Relaxation follows diameter only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0078","hypothesis":"A mineral-coated fiber could distinguish dissolved ion exchange from surface erosion through opposite changes in torsional relaxation.","test":"Calibrate separately.","contrary_result":"Relaxation follows diameter only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0079","id":"S8-0079","volume":"900v8","title":"A narrow freezing channel could expel a bubble sideways before the solidification front reaches it through elastic wall motion.","prediction":"A narrow freezing channel could expel a bubble sideways before the solidification front reaches it through elastic wall motion.","test":"Image wall and bubble.","contrary":"Motion begins only at front contact.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0079","hypothesis":"A narrow freezing channel could expel a bubble sideways before the solidification front reaches it through elastic wall motion.","test":"Image wall and bubble.","contrary_result":"Motion begins only at front contact.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0080","id":"S8-0080","volume":"900v8","title":"A nonliving porous shell could retain an acoustic pulse's frequency in its later liquid-drainage intermittency.","prediction":"A nonliving porous shell could retain an acoustic pulse's frequency in its later liquid-drainage intermittency.","test":"Match acoustic energy.","contrary":"Drainage depends only on energy.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0080","hypothesis":"A nonliving porous shell could retain an acoustic pulse's frequency in its later liquid-drainage intermittency.","test":"Match acoustic energy.","contrary_result":"Drainage depends only on energy.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0081","id":"S8-0081","volume":"900v8","title":"A heated porous ring could support alternating inner and outer evaporation maxima under constant power.","prediction":"A heated porous ring could support alternating inner and outer evaporation maxima under constant power.","test":"Map heat and local water loss.","contrary":"One boundary always dominates.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0081","hypothesis":"A heated porous ring could support alternating inner and outer evaporation maxima under constant power.","test":"Map heat and local water loss.","contrary_result":"One boundary always dominates.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0081","hypothesis":"A heated porous ring could support alternating inner and outer evaporation maxima under constant power.","test":"Map heat and local water loss.","contrary_result":"One boundary always dominates.","status":"Untested; novelty unverified","selection_rationale":"Infrared imaging and gravimetry can resolve alternating evaporation zones.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0082","id":"S8-0082","volume":"900v8","title":"A rough crystal interface could develop lower friction after a weak perpendicular acoustic pulse without measurable wear.","prediction":"A rough crystal interface could develop lower friction after a weak perpendicular acoustic pulse without measurable wear.","test":"Measure friction and morphology.","contrary":"Improvement requires surface damage.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0082","hypothesis":"A rough crystal interface could develop lower friction after a weak perpendicular acoustic pulse without measurable wear.","test":"Measure friction and morphology.","contrary_result":"Improvement requires surface damage.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0083","id":"S8-0083","volume":"900v8","title":"A magnetically aligned granular bed could reveal hidden hydration through a reversal in its torque-noise anisotropy.","prediction":"A magnetically aligned granular bed could reveal hidden hydration through a reversal in its torque-noise anisotropy.","test":"Measure water content and directional noise.","contrary":"Anisotropy retains its sign.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0083","hypothesis":"A magnetically aligned granular bed could reveal hidden hydration through a reversal in its torque-noise anisotropy.","test":"Measure water content and directional noise.","contrary_result":"Anisotropy retains its sign.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0084","id":"S8-0084","volume":"900v8","title":"A shrinking liquid bridge could trap a particle at a mechanically unstable position through delayed contact-line motion.","prediction":"A shrinking liquid bridge could trap a particle at a mechanically unstable position through delayed contact-line motion.","test":"Measure particle and interface dynamics.","contrary":"Particle follows instantaneous force balance.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0084","hypothesis":"A shrinking liquid bridge could trap a particle at a mechanically unstable position through delayed contact-line motion.","test":"Measure particle and interface dynamics.","contrary_result":"Particle follows instantaneous force balance.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0085","id":"S8-0085","volume":"900v8","title":"A thin porous ceramic could exhibit a transient increase in reflectance while its total water content increases.","prediction":"A thin porous ceramic could exhibit a transient increase in reflectance while its total water content increases.","test":"Measure spectra and uptake.","contrary":"Reflectance decreases monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0085","hypothesis":"A thin porous ceramic could exhibit a transient increase in reflectance while its total water content increases.","test":"Measure spectra and uptake.","contrary_result":"Reflectance decreases monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0086","id":"S8-0086","volume":"900v8","title":"A compliant crystal mount could reduce optical frequency drift by allowing controlled interfacial slip.","prediction":"A compliant crystal mount could reduce optical frequency drift by allowing controlled interfacial slip.","test":"Measure slip, strain and spectra.","contrary":"Slip adds noise without reducing drift.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0086","hypothesis":"A compliant crystal mount could reduce optical frequency drift by allowing controlled interfacial slip.","test":"Measure slip, strain and spectra.","contrary_result":"Slip adds noise without reducing drift.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0087","id":"S8-0087","volume":"900v8","title":"A growing mineral needle could mechanically inhibit a neighboring needle before their solute-depletion fields overlap.","prediction":"A growing mineral needle could mechanically inhibit a neighboring needle before their solute-depletion fields overlap.","test":"Map stress and concentration.","contrary":"Inhibition requires concentration overlap.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0087","hypothesis":"A growing mineral needle could mechanically inhibit a neighboring needle before their solute-depletion fields overlap.","test":"Map stress and concentration.","contrary_result":"Inhibition requires concentration overlap.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0088","id":"S8-0088","volume":"900v8","title":"A fluid-saturated elastic lattice could transmit an impulse through a route selected by its previous drainage direction.","prediction":"A fluid-saturated elastic lattice could transmit an impulse through a route selected by its previous drainage direction.","test":"Match final saturation.","contrary":"Route depends only on final liquid volume.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0088","hypothesis":"A fluid-saturated elastic lattice could transmit an impulse through a route selected by its previous drainage direction.","test":"Match final saturation.","contrary_result":"Route depends only on final liquid volume.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0089","id":"S8-0089","volume":"900v8","title":"A trapped bubble could reveal a nearby microcrack through a change in its shape-mode damping before pressure leakage.","prediction":"A trapped bubble could reveal a nearby microcrack through a change in its shape-mode damping before pressure leakage.","test":"Measure damping and leak rate.","contrary":"Leakage is detected first.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0089","hypothesis":"A trapped bubble could reveal a nearby microcrack through a change in its shape-mode damping before pressure leakage.","test":"Measure damping and leak rate.","contrary_result":"Leakage is detected first.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0090","id":"S8-0090","volume":"900v8","title":"A heated dielectric film could redistribute charge into a cooler ring while its net charge remains constant.","prediction":"A heated dielectric film could redistribute charge into a cooler ring while its net charge remains constant.","test":"Map temperature and charge.","contrary":"Charge density follows temperature monotonically.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0090","hypothesis":"A heated dielectric film could redistribute charge into a cooler ring while its net charge remains constant.","test":"Map temperature and charge.","contrary_result":"Charge density follows temperature monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0091","id":"S8-0091","volume":"900v8","title":"A granular monolayer could distinguish slow humidity drift from rapid misting through opposite changes in rotational stiffness.","prediction":"A granular monolayer could distinguish slow humidity drift from rapid misting through opposite changes in rotational stiffness.","test":"Match final water content.","contrary":"Stiffness follows water content only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0091","hypothesis":"A granular monolayer could distinguish slow humidity drift from rapid misting through opposite changes in rotational stiffness.","test":"Match final water content.","contrary_result":"Stiffness follows water content only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0092","id":"S8-0092","volume":"900v8","title":"A binary liquid mixture could generate an internal concentration maximum after a symmetric evaporation pulse.","prediction":"A binary liquid mixture could generate an internal concentration maximum after a symmetric evaporation pulse.","test":"Map composition through depth.","contrary":"Profiles remain monotonic.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0092","hypothesis":"A binary liquid mixture could generate an internal concentration maximum after a symmetric evaporation pulse.","test":"Map composition through depth.","contrary_result":"Profiles remain monotonic.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0093","id":"S8-0093","volume":"900v8","title":"A mineral membrane could change acoustic handedness when one side adsorbs vapor without changing its visible curvature.","prediction":"A mineral membrane could change acoustic handedness when one side adsorbs vapor without changing its visible curvature.","test":"Measure polarization and curvature.","contrary":"Handedness changes require bending.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0093","hypothesis":"A mineral membrane could change acoustic handedness when one side adsorbs vapor without changing its visible curvature.","test":"Measure polarization and curvature.","contrary_result":"Handedness changes require bending.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0094","id":"S8-0094","volume":"900v8","title":"A particle-coated bubble could retain a pressure cycle's direction in its subsequent dissolution shape.","prediction":"A particle-coated bubble could retain a pressure cycle's direction in its subsequent dissolution shape.","test":"Reverse cycle direction at matched endpoints.","contrary":"Shape depends only on gas volume.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0094","hypothesis":"A particle-coated bubble could retain a pressure cycle's direction in its subsequent dissolution shape.","test":"Reverse cycle direction at matched endpoints.","contrary_result":"Shape depends only on gas volume.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0095","id":"S8-0095","volume":"900v8","title":"A suspended transparent plate could measure directional gas flow through unequal thermal sideband widths.","prediction":"A suspended transparent plate could measure directional gas flow through unequal thermal sideband widths.","test":"Reverse flow and monitor temperature.","contrary":"Widths depend only on speed magnitude.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0095","hypothesis":"A suspended transparent plate could measure directional gas flow through unequal thermal sideband widths.","test":"Reverse flow and monitor temperature.","contrary_result":"Widths depend only on speed magnitude.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0096","id":"S8-0096","volume":"900v8","title":"A soft granular inclusion could protect a brittle matrix more after partial saturation than either dry or fully wet conditions.","prediction":"A soft granular inclusion could protect a brittle matrix more after partial saturation than either dry or fully wet conditions.","test":"Measure fracture and local strain.","contrary":"Protection varies monotonically with saturation.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0096","hypothesis":"A soft granular inclusion could protect a brittle matrix more after partial saturation than either dry or fully wet conditions.","test":"Measure fracture and local strain.","contrary_result":"Protection varies monotonically with saturation.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0097","id":"S8-0097","volume":"900v8","title":"A gas-permeable crystal shell could generate a temporary concentration ring during vapor exchange at constant total pressure.","prediction":"A gas-permeable crystal shell could generate a temporary concentration ring during vapor exchange at constant total pressure.","test":"Map species concentration.","contrary":"Exchange remains spatially uniform.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0097","hypothesis":"A gas-permeable crystal shell could generate a temporary concentration ring during vapor exchange at constant total pressure.","test":"Map species concentration.","contrary_result":"Exchange remains spatially uniform.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0098","id":"S8-0098","volume":"900v8","title":"A pair of rubbing mineral grains could show reduced charge transfer after a weak precompression pulse.","prediction":"A pair of rubbing mineral grains could show reduced charge transfer after a weak precompression pulse.","test":"Measure charge and contact deformation.","contrary":"Transfer follows contact area alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0098","hypothesis":"A pair of rubbing mineral grains could show reduced charge transfer after a weak precompression pulse.","test":"Measure charge and contact deformation.","contrary_result":"Transfer follows contact area alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0099","id":"S8-0099","volume":"900v8","title":"A freezing liquid film could retain an imposed optical intensity pattern in its later melting sequence without added absorber.","prediction":"A freezing liquid film could retain an imposed optical intensity pattern in its later melting sequence without added absorber.","test":"Compare registered patterns and melt order.","contrary":"Sequence follows thickness alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0099","hypothesis":"A freezing liquid film could retain an imposed optical intensity pattern in its later melting sequence without added absorber.","test":"Compare registered patterns and melt order.","contrary_result":"Sequence follows thickness alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0100","id":"S8-0100","volume":"900v8","title":"A porous resonator could separate internal adsorption heat from external heating through the sign of its frequency-pressure lag.","prediction":"A porous resonator could separate internal adsorption heat from external heating through the sign of its frequency-pressure lag.","test":"Calibrate heat sources.","contrary":"Lag signatures remain indistinguishable.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0100","hypothesis":"A porous resonator could separate internal adsorption heat from external heating through the sign of its frequency-pressure lag.","test":"Calibrate heat sources.","contrary_result":"Lag signatures remain indistinguishable.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0101","id":"S8-0101","volume":"900v8","title":"A strained semiconductor nanocrystal could exhibit a delayed change in exciton polarization after its lattice strain relaxes.","prediction":"A strained semiconductor nanocrystal could exhibit a delayed change in exciton polarization after its lattice strain relaxes.","test":"Measure strain and time-resolved polarized emission.","contrary":"Polarization tracks strain instantaneously.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0101","hypothesis":"A strained semiconductor nanocrystal could exhibit a delayed change in exciton polarization after its lattice strain relaxes.","test":"Measure strain and time-resolved polarized emission.","contrary_result":"Polarization tracks strain instantaneously.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0102","id":"S8-0102","volume":"900v8","title":"A dielectric nanogap could concentrate an infrared field more strongly during partial adsorbate desorption than at either endpoint.","prediction":"A dielectric nanogap could concentrate an infrared field more strongly during partial adsorbate desorption than at either endpoint.","test":"Measure coverage and near-field intensity.","contrary":"Intensity changes monotonically.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0102","hypothesis":"A dielectric nanogap could concentrate an infrared field more strongly during partial adsorbate desorption than at either endpoint.","test":"Measure coverage and near-field intensity.","contrary_result":"Intensity changes monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0103","id":"S8-0103","volume":"900v8","title":"A magnetic domain wall could reveal a buried elastic defect through unequal responses to positive and negative frequency chirps.","prediction":"A magnetic domain wall could reveal a buried elastic defect through unequal responses to positive and negative frequency chirps.","test":"Reverse chirps at fixed energy.","contrary":"Responses depend only on frequency range.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0103","hypothesis":"A magnetic domain wall could reveal a buried elastic defect through unequal responses to positive and negative frequency chirps.","test":"Reverse chirps at fixed energy.","contrary_result":"Responses depend only on frequency range.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0104","id":"S8-0104","volume":"900v8","title":"A cryogenic crystal could retain the ordering of two weak acoustic pulses in its delayed defect fluorescence.","prediction":"A cryogenic crystal could retain the ordering of two weak acoustic pulses in its delayed defect fluorescence.","test":"Exchange pulse order.","contrary":"Emission depends only on total pulse energy.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0104","hypothesis":"A cryogenic crystal could retain the ordering of two weak acoustic pulses in its delayed defect fluorescence.","test":"Exchange pulse order.","contrary_result":"Emission depends only on total pulse energy.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0105","id":"S8-0105","volume":"900v8","title":"A suspended two-dimensional film could show a thermal-conductivity minimum at intermediate electrostatic tension.","prediction":"A suspended two-dimensional film could show a thermal-conductivity minimum at intermediate electrostatic tension.","test":"Measure conductivity and strain.","contrary":"Conductivity varies monotonically.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0105","hypothesis":"A suspended two-dimensional film could show a thermal-conductivity minimum at intermediate electrostatic tension.","test":"Measure conductivity and strain.","contrary_result":"Conductivity varies monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0106","id":"S8-0106","volume":"900v8","title":"An optical defect cavity could distinguish charge-trap hopping from mechanical drift through different phase-noise cross-correlations.","prediction":"An optical defect cavity could distinguish charge-trap hopping from mechanical drift through different phase-noise cross-correlations.","test":"Measure independent charge and displacement probes.","contrary":"Correlations remain indistinguishable.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0106","hypothesis":"An optical defect cavity could distinguish charge-trap hopping from mechanical drift through different phase-noise cross-correlations.","test":"Measure independent charge and displacement probes.","contrary_result":"Correlations remain indistinguishable.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0107","id":"S8-0107","volume":"900v8","title":"A weakly coupled spin ensemble could recover coherence faster after a spatially asymmetric thermal pulse than a uniform pulse of equal energy.","prediction":"A weakly coupled spin ensemble could recover coherence faster after a spatially asymmetric thermal pulse than a uniform pulse of equal energy.","test":"Measure coherence and temperature distributions.","contrary":"Recovery depends only on mean temperature.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0107","hypothesis":"A weakly coupled spin ensemble could recover coherence faster after a spatially asymmetric thermal pulse than a uniform pulse of equal energy.","test":"Measure coherence and temperature distributions.","contrary_result":"Recovery depends only on mean temperature.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0108","id":"S8-0108","volume":"900v8","title":"A crystalline superlattice could support an acoustic mode localized at a reversible polarization boundary.","prediction":"A crystalline superlattice could support an acoustic mode localized at a reversible polarization boundary.","test":"Image polarization and mode shape.","contrary":"Localization requires a structural interface.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0108","hypothesis":"A crystalline superlattice could support an acoustic mode localized at a reversible polarization boundary.","test":"Image polarization and mode shape.","contrary_result":"Localization requires a structural interface.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0109","id":"S8-0109","volume":"900v8","title":"A semiconductor surface could develop a transient photovoltage ring during uniform illumination because of radial defect relaxation.","prediction":"A semiconductor surface could develop a transient photovoltage ring during uniform illumination because of radial defect relaxation.","test":"Map voltage and defects.","contrary":"Voltage remains spatially uniform.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0109","hypothesis":"A semiconductor surface could develop a transient photovoltage ring during uniform illumination because of radial defect relaxation.","test":"Map voltage and defects.","contrary_result":"Voltage remains spatially uniform.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0110","id":"S8-0110","volume":"900v8","title":"A low-loss dielectric could reveal rare adsorbate rearrangements through simultaneous jumps in two orthogonal optical modes.","prediction":"A low-loss dielectric could reveal rare adsorbate rearrangements through simultaneous jumps in two orthogonal optical modes.","test":"Measure mode correlations and surface coverage.","contrary":"Jumps are uncorrelated after temperature removal.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0110","hypothesis":"A low-loss dielectric could reveal rare adsorbate rearrangements through simultaneous jumps in two orthogonal optical modes.","test":"Measure mode correlations and surface coverage.","contrary_result":"Jumps are uncorrelated after temperature removal.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0111","id":"S8-0111","volume":"900v8","title":"A mechanically constrained phase-change particle could switch through an intermediate optical state absent in an unconstrained particle.","prediction":"A mechanically constrained phase-change particle could switch through an intermediate optical state absent in an unconstrained particle.","test":"Measure structure and optical response.","contrary":"Constraint changes only switching temperature.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0111","hypothesis":"A mechanically constrained phase-change particle could switch through an intermediate optical state absent in an unconstrained particle.","test":"Measure structure and optical response.","contrary_result":"Constraint changes only switching temperature.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0112","id":"S8-0112","volume":"900v8","title":"A thin magnetic insulator could transfer angular momentum across a nonmagnetic grain boundary through elastic coupling.","prediction":"A thin magnetic insulator could transfer angular momentum across a nonmagnetic grain boundary through elastic coupling.","test":"Measure spin and mechanical signals.","contrary":"Transfer requires direct magnetic connectivity.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0112","hypothesis":"A thin magnetic insulator could transfer angular momentum across a nonmagnetic grain boundary through elastic coupling.","test":"Measure spin and mechanical signals.","contrary_result":"Transfer requires direct magnetic connectivity.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0113","id":"S8-0113","volume":"900v8","title":"A cold ionic crystal could show a reversible noise maximum when two defect diffusion lengths become comparable.","prediction":"A cold ionic crystal could show a reversible noise maximum when two defect diffusion lengths become comparable.","test":"Measure diffusion and electrical noise.","contrary":"Noise follows defect density alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0113","hypothesis":"A cold ionic crystal could show a reversible noise maximum when two defect diffusion lengths become comparable.","test":"Measure diffusion and electrical noise.","contrary_result":"Noise follows defect density alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0114","id":"S8-0114","volume":"900v8","title":"A surface acoustic wave could sort optically identical nanocrystals by their internal strain state.","prediction":"A surface acoustic wave could sort optically identical nanocrystals by their internal strain state.","test":"Measure trajectories and strain independently.","contrary":"Sorting follows particle size only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0114","hypothesis":"A surface acoustic wave could sort optically identical nanocrystals by their internal strain state.","test":"Measure trajectories and strain independently.","contrary_result":"Sorting follows particle size only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0115","id":"S8-0115","volume":"900v8","title":"A semiconductor microcavity could display a transient linewidth narrowing during controlled ion migration.","prediction":"A semiconductor microcavity could display a transient linewidth narrowing during controlled ion migration.","test":"Measure ions and optical spectra.","contrary":"Migration only broadens the line.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0115","hypothesis":"A semiconductor microcavity could display a transient linewidth narrowing during controlled ion migration.","test":"Measure ions and optical spectra.","contrary_result":"Migration only broadens the line.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0116","id":"S8-0116","volume":"900v8","title":"A dielectric particle's rotational diffusion could reveal a nanoscale wetting transition before mean adsorbed mass changes measurably.","prediction":"A dielectric particle's rotational diffusion could reveal a nanoscale wetting transition before mean adsorbed mass changes measurably.","test":"Measure rotation and uptake.","contrary":"Diffusion follows total mass smoothly.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0116","hypothesis":"A dielectric particle's rotational diffusion could reveal a nanoscale wetting transition before mean adsorbed mass changes measurably.","test":"Measure rotation and uptake.","contrary_result":"Diffusion follows total mass smoothly.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0117","id":"S8-0117","volume":"900v8","title":"A layered crystal could exhibit a thermal-pulse echo from interfacial energy storage without a mechanical reflection.","prediction":"A layered crystal could exhibit a thermal-pulse echo from interfacial energy storage without a mechanical reflection.","test":"Measure temperature and strain separately.","contrary":"Echoes coincide only with elastic reflections.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0117","hypothesis":"A layered crystal could exhibit a thermal-pulse echo from interfacial energy storage without a mechanical reflection.","test":"Measure temperature and strain separately.","contrary_result":"Echoes coincide only with elastic reflections.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0118","id":"S8-0118","volume":"900v8","title":"A magnetic film could have a field interval where domain noise decreases while susceptibility increases.","prediction":"A magnetic film could have a field interval where domain noise decreases while susceptibility increases.","test":"Measure both under identical bias.","contrary":"Noise and susceptibility always rise together.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0118","hypothesis":"A magnetic film could have a field interval where domain noise decreases while susceptibility increases.","test":"Measure both under identical bias.","contrary_result":"Noise and susceptibility always rise together.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0119","id":"S8-0119","volume":"900v8","title":"A reversible charge-density pattern could guide phonons around a defect without changing crystal geometry.","prediction":"A reversible charge-density pattern could guide phonons around a defect without changing crystal geometry.","test":"Map charge and phonon transport.","contrary":"Guidance requires structural deformation.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0119","hypothesis":"A reversible charge-density pattern could guide phonons around a defect without changing crystal geometry.","test":"Map charge and phonon transport.","contrary_result":"Guidance requires structural deformation.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0120","id":"S8-0120","volume":"900v8","title":"A photonic membrane could distinguish a point adsorbate from distributed contamination through opposite shifts in mode-localization length.","prediction":"A photonic membrane could distinguish a point adsorbate from distributed contamination through opposite shifts in mode-localization length.","test":"Control deposition geometry.","contrary":"Localization follows total mass only.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0120","hypothesis":"A photonic membrane could distinguish a point adsorbate from distributed contamination through opposite shifts in mode-localization length.","test":"Control deposition geometry.","contrary_result":"Localization follows total mass only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0121","id":"S8-0121","volume":"900v8","title":"A thin ionic conductor could exhibit current recovery before its concentration gradient relaxes after a pressure pulse.","prediction":"A thin ionic conductor could exhibit current recovery before its concentration gradient relaxes after a pressure pulse.","test":"Measure current and composition.","contrary":"Recovery tracks gradient decay.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0121","hypothesis":"A thin ionic conductor could exhibit current recovery before its concentration gradient relaxes after a pressure pulse.","test":"Measure current and composition.","contrary_result":"Recovery tracks gradient decay.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0121","hypothesis":"A thin ionic conductor could exhibit current recovery before its concentration gradient relaxes after a pressure pulse.","test":"Measure current and composition.","contrary_result":"Recovery tracks gradient decay.","status":"Untested; novelty unverified","selection_rationale":"Composition and current provide separate recovery clocks.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0122","id":"S8-0122","volume":"900v8","title":"A strained luminescent grain could have a temperature interval where emission intensity is insensitive to uniform heating but sensitive to stress.","prediction":"A strained luminescent grain could have a temperature interval where emission intensity is insensitive to uniform heating but sensitive to stress.","test":"Calibrate both inputs.","contrary":"Thermal and stress responses remain proportional.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0122","hypothesis":"A strained luminescent grain could have a temperature interval where emission intensity is insensitive to uniform heating but sensitive to stress.","test":"Calibrate both inputs.","contrary_result":"Thermal and stress responses remain proportional.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0123","id":"S8-0123","volume":"900v8","title":"A cryogenic resonator could reveal internal gas adsorption through a change in two-level-system noise before frequency shift.","prediction":"A cryogenic resonator could reveal internal gas adsorption through a change in two-level-system noise before frequency shift.","test":"Measure noise and uptake.","contrary":"Frequency detects adsorption first.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0123","hypothesis":"A cryogenic resonator could reveal internal gas adsorption through a change in two-level-system noise before frequency shift.","test":"Measure noise and uptake.","contrary_result":"Frequency detects adsorption first.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0124","id":"S8-0124","volume":"900v8","title":"A spatially modulated electric field could move a neutral defect cluster through elastic dipole coupling.","prediction":"A spatially modulated electric field could move a neutral defect cluster through elastic dipole coupling.","test":"Track clusters and strain.","contrary":"Motion requires net cluster charge.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0124","hypothesis":"A spatially modulated electric field could move a neutral defect cluster through elastic dipole coupling.","test":"Track clusters and strain.","contrary_result":"Motion requires net cluster charge.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0125","id":"S8-0125","volume":"900v8","title":"A semiconductor junction could retain illumination direction in its open-circuit relaxation after uniform dark equilibration.","prediction":"A semiconductor junction could retain illumination direction in its open-circuit relaxation after uniform dark equilibration.","test":"Reverse illumination histories.","contrary":"Relaxation depends only on accumulated charge.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0125","hypothesis":"A semiconductor junction could retain illumination direction in its open-circuit relaxation after uniform dark equilibration.","test":"Reverse illumination histories.","contrary_result":"Relaxation depends only on accumulated charge.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0126","id":"S8-0126","volume":"900v8","title":"A transparent crystal could show a transient birefringence minimum during defect annealing despite monotonic defect removal.","prediction":"A transparent crystal could show a transient birefringence minimum during defect annealing despite monotonic defect removal.","test":"Measure birefringence and defect spectroscopy.","contrary":"Birefringence varies monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0126","hypothesis":"A transparent crystal could show a transient birefringence minimum during defect annealing despite monotonic defect removal.","test":"Measure birefringence and defect spectroscopy.","contrary_result":"Birefringence varies monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0127","id":"S8-0127","volume":"900v8","title":"A phononic interface could transmit a narrow pulse more faithfully after a small controlled amount of interfacial disorder.","prediction":"A phononic interface could transmit a narrow pulse more faithfully after a small controlled amount of interfacial disorder.","test":"Measure waveform overlap.","contrary":"Disorder always lowers fidelity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0127","hypothesis":"A phononic interface could transmit a narrow pulse more faithfully after a small controlled amount of interfacial disorder.","test":"Measure waveform overlap.","contrary_result":"Disorder always lowers fidelity.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0128","id":"S8-0128","volume":"900v8","title":"A magnetic microdisk could distinguish absorbed gas from external pressure through opposite shifts in vortex motion.","prediction":"A magnetic microdisk could distinguish absorbed gas from external pressure through opposite shifts in vortex motion.","test":"Calibrate gas and pressure independently.","contrary":"Shifts depend only on mechanical strain.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0128","hypothesis":"A magnetic microdisk could distinguish absorbed gas from external pressure through opposite shifts in vortex motion.","test":"Calibrate gas and pressure independently.","contrary_result":"Shifts depend only on mechanical strain.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0129","id":"S8-0129","volume":"900v8","title":"A metal nanowire could show a temporary thermopower enhancement after reversible surface reconstruction without resistance improvement.","prediction":"A metal nanowire could show a temporary thermopower enhancement after reversible surface reconstruction without resistance improvement.","test":"Measure both channels and structure.","contrary":"Thermopower follows resistance only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0129","hypothesis":"A metal nanowire could show a temporary thermopower enhancement after reversible surface reconstruction without resistance improvement.","test":"Measure both channels and structure.","contrary_result":"Thermopower follows resistance only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0130","id":"S8-0130","volume":"900v8","title":"A semiconductor powder could retain a wavelength-switch sequence in its delayed conductivity despite equal absorbed energy.","prediction":"A semiconductor powder could retain a wavelength-switch sequence in its delayed conductivity despite equal absorbed energy.","test":"Reverse wavelength order.","contrary":"Conductivity depends only on total absorption.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0130","hypothesis":"A semiconductor powder could retain a wavelength-switch sequence in its delayed conductivity despite equal absorbed energy.","test":"Reverse wavelength order.","contrary_result":"Conductivity depends only on total absorption.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0131","id":"S8-0131","volume":"900v8","title":"A polar crystal could show an acoustic emission precursor to a reversible domain merger.","prediction":"A polar crystal could show an acoustic emission precursor to a reversible domain merger.","test":"Image domains and record sound.","contrary":"Sound appears only during merger.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0131","hypothesis":"A polar crystal could show an acoustic emission precursor to a reversible domain merger.","test":"Image domains and record sound.","contrary_result":"Sound appears only during merger.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0132","id":"S8-0132","volume":"900v8","title":"A photonic crystal could distinguish tensile microcracks from compressive buckles through the symmetry of scattered phase noise.","prediction":"A photonic crystal could distinguish tensile microcracks from compressive buckles through the symmetry of scattered phase noise.","test":"Introduce calibrated defects.","contrary":"Noise symmetry is the same.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0132","hypothesis":"A photonic crystal could distinguish tensile microcracks from compressive buckles through the symmetry of scattered phase noise.","test":"Introduce calibrated defects.","contrary_result":"Noise symmetry is the same.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0133","id":"S8-0133","volume":"900v8","title":"A charged nanomembrane could enter a quieter mechanical state after partial discharge through elimination of fluctuating trap pairs.","prediction":"A charged nanomembrane could enter a quieter mechanical state after partial discharge through elimination of fluctuating trap pairs.","test":"Measure charge and noise.","contrary":"Noise declines monotonically to complete discharge.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0133","hypothesis":"A charged nanomembrane could enter a quieter mechanical state after partial discharge through elimination of fluctuating trap pairs.","test":"Measure charge and noise.","contrary_result":"Noise declines monotonically to complete discharge.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0134","id":"S8-0134","volume":"900v8","title":"A layered insulator could reveal interfacial dipole rotation through a transient opposite-sign dielectric response along two axes.","prediction":"A layered insulator could reveal interfacial dipole rotation through a transient opposite-sign dielectric response along two axes.","test":"Measure tensor response.","contrary":"Both axes change with the same sign.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0134","hypothesis":"A layered insulator could reveal interfacial dipole rotation through a transient opposite-sign dielectric response along two axes.","test":"Measure tensor response.","contrary_result":"Both axes change with the same sign.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0135","id":"S8-0135","volume":"900v8","title":"An optical cavity could separate slowly moving ions from immobile charged defects through frequency-dependent electrostriction.","prediction":"An optical cavity could separate slowly moving ions from immobile charged defects through frequency-dependent electrostriction.","test":"Measure optical response across frequency.","contrary":"Both defect classes yield the same spectrum.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0135","hypothesis":"An optical cavity could separate slowly moving ions from immobile charged defects through frequency-dependent electrostriction.","test":"Measure optical response across frequency.","contrary_result":"Both defect classes yield the same spectrum.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0136","id":"S8-0136","volume":"900v8","title":"A magnetic ceramic could exhibit a reversible minimum in thermal noise at the onset of domain-wall motion.","prediction":"A magnetic ceramic could exhibit a reversible minimum in thermal noise at the onset of domain-wall motion.","test":"Measure wall motion and noise.","contrary":"Noise increases from the onset.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0136","hypothesis":"A magnetic ceramic could exhibit a reversible minimum in thermal noise at the onset of domain-wall motion.","test":"Measure wall motion and noise.","contrary_result":"Noise increases from the onset.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0137","id":"S8-0137","volume":"900v8","title":"A strain-gradient crystal could hold an exciton population near a thermal maximum despite ordinary diffusion.","prediction":"A strain-gradient crystal could hold an exciton population near a thermal maximum despite ordinary diffusion.","test":"Map emission and temperature.","contrary":"Population follows colder regions only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0137","hypothesis":"A strain-gradient crystal could hold an exciton population near a thermal maximum despite ordinary diffusion.","test":"Map emission and temperature.","contrary_result":"Population follows colder regions only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0138","id":"S8-0138","volume":"900v8","title":"A nanoscale liquid inclusion could split a solid's local vibrational spectrum before its volume is resolved optically.","prediction":"A nanoscale liquid inclusion could split a solid's local vibrational spectrum before its volume is resolved optically.","test":"Measure spectra and independent inclusion imaging.","contrary":"Splitting requires a resolved volume change.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0138","hypothesis":"A nanoscale liquid inclusion could split a solid's local vibrational spectrum before its volume is resolved optically.","test":"Measure spectra and independent inclusion imaging.","contrary_result":"Splitting requires a resolved volume change.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0139","id":"S8-0139","volume":"900v8","title":"A semiconductor nanograin could acquire a reversible optical chirality through asymmetric surface ion occupancy.","prediction":"A semiconductor nanograin could acquire a reversible optical chirality through asymmetric surface ion occupancy.","test":"Measure occupancy and circular response.","contrary":"Chirality requires permanent shape change.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0139","hypothesis":"A semiconductor nanograin could acquire a reversible optical chirality through asymmetric surface ion occupancy.","test":"Measure occupancy and circular response.","contrary_result":"Chirality requires permanent shape change.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0140","id":"S8-0140","volume":"900v8","title":"A weakly disordered dielectric could reveal a buried phase boundary through cross-polarized photon-echo timing.","prediction":"A weakly disordered dielectric could reveal a buried phase boundary through cross-polarized photon-echo timing.","test":"Measure boundary and echo.","contrary":"Timing depends only on optical path length.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0140","hypothesis":"A weakly disordered dielectric could reveal a buried phase boundary through cross-polarized photon-echo timing.","test":"Measure boundary and echo.","contrary_result":"Timing depends only on optical path length.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0141","id":"S8-0141","volume":"900v8","title":"A magnetic particle could reverse its easy axis during reversible hydration without changing crystallographic orientation.","prediction":"A magnetic particle could reverse its easy axis during reversible hydration without changing crystallographic orientation.","test":"Measure anisotropy and structure.","contrary":"Changes follow particle rotation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0141","hypothesis":"A magnetic particle could reverse its easy axis during reversible hydration without changing crystallographic orientation.","test":"Measure anisotropy and structure.","contrary_result":"Changes follow particle rotation.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0142","id":"S8-0142","volume":"900v8","title":"A low-temperature solid electrolyte could display a pressure-induced conductivity overshoot that outlasts elastic relaxation.","prediction":"A low-temperature solid electrolyte could display a pressure-induced conductivity overshoot that outlasts elastic relaxation.","test":"Measure conductivity and strain.","contrary":"Conductivity follows strain immediately.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0142","hypothesis":"A low-temperature solid electrolyte could display a pressure-induced conductivity overshoot that outlasts elastic relaxation.","test":"Measure conductivity and strain.","contrary_result":"Conductivity follows strain immediately.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0143","id":"S8-0143","volume":"900v8","title":"An optical microdisk could reject uniform adsorption drift while detecting one localized adsorbate through mode-coupling phase.","prediction":"An optical microdisk could reject uniform adsorption drift while detecting one localized adsorbate through mode-coupling phase.","test":"Calibrate deposition patterns.","contrary":"Localized and uniform signals remain degenerate.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0143","hypothesis":"An optical microdisk could reject uniform adsorption drift while detecting one localized adsorbate through mode-coupling phase.","test":"Calibrate deposition patterns.","contrary_result":"Localized and uniform signals remain degenerate.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0144","id":"S8-0144","volume":"900v8","title":"A suspended crystal could distinguish absorbed radiation momentum from thermal bending through opposite early-time torsional phases.","prediction":"A suspended crystal could distinguish absorbed radiation momentum from thermal bending through opposite early-time torsional phases.","test":"Measure torque and temperature.","contrary":"All motion follows heating.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0144","hypothesis":"A suspended crystal could distinguish absorbed radiation momentum from thermal bending through opposite early-time torsional phases.","test":"Measure torque and temperature.","contrary_result":"All motion follows heating.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0145","id":"S8-0145","volume":"900v8","title":"A defect-rich phosphor could exhibit a longer delayed-emission lifetime after a shorter dark interval at fixed trap occupancy.","prediction":"A defect-rich phosphor could exhibit a longer delayed-emission lifetime after a shorter dark interval at fixed trap occupancy.","test":"Match occupancy using independent probes.","contrary":"Lifetime depends only on occupancy.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0145","hypothesis":"A defect-rich phosphor could exhibit a longer delayed-emission lifetime after a shorter dark interval at fixed trap occupancy.","test":"Match occupancy using independent probes.","contrary_result":"Lifetime depends only on occupancy.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0146","id":"S8-0146","volume":"900v8","title":"A thin magnetic film could show a propagating noise-correlation front after a local stress release.","prediction":"A thin magnetic film could show a propagating noise-correlation front after a local stress release.","test":"Map correlations and strain.","contrary":"Correlations change everywhere simultaneously.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0146","hypothesis":"A thin magnetic film could show a propagating noise-correlation front after a local stress release.","test":"Map correlations and strain.","contrary_result":"Correlations change everywhere simultaneously.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0147","id":"S8-0147","volume":"900v8","title":"A dielectric interface could have maximum heat transfer at a finite density of mobile surface ions.","prediction":"A dielectric interface could have maximum heat transfer at a finite density of mobile surface ions.","test":"Measure heat and ion density.","contrary":"Transfer changes monotonically.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0147","hypothesis":"A dielectric interface could have maximum heat transfer at a finite density of mobile surface ions.","test":"Measure heat and ion density.","contrary_result":"Transfer changes monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0148","id":"S8-0148","volume":"900v8","title":"A crystalline waveguide could retain a reversible pulse-shape memory through metastable defect alignment without measurable static strain.","prediction":"A crystalline waveguide could retain a reversible pulse-shape memory through metastable defect alignment without measurable static strain.","test":"Measure defects and transmitted pulses.","contrary":"Memory requires residual strain.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0148","hypothesis":"A crystalline waveguide could retain a reversible pulse-shape memory through metastable defect alignment without measurable static strain.","test":"Measure defects and transmitted pulses.","contrary_result":"Memory requires residual strain.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0149","id":"S8-0149","volume":"900v8","title":"A semiconducting oxide could exhibit photoconductivity recovery under weak acoustic forcing without changing surface chemistry.","prediction":"A semiconducting oxide could exhibit photoconductivity recovery under weak acoustic forcing without changing surface chemistry.","test":"Measure current and chemistry.","contrary":"Recovery follows acoustic heating only.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0149","hypothesis":"A semiconducting oxide could exhibit photoconductivity recovery under weak acoustic forcing without changing surface chemistry.","test":"Measure current and chemistry.","contrary_result":"Recovery follows acoustic heating only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0150","id":"S8-0150","volume":"900v8","title":"A cold gas-filled optical cavity could distinguish adsorption on opposing walls from asymmetric mechanical drift through mode-phase order.","prediction":"A cold gas-filled optical cavity could distinguish adsorption on opposing walls from asymmetric mechanical drift through mode-phase order.","test":"Calibrate independently.","contrary":"Phase order is ambiguous.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0150","hypothesis":"A cold gas-filled optical cavity could distinguish adsorption on opposing walls from asymmetric mechanical drift through mode-phase order.","test":"Calibrate independently.","contrary_result":"Phase order is ambiguous.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0151","id":"S8-0151","volume":"900v8","title":"A molecular crystal could propagate a hydration front faster along a previously compressed axis after pressure release.","prediction":"A molecular crystal could propagate a hydration front faster along a previously compressed axis after pressure release.","test":"Measure front and residual strain.","contrary":"Propagation depends only on current strain.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0151","hypothesis":"A molecular crystal could propagate a hydration front faster along a previously compressed axis after pressure release.","test":"Measure front and residual strain.","contrary_result":"Propagation depends only on current strain.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0152","id":"S8-0152","volume":"900v8","title":"A low-voltage ionic device could distinguish two equal-dose pressure histories through different interfacial capacitance recovery.","prediction":"A low-voltage ionic device could distinguish two equal-dose pressure histories through different interfacial capacitance recovery.","test":"Match final composition.","contrary":"Capacitance depends only on final ion distribution.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0152","hypothesis":"A low-voltage ionic device could distinguish two equal-dose pressure histories through different interfacial capacitance recovery.","test":"Match final composition.","contrary_result":"Capacitance depends only on final ion distribution.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0153","id":"S8-0153","volume":"900v8","title":"A porous inorganic catalyst could show an isotope-dependent induction delay without a different steady reaction rate.","prediction":"A porous inorganic catalyst could show an isotope-dependent induction delay without a different steady reaction rate.","test":"Measure induction and steady rates.","contrary":"Both change proportionally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0153","hypothesis":"A porous inorganic catalyst could show an isotope-dependent induction delay without a different steady reaction rate.","test":"Measure induction and steady rates.","contrary_result":"Both change proportionally.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0154","id":"S8-0154","volume":"900v8","title":"A binary mineral coating could suppress corrosion noise before reducing average corrosion current.","prediction":"A binary mineral coating could suppress corrosion noise before reducing average corrosion current.","test":"Measure both with composition controls.","contrary":"Mean current changes first.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0154","hypothesis":"A binary mineral coating could suppress corrosion noise before reducing average corrosion current.","test":"Measure both with composition controls.","contrary_result":"Mean current changes first.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0155","id":"S8-0155","volume":"900v8","title":"A dissolving crystal could develop a temporary hollow core under uniform external undersaturation without internal impurities.","prediction":"A dissolving crystal could develop a temporary hollow core under uniform external undersaturation without internal impurities.","test":"Image interior and composition.","contrary":"Hollowing requires compositional heterogeneity.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0155","hypothesis":"A dissolving crystal could develop a temporary hollow core under uniform external undersaturation without internal impurities.","test":"Image interior and composition.","contrary_result":"Hollowing requires compositional heterogeneity.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0156","id":"S8-0156","volume":"900v8","title":"An inert particle near a growing crystal could alter facet selection through distortion of thermal diffusion alone.","prediction":"An inert particle near a growing crystal could alter facet selection through distortion of thermal diffusion alone.","test":"Match solute fields and vary particle conductivity.","contrary":"Facet changes follow solute depletion only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0156","hypothesis":"An inert particle near a growing crystal could alter facet selection through distortion of thermal diffusion alone.","test":"Match solute fields and vary particle conductivity.","contrary_result":"Facet changes follow solute depletion only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0157","id":"S8-0157","volume":"900v8","title":"A gas-adsorbing crystal could show a reversible crossover from diffusion-limited to interface-limited uptake during one pressure step.","prediction":"A gas-adsorbing crystal could show a reversible crossover from diffusion-limited to interface-limited uptake during one pressure step.","test":"Measure spatial uptake profiles.","contrary":"One mechanism describes the whole step.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0157","hypothesis":"A gas-adsorbing crystal could show a reversible crossover from diffusion-limited to interface-limited uptake during one pressure step.","test":"Measure spatial uptake profiles.","contrary_result":"One mechanism describes the whole step.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0158","id":"S8-0158","volume":"900v8","title":"A salt solution could retain weak shear direction in its earliest crystallite orientation after flow stops.","prediction":"A salt solution could retain weak shear direction in its earliest crystallite orientation after flow stops.","test":"Measure orientation and residual motion.","contrary":"Orientation becomes isotropic before nucleation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0158","hypothesis":"A salt solution could retain weak shear direction in its earliest crystallite orientation after flow stops.","test":"Measure orientation and residual motion.","contrary_result":"Orientation becomes isotropic before nucleation.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0159","id":"S8-0159","volume":"900v8","title":"A catalytic oxide could release a stored intermediate preferentially after unloading rather than heating.","prediction":"A catalytic oxide could release a stored intermediate preferentially after unloading rather than heating.","test":"Measure products and surface species.","contrary":"Release requires a thermal change.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0159","hypothesis":"A catalytic oxide could release a stored intermediate preferentially after unloading rather than heating.","test":"Measure products and surface species.","contrary_result":"Release requires a thermal change.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0160","id":"S8-0160","volume":"900v8","title":"A mineral gel could distinguish isotopic solvent replacement from simple dilution through an elastic relaxation plateau.","prediction":"A mineral gel could distinguish isotopic solvent replacement from simple dilution through an elastic relaxation plateau.","test":"Measure composition and modulus.","contrary":"Relaxation follows viscosity alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0160","hypothesis":"A mineral gel could distinguish isotopic solvent replacement from simple dilution through an elastic relaxation plateau.","test":"Measure composition and modulus.","contrary_result":"Relaxation follows viscosity alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0161","id":"S8-0161","volume":"900v8","title":"A reversible precipitate could regenerate fewer nuclei after complete dissolution than after partial dissolution at equal final supersaturation.","prediction":"A reversible precipitate could regenerate fewer nuclei after complete dissolution than after partial dissolution at equal final supersaturation.","test":"Count nuclei with residual-solid controls.","contrary":"Nucleation depends only on supersaturation.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0161","hypothesis":"A reversible precipitate could regenerate fewer nuclei after complete dissolution than after partial dissolution at equal final supersaturation.","test":"Count nuclei with residual-solid controls.","contrary_result":"Nucleation depends only on supersaturation.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0161","hypothesis":"A reversible precipitate could regenerate fewer nuclei after complete dissolution than after partial dissolution at equal final supersaturation.","test":"Count nuclei with residual-solid controls.","contrary_result":"Nucleation depends only on supersaturation.","status":"Untested; novelty unverified","selection_rationale":"Complete dissolution is a strong challenge to claimed nucleation memory.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0162","id":"S8-0162","volume":"900v8","title":"A charged mineral surface could show a temporary reversal in ion selectivity during neutral salt exchange.","prediction":"A charged mineral surface could show a temporary reversal in ion selectivity during neutral salt exchange.","test":"Measure species fluxes and potential.","contrary":"Selectivity keeps its sign.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0162","hypothesis":"A charged mineral surface could show a temporary reversal in ion selectivity during neutral salt exchange.","test":"Measure species fluxes and potential.","contrary_result":"Selectivity keeps its sign.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0163","id":"S8-0163","volume":"900v8","title":"A crystal growth front could become smoother after a pressure oscillation even when mean growth speed is unchanged.","prediction":"A crystal growth front could become smoother after a pressure oscillation even when mean growth speed is unchanged.","test":"Measure roughness and local rates.","contrary":"Smoothing requires slower mean growth.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0163","hypothesis":"A crystal growth front could become smoother after a pressure oscillation even when mean growth speed is unchanged.","test":"Measure roughness and local rates.","contrary_result":"Smoothing requires slower mean growth.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0164","id":"S8-0164","volume":"900v8","title":"An inorganic adsorbent could release two solutes in alternating packets under a single monotonic pressure decrease.","prediction":"An inorganic adsorbent could release two solutes in alternating packets under a single monotonic pressure decrease.","test":"Measure species-resolved effluent.","contrary":"Release order never alternates.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0164","hypothesis":"An inorganic adsorbent could release two solutes in alternating packets under a single monotonic pressure decrease.","test":"Measure species-resolved effluent.","contrary_result":"Release order never alternates.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0165","id":"S8-0165","volume":"900v8","title":"A dissolving polycrystal could show a thermal fluctuation precursor to grain-boundary opening.","prediction":"A dissolving polycrystal could show a thermal fluctuation precursor to grain-boundary opening.","test":"Measure temperature noise and imaging.","contrary":"Noise changes follow opening.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0165","hypothesis":"A dissolving polycrystal could show a thermal fluctuation precursor to grain-boundary opening.","test":"Measure temperature noise and imaging.","contrary_result":"Noise changes follow opening.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0166","id":"S8-0166","volume":"900v8","title":"A porous carbonate analogue could exhibit a temporary increase in stiffness while its solid mass decreases.","prediction":"A porous carbonate analogue could exhibit a temporary increase in stiffness while its solid mass decreases.","test":"Measure mass, contacts and modulus.","contrary":"Stiffness falls monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0166","hypothesis":"A porous carbonate analogue could exhibit a temporary increase in stiffness while its solid mass decreases.","test":"Measure mass, contacts and modulus.","contrary_result":"Stiffness falls monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0167","id":"S8-0167","volume":"900v8","title":"A low-temperature salt hydrate could develop directional water-release channels under uniform heating through crystallographic stress.","prediction":"A low-temperature salt hydrate could develop directional water-release channels under uniform heating through crystallographic stress.","test":"Map channels and strain.","contrary":"Channels follow external temperature gradients only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0167","hypothesis":"A low-temperature salt hydrate could develop directional water-release channels under uniform heating through crystallographic stress.","test":"Map channels and strain.","contrary_result":"Channels follow external temperature gradients only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0168","id":"S8-0168","volume":"900v8","title":"A mineral catalyst could regain selectivity under a weak periodic pressure modulation without regaining total activity.","prediction":"A mineral catalyst could regain selectivity under a weak periodic pressure modulation without regaining total activity.","test":"Measure both quantities.","contrary":"Recovery times are identical.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0168","hypothesis":"A mineral catalyst could regain selectivity under a weak periodic pressure modulation without regaining total activity.","test":"Measure both quantities.","contrary_result":"Recovery times are identical.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0169","id":"S8-0169","volume":"900v8","title":"A crystallizing electrolyte could exhibit a transient negative correlation between local conductivity and dissolved-ion concentration.","prediction":"A crystallizing electrolyte could exhibit a transient negative correlation between local conductivity and dissolved-ion concentration.","test":"Map both independently.","contrary":"Conductivity follows concentration everywhere.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0169","hypothesis":"A crystallizing electrolyte could exhibit a transient negative correlation between local conductivity and dissolved-ion concentration.","test":"Map both independently.","contrary_result":"Conductivity follows concentration everywhere.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0170","id":"S8-0170","volume":"900v8","title":"A binary oxide surface could retain the order of two benign vapor exposures in its later adsorption heat.","prediction":"A binary oxide surface could retain the order of two benign vapor exposures in its later adsorption heat.","test":"Reverse exposure order.","contrary":"Heat depends only on final coverage.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0170","hypothesis":"A binary oxide surface could retain the order of two benign vapor exposures in its later adsorption heat.","test":"Reverse exposure order.","contrary_result":"Heat depends only on final coverage.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0171","id":"S8-0171","volume":"900v8","title":"A solid-state reaction front could leave a periodic elastic texture under constant boundary chemical potential.","prediction":"A solid-state reaction front could leave a periodic elastic texture under constant boundary chemical potential.","test":"Map strain and composition.","contrary":"Periodicity requires boundary oscillation.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0171","hypothesis":"A solid-state reaction front could leave a periodic elastic texture under constant boundary chemical potential.","test":"Map strain and composition.","contrary_result":"Periodicity requires boundary oscillation.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0172","id":"S8-0172","volume":"900v8","title":"A porous crystalline shell could concentrate a nonreactive tracer internally during uniform solvent exchange.","prediction":"A porous crystalline shell could concentrate a nonreactive tracer internally during uniform solvent exchange.","test":"Measure inner and outer tracer.","contrary":"Concentration remains everywhere bounded by inlet values.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0172","hypothesis":"A porous crystalline shell could concentrate a nonreactive tracer internally during uniform solvent exchange.","test":"Measure inner and outer tracer.","contrary_result":"Concentration remains everywhere bounded by inlet values.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0173","id":"S8-0173","volume":"900v8","title":"A dissolving facet could temporarily advance through reprecipitation while total crystal mass decreases.","prediction":"A dissolving facet could temporarily advance through reprecipitation while total crystal mass decreases.","test":"Track facet position and total mass.","contrary":"All facets recede together.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0173","hypothesis":"A dissolving facet could temporarily advance through reprecipitation while total crystal mass decreases.","test":"Track facet position and total mass.","contrary_result":"All facets recede together.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0174","id":"S8-0174","volume":"900v8","title":"A nonaqueous salt solution could nucleate preferentially near a cooled insulating inclusion after the inclusion returns to bulk temperature.","prediction":"A nonaqueous salt solution could nucleate preferentially near a cooled insulating inclusion after the inclusion returns to bulk temperature.","test":"Measure temperature and nucleation timing.","contrary":"The effect disappears with thermal equilibration.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0174","hypothesis":"A nonaqueous salt solution could nucleate preferentially near a cooled insulating inclusion after the inclusion returns to bulk temperature.","test":"Measure temperature and nucleation timing.","contrary_result":"The effect disappears with thermal equilibration.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0175","id":"S8-0175","volume":"900v8","title":"A crystal surface could distinguish pressure-ramp direction through opposite changes in step-edge fluctuation skewness.","prediction":"A crystal surface could distinguish pressure-ramp direction through opposite changes in step-edge fluctuation skewness.","test":"Measure step fluctuations.","contrary":"Statistics depend only on instantaneous pressure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0175","hypothesis":"A crystal surface could distinguish pressure-ramp direction through opposite changes in step-edge fluctuation skewness.","test":"Measure step fluctuations.","contrary_result":"Statistics depend only on instantaneous pressure.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0176","id":"S8-0176","volume":"900v8","title":"An adsorbing mineral bed could sharpen a humidity pulse while broadening an inert tracer pulse.","prediction":"An adsorbing mineral bed could sharpen a humidity pulse while broadening an inert tracer pulse.","test":"Measure both transfer functions.","contrary":"Both pulses broaden similarly.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0176","hypothesis":"An adsorbing mineral bed could sharpen a humidity pulse while broadening an inert tracer pulse.","test":"Measure both transfer functions.","contrary_result":"Both pulses broaden similarly.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0177","id":"S8-0177","volume":"900v8","title":"A mixed inorganic precipitate could separate into layers through elastic mismatch without bulk solution concentration oscillation.","prediction":"A mixed inorganic precipitate could separate into layers through elastic mismatch without bulk solution concentration oscillation.","test":"Map strain and solution composition.","contrary":"Layering requires chemical oscillation.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0177","hypothesis":"A mixed inorganic precipitate could separate into layers through elastic mismatch without bulk solution concentration oscillation.","test":"Map strain and solution composition.","contrary_result":"Layering requires chemical oscillation.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0178","id":"S8-0178","volume":"900v8","title":"A catalyst pellet could show an acoustic precursor to a reversible selectivity change at constant feed.","prediction":"A catalyst pellet could show an acoustic precursor to a reversible selectivity change at constant feed.","test":"Measure sound and products.","contrary":"Sound follows selectivity changes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0178","hypothesis":"A catalyst pellet could show an acoustic precursor to a reversible selectivity change at constant feed.","test":"Measure sound and products.","contrary_result":"Sound follows selectivity changes.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0179","id":"S8-0179","volume":"900v8","title":"A salt crystal could retain a subcritical thermal cycle in its later dissolution pit distribution without visible cracking.","prediction":"A salt crystal could retain a subcritical thermal cycle in its later dissolution pit distribution without visible cracking.","test":"Map pits and defects.","contrary":"Pit distributions match untreated controls.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0179","hypothesis":"A salt crystal could retain a subcritical thermal cycle in its later dissolution pit distribution without visible cracking.","test":"Map pits and defects.","contrary_result":"Pit distributions match untreated controls.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0180","id":"S8-0180","volume":"900v8","title":"A mineral nanopore could exchange ions faster after a brief dilution interruption than continuous exposure at equal dose.","prediction":"A mineral nanopore could exchange ions faster after a brief dilution interruption than continuous exposure at equal dose.","test":"Measure exchange kinetics.","contrary":"Dose alone predicts uptake.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0180","hypothesis":"A mineral nanopore could exchange ions faster after a brief dilution interruption than continuous exposure at equal dose.","test":"Measure exchange kinetics.","contrary_result":"Dose alone predicts uptake.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0181","id":"S8-0181","volume":"900v8","title":"A surface reaction could move a neutral tracer against bulk diffusion through reversible interfacial stress.","prediction":"A surface reaction could move a neutral tracer against bulk diffusion through reversible interfacial stress.","test":"Measure tracer and flow.","contrary":"Motion is explained by ordinary convection.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0181","hypothesis":"A surface reaction could move a neutral tracer against bulk diffusion through reversible interfacial stress.","test":"Measure tracer and flow.","contrary_result":"Motion is explained by ordinary convection.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0181","hypothesis":"A surface reaction could move a neutral tracer against bulk diffusion through reversible interfacial stress.","test":"Measure tracer and flow.","contrary_result":"Motion is explained by ordinary convection.","status":"Untested; novelty unverified","selection_rationale":"Flow tracers challenge apparent transport against diffusion.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0182","id":"S8-0182","volume":"900v8","title":"A hydrate coating could release mechanical stress in pulses while water loss remains smooth.","prediction":"A hydrate coating could release mechanical stress in pulses while water loss remains smooth.","test":"Measure strain and mass.","contrary":"Both signals are equally intermittent.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0182","hypothesis":"A hydrate coating could release mechanical stress in pulses while water loss remains smooth.","test":"Measure strain and mass.","contrary_result":"Both signals are equally intermittent.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0183","id":"S8-0183","volume":"900v8","title":"A binary crystal could show a reversible optical-absorption maximum during selective leaching before either phase disconnects.","prediction":"A binary crystal could show a reversible optical-absorption maximum during selective leaching before either phase disconnects.","test":"Measure connectivity and absorption.","contrary":"Absorption stays between endpoint values.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0183","hypothesis":"A binary crystal could show a reversible optical-absorption maximum during selective leaching before either phase disconnects.","test":"Measure connectivity and absorption.","contrary_result":"Absorption stays between endpoint values.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0184","id":"S8-0184","volume":"900v8","title":"A porous adsorbent could retain gas composition in a mechanical torsion state after equal total mass uptake.","prediction":"A porous adsorbent could retain gas composition in a mechanical torsion state after equal total mass uptake.","test":"Measure composition and twist.","contrary":"Twist follows total uptake only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0184","hypothesis":"A porous adsorbent could retain gas composition in a mechanical torsion state after equal total mass uptake.","test":"Measure composition and twist.","contrary_result":"Twist follows total uptake only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0185","id":"S8-0185","volume":"900v8","title":"A crystallization inhibitor could change induction-time variance without changing mean crystal growth rate.","prediction":"A crystallization inhibitor could change induction-time variance without changing mean crystal growth rate.","test":"Measure independent induction and growth.","contrary":"Both change proportionally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0185","hypothesis":"A crystallization inhibitor could change induction-time variance without changing mean crystal growth rate.","test":"Measure independent induction and growth.","contrary_result":"Both change proportionally.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0186","id":"S8-0186","volume":"900v8","title":"A mineral dissolution boundary could propagate along a low-stress path even when that path has lower solubility.","prediction":"A mineral dissolution boundary could propagate along a low-stress path even when that path has lower solubility.","test":"Measure stress and local composition.","contrary":"Solubility alone predicts the path.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0186","hypothesis":"A mineral dissolution boundary could propagate along a low-stress path even when that path has lower solubility.","test":"Measure stress and local composition.","contrary_result":"Solubility alone predicts the path.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0187","id":"S8-0187","volume":"900v8","title":"A reversible redox crystal could show a temporary modulus increase while electronic conductivity decreases.","prediction":"A reversible redox crystal could show a temporary modulus increase while electronic conductivity decreases.","test":"Measure both under matched composition.","contrary":"Both track the same monotonic state variable.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0187","hypothesis":"A reversible redox crystal could show a temporary modulus increase while electronic conductivity decreases.","test":"Measure both under matched composition.","contrary_result":"Both track the same monotonic state variable.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0188","id":"S8-0188","volume":"900v8","title":"An inorganic porous surface could collect a benign volatile solute more efficiently during a short cooling pause than continuous cooling at equal energy.","prediction":"An inorganic porous surface could collect a benign volatile solute more efficiently during a short cooling pause than continuous cooling at equal energy.","test":"Measure uptake and heat.","contrary":"Only final temperature matters.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0188","hypothesis":"An inorganic porous surface could collect a benign volatile solute more efficiently during a short cooling pause than continuous cooling at equal energy.","test":"Measure uptake and heat.","contrary_result":"Only final temperature matters.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0189","id":"S8-0189","volume":"900v8","title":"A growing salt bridge could become electrically connected before becoming mechanically load-bearing by a resolvable interval.","prediction":"A growing salt bridge could become electrically connected before becoming mechanically load-bearing by a resolvable interval.","test":"Measure conductivity and stiffness.","contrary":"Thresholds coincide within resolution.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0189","hypothesis":"A growing salt bridge could become electrically connected before becoming mechanically load-bearing by a resolvable interval.","test":"Measure conductivity and stiffness.","contrary_result":"Thresholds coincide within resolution.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0190","id":"S8-0190","volume":"900v8","title":"A mineral surface could show a delayed heat-release pulse after solvent replacement despite unchanged net adsorption mass.","prediction":"A mineral surface could show a delayed heat-release pulse after solvent replacement despite unchanged net adsorption mass.","test":"Measure calorimetry and mass.","contrary":"All heat follows mass uptake.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0190","hypothesis":"A mineral surface could show a delayed heat-release pulse after solvent replacement despite unchanged net adsorption mass.","test":"Measure calorimetry and mass.","contrary_result":"All heat follows mass uptake.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0191","id":"S8-0191","volume":"900v8","title":"A mixed-ion solution could form a transient refractive-index minimum inside a dissolving boundary layer.","prediction":"A mixed-ion solution could form a transient refractive-index minimum inside a dissolving boundary layer.","test":"Map index and composition.","contrary":"Index profiles remain monotonic.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0191","hypothesis":"A mixed-ion solution could form a transient refractive-index minimum inside a dissolving boundary layer.","test":"Map index and composition.","contrary_result":"Index profiles remain monotonic.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0192","id":"S8-0192","volume":"900v8","title":"A crystal under weak torsion could select a different dissolution screw-dislocation population without changing mean rate.","prediction":"A crystal under weak torsion could select a different dissolution screw-dislocation population without changing mean rate.","test":"Image defects and dissolution.","contrary":"Population follows rate alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0192","hypothesis":"A crystal under weak torsion could select a different dissolution screw-dislocation population without changing mean rate.","test":"Image defects and dissolution.","contrary_result":"Population follows rate alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0193","id":"S8-0193","volume":"900v8","title":"A porous catalyst could display longer product retention after a short flow reversal than after a flow stop.","prediction":"A porous catalyst could display longer product retention after a short flow reversal than after a flow stop.","test":"Match elapsed time and inventory.","contrary":"Retention depends only on residence time.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0193","hypothesis":"A porous catalyst could display longer product retention after a short flow reversal than after a flow stop.","test":"Match elapsed time and inventory.","contrary_result":"Retention depends only on residence time.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0194","id":"S8-0194","volume":"900v8","title":"A thin precipitate membrane could spontaneously alternate its preferred ion-transport direction during steady equilibration.","prediction":"A thin precipitate membrane could spontaneously alternate its preferred ion-transport direction during steady equilibration.","test":"Measure fluxes and structure.","contrary":"Direction remains fixed.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0194","hypothesis":"A thin precipitate membrane could spontaneously alternate its preferred ion-transport direction during steady equilibration.","test":"Measure fluxes and structure.","contrary_result":"Direction remains fixed.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0195","id":"S8-0195","volume":"900v8","title":"A mineral grain could exhibit a humidity-dependent minimum in adsorption heat per added water molecule.","prediction":"A mineral grain could exhibit a humidity-dependent minimum in adsorption heat per added water molecule.","test":"Measure differential heat and uptake.","contrary":"Heat varies monotonically.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0195","hypothesis":"A mineral grain could exhibit a humidity-dependent minimum in adsorption heat per added water molecule.","test":"Measure differential heat and uptake.","contrary_result":"Heat varies monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0196","id":"S8-0196","volume":"900v8","title":"A binary salt crust could concentrate strain at a moving composition boundary before its visible fracture.","prediction":"A binary salt crust could concentrate strain at a moving composition boundary before its visible fracture.","test":"Map composition, strain and cracks.","contrary":"Strain localization follows fracture.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0196","hypothesis":"A binary salt crust could concentrate strain at a moving composition boundary before its visible fracture.","test":"Map composition, strain and cracks.","contrary_result":"Strain localization follows fracture.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0197","id":"S8-0197","volume":"900v8","title":"A growing crystal could develop a buried defect-free band after a brief pressure-release interval at constant supersaturation.","prediction":"A growing crystal could develop a buried defect-free band after a brief pressure-release interval at constant supersaturation.","test":"Map defects and growth history.","contrary":"Defect density follows growth rate only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0197","hypothesis":"A growing crystal could develop a buried defect-free band after a brief pressure-release interval at constant supersaturation.","test":"Map defects and growth history.","contrary_result":"Defect density follows growth rate only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0198","id":"S8-0198","volume":"900v8","title":"A porous mineral could distinguish sequential gas exposures from simultaneous exposure through different desorption spectral widths.","prediction":"A porous mineral could distinguish sequential gas exposures from simultaneous exposure through different desorption spectral widths.","test":"Match final species inventories.","contrary":"Widths depend only on inventory.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0198","hypothesis":"A porous mineral could distinguish sequential gas exposures from simultaneous exposure through different desorption spectral widths.","test":"Match final species inventories.","contrary_result":"Widths depend only on inventory.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0199","id":"S8-0199","volume":"900v8","title":"A reversible surface complex could transport heat farther than its net mass diffusion length during relaxation.","prediction":"A reversible surface complex could transport heat farther than its net mass diffusion length during relaxation.","test":"Measure heat and species profiles.","contrary":"Both profiles share one diffusion length.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0199","hypothesis":"A reversible surface complex could transport heat farther than its net mass diffusion length during relaxation.","test":"Measure heat and species profiles.","contrary_result":"Both profiles share one diffusion length.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0200","id":"S8-0200","volume":"900v8","title":"A partially dissolving crystal aggregate could strengthen a weak junction through local reprecipitation before total mass loss stops.","prediction":"A partially dissolving crystal aggregate could strengthen a weak junction through local reprecipitation before total mass loss stops.","test":"Measure junction strength and local growth.","contrary":"Strength rises only after net growth begins.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0200","hypothesis":"A partially dissolving crystal aggregate could strengthen a weak junction through local reprecipitation before total mass loss stops.","test":"Measure junction strength and local growth.","contrary_result":"Strength rises only after net growth begins.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0201","id":"S8-0201","volume":"900v8","title":"An offset elastic hinge could open a liquid contact under compression before its solid stop engages.","prediction":"An offset elastic hinge could open a liquid contact under compression before its solid stop engages.","test":"Measure gap and force.","contrary":"Solid contact always occurs first.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0201","hypothesis":"An offset elastic hinge could open a liquid contact under compression before its solid stop engages.","test":"Measure gap and force.","contrary_result":"Solid contact always occurs first.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0201","hypothesis":"An offset elastic hinge could open a liquid contact under compression before its solid stop engages.","test":"Measure gap and force.","contrary_result":"Solid contact always occurs first.","status":"Untested; novelty unverified","selection_rationale":"A force-displacement trace directly orders gap opening and stop contact.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0202","id":"S8-0202","volume":"900v8","title":"A granular wedge could tighten under small transverse vibration while releasing under longitudinal vibration.","prediction":"A granular wedge could tighten under small transverse vibration while releasing under longitudinal vibration.","test":"Compare directional pullout forces.","contrary":"Both directions produce equal loosening.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0202","hypothesis":"A granular wedge could tighten under small transverse vibration while releasing under longitudinal vibration.","test":"Compare directional pullout forces.","contrary_result":"Both directions produce equal loosening.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0203","id":"S8-0203","volume":"900v8","title":"A hollow torsion spring could reject thermal drift through internal fluid redistribution.","prediction":"A hollow torsion spring could reject thermal drift through internal fluid redistribution.","test":"Measure angle and fluid position.","contrary":"Redistribution increases angular drift.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0203","hypothesis":"A hollow torsion spring could reject thermal drift through internal fluid redistribution.","test":"Measure angle and fluid position.","contrary_result":"Redistribution increases angular drift.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0204","id":"S8-0204","volume":"900v8","title":"A curved porous flap could close when downstream humidity rises at unchanged pressure.","prediction":"A curved porous flap could close when downstream humidity rises at unchanged pressure.","test":"Measure pressure and opening.","contrary":"Closure requires pressure change.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0204","hypothesis":"A curved porous flap could close when downstream humidity rises at unchanged pressure.","test":"Measure pressure and opening.","contrary_result":"Closure requires pressure change.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0205","id":"S8-0205","volume":"900v8","title":"A paired diaphragm could distinguish a pressure impulse from steady load through asymmetric ringdown.","prediction":"A paired diaphragm could distinguish a pressure impulse from steady load through asymmetric ringdown.","test":"Apply calibrated waveforms.","contrary":"Ringdowns depend only on peak force.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0205","hypothesis":"A paired diaphragm could distinguish a pressure impulse from steady load through asymmetric ringdown.","test":"Apply calibrated waveforms.","contrary_result":"Ringdowns depend only on peak force.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0206","id":"S8-0206","volume":"900v8","title":"A sliding thermal contact could maintain conductance during wear through reversible lateral buckling.","prediction":"A sliding thermal contact could maintain conductance during wear through reversible lateral buckling.","test":"Measure wear and heat flux.","contrary":"Conductance declines with worn area.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0206","hypothesis":"A sliding thermal contact could maintain conductance during wear through reversible lateral buckling.","test":"Measure wear and heat flux.","contrary_result":"Conductance declines with worn area.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0207","id":"S8-0207","volume":"900v8","title":"A soft slit could eject bubbles without ejecting equal-volume liquid plugs.","prediction":"A soft slit could eject bubbles without ejecting equal-volume liquid plugs.","test":"Measure passage under matched pulses.","contrary":"Both phases pass identically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0207","hypothesis":"A soft slit could eject bubbles without ejecting equal-volume liquid plugs.","test":"Measure passage under matched pulses.","contrary_result":"Both phases pass identically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0208","id":"S8-0208","volume":"900v8","title":"A dry particle clutch could switch torque direction through radial rather than axial loading.","prediction":"A dry particle clutch could switch torque direction through radial rather than axial loading.","test":"Measure signed torque.","contrary":"Loading changes torque magnitude only.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0208","hypothesis":"A dry particle clutch could switch torque direction through radial rather than axial loading.","test":"Measure signed torque.","contrary_result":"Loading changes torque magnitude only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0209","id":"S8-0209","volume":"900v8","title":"A liquid-filled helix could distinguish gravity tilt from linear acceleration through relaxation timing.","prediction":"A liquid-filled helix could distinguish gravity tilt from linear acceleration through relaxation timing.","test":"Apply calibrated motions.","contrary":"Both inputs remain indistinguishable.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0209","hypothesis":"A liquid-filled helix could distinguish gravity tilt from linear acceleration through relaxation timing.","test":"Apply calibrated motions.","contrary_result":"Both inputs remain indistinguishable.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0210","id":"S8-0210","volume":"900v8","title":"A compressed fiber crossing could reduce friction after a weak perpendicular impulse without separation.","prediction":"A compressed fiber crossing could reduce friction after a weak perpendicular impulse without separation.","test":"Image contacts and measure friction.","contrary":"Reduction requires contact loss.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0210","hypothesis":"A compressed fiber crossing could reduce friction after a weak perpendicular impulse without separation.","test":"Image contacts and measure friction.","contrary_result":"Reduction requires contact loss.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0211","id":"S8-0211","volume":"900v8","title":"A hollow floating vane could retain wind-pulse direction through internal droplet relocation.","prediction":"A hollow floating vane could retain wind-pulse direction through internal droplet relocation.","test":"Measure droplet and vane trajectories.","contrary":"Final state records only pulse energy.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0211","hypothesis":"A hollow floating vane could retain wind-pulse direction through internal droplet relocation.","test":"Measure droplet and vane trajectories.","contrary_result":"Final state records only pulse energy.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0212","id":"S8-0212","volume":"900v8","title":"A thermally expanding lattice could open its hottest contact while preserving colder parallel paths.","prediction":"A thermally expanding lattice could open its hottest contact while preserving colder parallel paths.","test":"Map contacts and heat.","contrary":"All contacts open together.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0212","hypothesis":"A thermally expanding lattice could open its hottest contact while preserving colder parallel paths.","test":"Map contacts and heat.","contrary_result":"All contacts open together.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0213","id":"S8-0213","volume":"900v8","title":"A passive capillary latch could reset through a vapor pulse without direct liquid exchange.","prediction":"A passive capillary latch could reset through a vapor pulse without direct liquid exchange.","test":"Measure meniscus and mass.","contrary":"Reset requires bulk liquid flow.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0213","hypothesis":"A passive capillary latch could reset through a vapor pulse without direct liquid exchange.","test":"Measure meniscus and mass.","contrary_result":"Reset requires bulk liquid flow.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0214","id":"S8-0214","volume":"900v8","title":"A bowed membrane could filter slow pressure drift while passing brief pressure changes through geometric stiffening.","prediction":"A bowed membrane could filter slow pressure drift while passing brief pressure changes through geometric stiffening.","test":"Measure transfer functions.","contrary":"Both timescales are equally attenuated.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0214","hypothesis":"A bowed membrane could filter slow pressure drift while passing brief pressure changes through geometric stiffening.","test":"Measure transfer functions.","contrary_result":"Both timescales are equally attenuated.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0215","id":"S8-0215","volume":"900v8","title":"A granular bearing could exhibit minimum friction at intermediate confinement without added lubricant.","prediction":"A granular bearing could exhibit minimum friction at intermediate confinement without added lubricant.","test":"Sweep load and measure torque.","contrary":"Friction varies monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0215","hypothesis":"A granular bearing could exhibit minimum friction at intermediate confinement without added lubricant.","test":"Sweep load and measure torque.","contrary_result":"Friction varies monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0216","id":"S8-0216","volume":"900v8","title":"A liquid-shell damper could suppress impact rebound more after an off-axis preparation motion.","prediction":"A liquid-shell damper could suppress impact rebound more after an off-axis preparation motion.","test":"Match preparation work.","contrary":"Rebound depends only on liquid mass.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0216","hypothesis":"A liquid-shell damper could suppress impact rebound more after an off-axis preparation motion.","test":"Match preparation work.","contrary_result":"Rebound depends only on liquid mass.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0217","id":"S8-0217","volume":"900v8","title":"A pressure-balanced porous joint could close preferentially around a local leak.","prediction":"A pressure-balanced porous joint could close preferentially around a local leak.","test":"Image strain and leak flow.","contrary":"Closure occurs uniformly.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0217","hypothesis":"A pressure-balanced porous joint could close preferentially around a local leak.","test":"Image strain and leak flow.","contrary_result":"Closure occurs uniformly.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0218","id":"S8-0218","volume":"900v8","title":"A twisted foil pair could separate humidity swelling from temperature through opposite torque signs.","prediction":"A twisted foil pair could separate humidity swelling from temperature through opposite torque signs.","test":"Calibrate both inputs.","contrary":"Torque signs are identical.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0218","hypothesis":"A twisted foil pair could separate humidity swelling from temperature through opposite torque signs.","test":"Calibrate both inputs.","contrary_result":"Torque signs are identical.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0219","id":"S8-0219","volume":"900v8","title":"A flexible perforated plate could shed deposited particles without enlarging its average pores.","prediction":"A flexible perforated plate could shed deposited particles without enlarging its average pores.","test":"Measure pore motion and capture.","contrary":"Cleaning requires permanent pore enlargement.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0219","hypothesis":"A flexible perforated plate could shed deposited particles without enlarging its average pores.","test":"Measure pore motion and capture.","contrary_result":"Cleaning requires permanent pore enlargement.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0220","id":"S8-0220","volume":"900v8","title":"A thermal expansion loop could redirect a moving heat source through sequential contact closure.","prediction":"A thermal expansion loop could redirect a moving heat source through sequential contact closure.","test":"Track contacts and heat paths.","contrary":"Heat follows static resistance only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0220","hypothesis":"A thermal expansion loop could redirect a moving heat source through sequential contact closure.","test":"Track contacts and heat paths.","contrary_result":"Heat follows static resistance only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0221","id":"S8-0221","volume":"900v8","title":"A hollow elastic bead could reject slow hydrostatic changes while detecting acoustic pressure through shape modes.","prediction":"A hollow elastic bead could reject slow hydrostatic changes while detecting acoustic pressure through shape modes.","test":"Measure static and dynamic responses.","contrary":"Responses share one sensitivity.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0221","hypothesis":"A hollow elastic bead could reject slow hydrostatic changes while detecting acoustic pressure through shape modes.","test":"Measure static and dynamic responses.","contrary_result":"Responses share one sensitivity.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0221","hypothesis":"A hollow elastic bead could reject slow hydrostatic changes while detecting acoustic pressure through shape modes.","test":"Measure static and dynamic responses.","contrary_result":"Responses share one sensitivity.","status":"Untested; novelty unverified","selection_rationale":"Static and dynamic pressure can be calibrated independently.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0222","id":"S8-0222","volume":"900v8","title":"A liquid bridge could support greater lateral load after a short axial unloading step.","prediction":"A liquid bridge could support greater lateral load after a short axial unloading step.","test":"Measure bridge geometry and failure.","contrary":"Unloading always reduces load capacity.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0222","hypothesis":"A liquid bridge could support greater lateral load after a short axial unloading step.","test":"Measure bridge geometry and failure.","contrary_result":"Unloading always reduces load capacity.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0223","id":"S8-0223","volume":"900v8","title":"A bent porous tube could route a tracer pulse differently depending on its previous flow direction.","prediction":"A bent porous tube could route a tracer pulse differently depending on its previous flow direction.","test":"Match final liquid inventory.","contrary":"Routing depends only on current flow.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0223","hypothesis":"A bent porous tube could route a tracer pulse differently depending on its previous flow direction.","test":"Match final liquid inventory.","contrary_result":"Routing depends only on current flow.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0224","id":"S8-0224","volume":"900v8","title":"A reversible solid valve could open at a lower force after partial rather than full cooling.","prediction":"A reversible solid valve could open at a lower force after partial rather than full cooling.","test":"Measure threshold versus cooling.","contrary":"Threshold changes monotonically.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0224","hypothesis":"A reversible solid valve could open at a lower force after partial rather than full cooling.","test":"Measure threshold versus cooling.","contrary_result":"Threshold changes monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0225","id":"S8-0225","volume":"900v8","title":"A granular spring could recover stiffness before recovering length after unloading.","prediction":"A granular spring could recover stiffness before recovering length after unloading.","test":"Measure both time courses.","contrary":"Recovery ordering is opposite.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0225","hypothesis":"A granular spring could recover stiffness before recovering length after unloading.","test":"Measure both time courses.","contrary_result":"Recovery ordering is opposite.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0226","id":"S8-0226","volume":"900v8","title":"A thin fluid film could identify a hidden support crack through a moving surface-wave focus.","prediction":"A thin fluid film could identify a hidden support crack through a moving surface-wave focus.","test":"Map waves and crack position.","contrary":"Focus follows film thickness alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0226","hypothesis":"A thin fluid film could identify a hidden support crack through a moving surface-wave focus.","test":"Map waves and crack position.","contrary_result":"Focus follows film thickness alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0227","id":"S8-0227","volume":"900v8","title":"A soft magnetic loop could discriminate field rotation from field-strength change through transient chirality.","prediction":"A soft magnetic loop could discriminate field rotation from field-strength change through transient chirality.","test":"Apply separate inputs.","contrary":"Chirality follows field magnitude only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0227","hypothesis":"A soft magnetic loop could discriminate field rotation from field-strength change through transient chirality.","test":"Apply separate inputs.","contrary_result":"Chirality follows field magnitude only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0228","id":"S8-0228","volume":"900v8","title":"A porous thermal contact could improve after selective drainage of its largest pores.","prediction":"A porous thermal contact could improve after selective drainage of its largest pores.","test":"Measure pore water and conductance.","contrary":"Drainage always lowers heat transfer.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0228","hypothesis":"A porous thermal contact could improve after selective drainage of its largest pores.","test":"Measure pore water and conductance.","contrary_result":"Drainage always lowers heat transfer.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0229","id":"S8-0229","volume":"900v8","title":"A suspended plate could locate a tiny leak from the direction of its acoustic phase gradient.","prediction":"A suspended plate could locate a tiny leak from the direction of its acoustic phase gradient.","test":"Open controlled leaks.","contrary":"Gradient depends only on supports.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0229","hypothesis":"A suspended plate could locate a tiny leak from the direction of its acoustic phase gradient.","test":"Open controlled leaks.","contrary_result":"Gradient depends only on supports.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0230","id":"S8-0230","volume":"900v8","title":"A compressible liquid reservoir could sharpen a flow pulse through delayed wall recoil.","prediction":"A compressible liquid reservoir could sharpen a flow pulse through delayed wall recoil.","test":"Measure inlet and outlet pulses.","contrary":"All pulses broaden.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0230","hypothesis":"A compressible liquid reservoir could sharpen a flow pulse through delayed wall recoil.","test":"Measure inlet and outlet pulses.","contrary_result":"All pulses broaden.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0231","id":"S8-0231","volume":"900v8","title":"A self-wetting ceramic flap could oscillate under constant evaporation without external timing.","prediction":"A self-wetting ceramic flap could oscillate under constant evaporation without external timing.","test":"Measure water and angle.","contrary":"Oscillation requires ambient fluctuations.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0231","hypothesis":"A self-wetting ceramic flap could oscillate under constant evaporation without external timing.","test":"Measure water and angle.","contrary_result":"Oscillation requires ambient fluctuations.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0232","id":"S8-0232","volume":"900v8","title":"A dry granular seal could lower leakage after a brief reverse pressure pulse.","prediction":"A dry granular seal could lower leakage after a brief reverse pressure pulse.","test":"Measure gas paths and leakage.","contrary":"Reverse pulses only open channels.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0232","hypothesis":"A dry granular seal could lower leakage after a brief reverse pressure pulse.","test":"Measure gas paths and leakage.","contrary_result":"Reverse pulses only open channels.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0233","id":"S8-0233","volume":"900v8","title":"A passive liquid switch could distinguish one long pulse from two short equal-volume pulses.","prediction":"A passive liquid switch could distinguish one long pulse from two short equal-volume pulses.","test":"Compare final interfaces.","contrary":"Only total volume matters.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0233","hypothesis":"A passive liquid switch could distinguish one long pulse from two short equal-volume pulses.","test":"Compare final interfaces.","contrary_result":"Only total volume matters.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0234","id":"S8-0234","volume":"900v8","title":"A folded metal fin could increase cooling under weak vibration without increasing airflow.","prediction":"A folded metal fin could increase cooling under weak vibration without increasing airflow.","test":"Measure airflow and heat loss.","contrary":"Cooling follows airflow changes only.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0234","hypothesis":"A folded metal fin could increase cooling under weak vibration without increasing airflow.","test":"Measure airflow and heat loss.","contrary_result":"Cooling follows airflow changes only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0235","id":"S8-0235","volume":"900v8","title":"A hollow beam could reveal internal liquid stratification through opposite shifts in torsional and bending damping.","prediction":"A hollow beam could reveal internal liquid stratification through opposite shifts in torsional and bending damping.","test":"Measure stratification and modes.","contrary":"Damping follows total liquid mass.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0235","hypothesis":"A hollow beam could reveal internal liquid stratification through opposite shifts in torsional and bending damping.","test":"Measure stratification and modes.","contrary_result":"Damping follows total liquid mass.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0236","id":"S8-0236","volume":"900v8","title":"A compliant nozzle could produce uniform droplets over a wider pressure range through reversible edge rotation.","prediction":"A compliant nozzle could produce uniform droplets over a wider pressure range through reversible edge rotation.","test":"Measure edge and droplet sizes.","contrary":"Rotation broadens the size distribution.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0236","hypothesis":"A compliant nozzle could produce uniform droplets over a wider pressure range through reversible edge rotation.","test":"Measure edge and droplet sizes.","contrary_result":"Rotation broadens the size distribution.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0237","id":"S8-0237","volume":"900v8","title":"A loose-contact heat path could detect overload through thermal-noise bursts before electrical discontinuity.","prediction":"A loose-contact heat path could detect overload through thermal-noise bursts before electrical discontinuity.","test":"Measure both channels.","contrary":"Electrical failure appears first.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0237","hypothesis":"A loose-contact heat path could detect overload through thermal-noise bursts before electrical discontinuity.","test":"Measure both channels.","contrary_result":"Electrical failure appears first.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0238","id":"S8-0238","volume":"900v8","title":"A passive porous gate could open under solvent exchange despite unchanged equilibrium contact angle.","prediction":"A passive porous gate could open under solvent exchange despite unchanged equilibrium contact angle.","test":"Measure swelling and flow.","contrary":"Opening follows wetting angle only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0238","hypothesis":"A passive porous gate could open under solvent exchange despite unchanged equilibrium contact angle.","test":"Measure swelling and flow.","contrary_result":"Opening follows wetting angle only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0239","id":"S8-0239","volume":"900v8","title":"A coupled spring pair could store pulse ordering through a reversible internal contact sequence.","prediction":"A coupled spring pair could store pulse ordering through a reversible internal contact sequence.","test":"Reverse pulse order.","contrary":"Final contact states coincide.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0239","hypothesis":"A coupled spring pair could store pulse ordering through a reversible internal contact sequence.","test":"Reverse pulse order.","contrary_result":"Final contact states coincide.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0240","id":"S8-0240","volume":"900v8","title":"A liquid-filled spacer could reject compressive creep by redistributing fluid between unequal chambers.","prediction":"A liquid-filled spacer could reject compressive creep by redistributing fluid between unequal chambers.","test":"Measure displacement and fluid.","contrary":"Redistribution accelerates creep.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0240","hypothesis":"A liquid-filled spacer could reject compressive creep by redistributing fluid between unequal chambers.","test":"Measure displacement and fluid.","contrary_result":"Redistribution accelerates creep.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0241","id":"S8-0241","volume":"900v8","title":"A wedge-shaped vapor cavity could reduce thermal contact resistance during cooling through condensation relocation.","prediction":"A wedge-shaped vapor cavity could reduce thermal contact resistance during cooling through condensation relocation.","test":"Map condensate and heat flux.","contrary":"Resistance follows total condensate only.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0241","hypothesis":"A wedge-shaped vapor cavity could reduce thermal contact resistance during cooling through condensation relocation.","test":"Map condensate and heat flux.","contrary_result":"Resistance follows total condensate only.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0241","hypothesis":"A wedge-shaped vapor cavity could reduce thermal contact resistance during cooling through condensation relocation.","test":"Map condensate and heat flux.","contrary_result":"Resistance follows total condensate only.","status":"Untested; novelty unverified","selection_rationale":"Condensate location can be measured alongside thermal resistance.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0242","id":"S8-0242","volume":"900v8","title":"A granular sleeve could distinguish object rotation from translation through different pressure-noise symmetries.","prediction":"A granular sleeve could distinguish object rotation from translation through different pressure-noise symmetries.","test":"Apply calibrated motions.","contrary":"Noise depends only on speed.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0242","hypothesis":"A granular sleeve could distinguish object rotation from translation through different pressure-noise symmetries.","test":"Apply calibrated motions.","contrary_result":"Noise depends only on speed.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0243","id":"S8-0243","volume":"900v8","title":"A flexible drain could self-clear a soft blockage while retaining rigid particles of equal size.","prediction":"A flexible drain could self-clear a soft blockage while retaining rigid particles of equal size.","test":"Image deformation and passage.","contrary":"Both particle types behave identically.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0243","hypothesis":"A flexible drain could self-clear a soft blockage while retaining rigid particles of equal size.","test":"Image deformation and passage.","contrary_result":"Both particle types behave identically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0244","id":"S8-0244","volume":"900v8","title":"A thermal latch could retain a brief maximum temperature in its contact configuration without permanent deformation.","prediction":"A thermal latch could retain a brief maximum temperature in its contact configuration without permanent deformation.","test":"Measure contacts after equilibration.","contrary":"All contacts return immediately.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0244","hypothesis":"A thermal latch could retain a brief maximum temperature in its contact configuration without permanent deformation.","test":"Measure contacts after equilibration.","contrary_result":"All contacts return immediately.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0245","id":"S8-0245","volume":"900v8","title":"A porous floating ring could collect droplets on its inner edge while shedding exterior droplets.","prediction":"A porous floating ring could collect droplets on its inner edge while shedding exterior droplets.","test":"Measure collection by position.","contrary":"Retention follows droplet size alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0245","hypothesis":"A porous floating ring could collect droplets on its inner edge while shedding exterior droplets.","test":"Measure collection by position.","contrary_result":"Retention follows droplet size alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0246","id":"S8-0246","volume":"900v8","title":"A diaphragm with an internal liquid patch could infer force position from mode-energy ratios.","prediction":"A diaphragm with an internal liquid patch could infer force position from mode-energy ratios.","test":"Apply mapped forces.","contrary":"Ratios reveal force magnitude only.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0246","hypothesis":"A diaphragm with an internal liquid patch could infer force position from mode-energy ratios.","test":"Apply mapped forces.","contrary_result":"Ratios reveal force magnitude only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0247","id":"S8-0247","volume":"900v8","title":"A compliant capillary could suppress gas lock by a reversible twist rather than radial expansion.","prediction":"A compliant capillary could suppress gas lock by a reversible twist rather than radial expansion.","test":"Image twist and gas.","contrary":"Clearing requires diameter increase.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0247","hypothesis":"A compliant capillary could suppress gas lock by a reversible twist rather than radial expansion.","test":"Image twist and gas.","contrary_result":"Clearing requires diameter increase.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0248","id":"S8-0248","volume":"900v8","title":"A thin friction pad could exhibit lower wear under intermittent torsion than unidirectional sliding at equal work.","prediction":"A thin friction pad could exhibit lower wear under intermittent torsion than unidirectional sliding at equal work.","test":"Measure wear volumes.","contrary":"Wear depends only on work.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0248","hypothesis":"A thin friction pad could exhibit lower wear under intermittent torsion than unidirectional sliding at equal work.","test":"Measure wear volumes.","contrary_result":"Wear depends only on work.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0249","id":"S8-0249","volume":"900v8","title":"A dry granular contact could show a load interval of rising thermal conductance and falling electrical conductance.","prediction":"A dry granular contact could show a load interval of rising thermal conductance and falling electrical conductance.","test":"Measure both during loading.","contrary":"Both change together.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0249","hypothesis":"A dry granular contact could show a load interval of rising thermal conductance and falling electrical conductance.","test":"Measure both during loading.","contrary_result":"Both change together.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0250","id":"S8-0250","volume":"900v8","title":"A hollow elastic lattice could localize a pressure overload into a sacrificial fluid compartment without rupture.","prediction":"A hollow elastic lattice could localize a pressure overload into a sacrificial fluid compartment without rupture.","test":"Map pressures and strains.","contrary":"Pressure remains uniform until rupture.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0250","hypothesis":"A hollow elastic lattice could localize a pressure overload into a sacrificial fluid compartment without rupture.","test":"Map pressures and strains.","contrary_result":"Pressure remains uniform until rupture.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0251","id":"S8-0251","volume":"900v8","title":"A paired optical lever could reject uniform thermal expansion while revealing one-sided adsorption.","prediction":"A paired optical lever could reject uniform thermal expansion while revealing one-sided adsorption.","test":"Calibrate perturbations.","contrary":"Adsorption rejection matches thermal rejection.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0251","hypothesis":"A paired optical lever could reject uniform thermal expansion while revealing one-sided adsorption.","test":"Calibrate perturbations.","contrary_result":"Adsorption rejection matches thermal rejection.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0252","id":"S8-0252","volume":"900v8","title":"A soft liquid-filled seal could improve acoustic isolation after slight controlled leakage.","prediction":"A soft liquid-filled seal could improve acoustic isolation after slight controlled leakage.","test":"Measure leakage and transmission.","contrary":"Any leakage worsens isolation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0252","hypothesis":"A soft liquid-filled seal could improve acoustic isolation after slight controlled leakage.","test":"Measure leakage and transmission.","contrary_result":"Any leakage worsens isolation.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0253","id":"S8-0253","volume":"900v8","title":"A passive wick junction could route liquid toward its mechanically unloaded branch.","prediction":"A passive wick junction could route liquid toward its mechanically unloaded branch.","test":"Measure strain and branch flow.","contrary":"Flow follows static pore size only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0253","hypothesis":"A passive wick junction could route liquid toward its mechanically unloaded branch.","test":"Measure strain and branch flow.","contrary_result":"Flow follows static pore size only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0254","id":"S8-0254","volume":"900v8","title":"A thin ceramic dome could warn of overload through a reversible resonance doublet.","prediction":"A thin ceramic dome could warn of overload through a reversible resonance doublet.","test":"Measure strain and spectrum.","contrary":"Doublet appears only after damage.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0254","hypothesis":"A thin ceramic dome could warn of overload through a reversible resonance doublet.","test":"Measure strain and spectrum.","contrary_result":"Doublet appears only after damage.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0255","id":"S8-0255","volume":"900v8","title":"A buoyant valve could reject isolated bubbles but pass a continuous gas stream through delayed rotation.","prediction":"A buoyant valve could reject isolated bubbles but pass a continuous gas stream through delayed rotation.","test":"Measure motion and phase throughput.","contrary":"Bubble count does not affect passage.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0255","hypothesis":"A buoyant valve could reject isolated bubbles but pass a continuous gas stream through delayed rotation.","test":"Measure motion and phase throughput.","contrary_result":"Bubble count does not affect passage.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0256","id":"S8-0256","volume":"900v8","title":"A liquid-coated rough surface could have a finite slip-speed interval of decreasing friction noise.","prediction":"A liquid-coated rough surface could have a finite slip-speed interval of decreasing friction noise.","test":"Sweep speed and measure noise.","contrary":"Noise rises monotonically.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0256","hypothesis":"A liquid-coated rough surface could have a finite slip-speed interval of decreasing friction noise.","test":"Sweep speed and measure noise.","contrary_result":"Noise rises monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0257","id":"S8-0257","volume":"900v8","title":"A granular membrane could preserve stiffness after losing some particles through reversible contact reorganization.","prediction":"A granular membrane could preserve stiffness after losing some particles through reversible contact reorganization.","test":"Measure contacts and stiffness.","contrary":"Stiffness follows retained mass only.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0257","hypothesis":"A granular membrane could preserve stiffness after losing some particles through reversible contact reorganization.","test":"Measure contacts and stiffness.","contrary_result":"Stiffness follows retained mass only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0258","id":"S8-0258","volume":"900v8","title":"A thermal contact array could identify the location of a cooling pulse from closure timing alone.","prediction":"A thermal contact array could identify the location of a cooling pulse from closure timing alone.","test":"Apply mapped pulses.","contrary":"Timing reflects only pulse magnitude.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0258","hypothesis":"A thermal contact array could identify the location of a cooling pulse from closure timing alone.","test":"Apply mapped pulses.","contrary_result":"Timing reflects only pulse magnitude.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0259","id":"S8-0259","volume":"900v8","title":"A soft-walled gas channel could damp pressure pulsations without retaining a volatile tracer.","prediction":"A soft-walled gas channel could damp pressure pulsations without retaining a volatile tracer.","test":"Measure both transfer functions.","contrary":"Tracer delay grows with damping.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0259","hypothesis":"A soft-walled gas channel could damp pressure pulsations without retaining a volatile tracer.","test":"Measure both transfer functions.","contrary_result":"Tracer delay grows with damping.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0260","id":"S8-0260","volume":"900v8","title":"A compliant particle trap could release overloaded pores selectively while neighboring pores retain capture.","prediction":"A compliant particle trap could release overloaded pores selectively while neighboring pores retain capture.","test":"Map deposits and pore motion.","contrary":"Cleaning releases particles everywhere.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0260","hypothesis":"A compliant particle trap could release overloaded pores selectively while neighboring pores retain capture.","test":"Map deposits and pore motion.","contrary_result":"Cleaning releases particles everywhere.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0261","id":"S8-0261","volume":"900v8","title":"A hollow pivot could recover angular alignment through condensation transfer between chambers.","prediction":"A hollow pivot could recover angular alignment through condensation transfer between chambers.","test":"Measure condensate and angle.","contrary":"Recovery requires an external torque.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0261","hypothesis":"A hollow pivot could recover angular alignment through condensation transfer between chambers.","test":"Measure condensate and angle.","contrary_result":"Recovery requires an external torque.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0262","id":"S8-0262","volume":"900v8","title":"A porous diaphragm could discriminate surface icing from internal freezing through opposite phase shifts.","prediction":"A porous diaphragm could discriminate surface icing from internal freezing through opposite phase shifts.","test":"Freeze regions separately.","contrary":"Phase signatures coincide.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0262","hypothesis":"A porous diaphragm could discriminate surface icing from internal freezing through opposite phase shifts.","test":"Freeze regions separately.","contrary_result":"Phase signatures coincide.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0263","id":"S8-0263","volume":"900v8","title":"A liquid meniscus bearing could maintain lower friction after a brief load reversal than steady loading.","prediction":"A liquid meniscus bearing could maintain lower friction after a brief load reversal than steady loading.","test":"Match final load and liquid.","contrary":"Reversal gives no lasting benefit.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0263","hypothesis":"A liquid meniscus bearing could maintain lower friction after a brief load reversal than steady loading.","test":"Match final load and liquid.","contrary_result":"Reversal gives no lasting benefit.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0264","id":"S8-0264","volume":"900v8","title":"A bowed optical spacer could amplify a small humidity gradient without amplifying uniform humidity.","prediction":"A bowed optical spacer could amplify a small humidity gradient without amplifying uniform humidity.","test":"Calibrate spatial patterns.","contrary":"Both inputs produce equal bending.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0264","hypothesis":"A bowed optical spacer could amplify a small humidity gradient without amplifying uniform humidity.","test":"Calibrate spatial patterns.","contrary_result":"Both inputs produce equal bending.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0265","id":"S8-0265","volume":"900v8","title":"A granular thermal switch could reopen after weak sound at lower energy than after uniform heating.","prediction":"A granular thermal switch could reopen after weak sound at lower energy than after uniform heating.","test":"Measure reset work and temperature.","contrary":"Acoustic reset is heating alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0265","hypothesis":"A granular thermal switch could reopen after weak sound at lower energy than after uniform heating.","test":"Measure reset work and temperature.","contrary_result":"Acoustic reset is heating alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0266","id":"S8-0266","volume":"900v8","title":"A deformable liquid splitter could preserve equal output volume despite unequal downstream resistance.","prediction":"A deformable liquid splitter could preserve equal output volume despite unequal downstream resistance.","test":"Measure branch geometry and volumes.","contrary":"Volume ratio follows resistance ratio.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0266","hypothesis":"A deformable liquid splitter could preserve equal output volume despite unequal downstream resistance.","test":"Measure branch geometry and volumes.","contrary_result":"Volume ratio follows resistance ratio.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0267","id":"S8-0267","volume":"900v8","title":"A gas-filled elastic ring could detect a local surface defect through a rotating mode node.","prediction":"A gas-filled elastic ring could detect a local surface defect through a rotating mode node.","test":"Map defect and nodes.","contrary":"Nodes follow supports only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0267","hypothesis":"A gas-filled elastic ring could detect a local surface defect through a rotating mode node.","test":"Map defect and nodes.","contrary_result":"Nodes follow supports only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0268","id":"S8-0268","volume":"900v8","title":"A passive particle classifier could separate roughness at equal size through successive grazing rebounds.","prediction":"A passive particle classifier could separate roughness at equal size through successive grazing rebounds.","test":"Measure roughness and exit paths.","contrary":"Sorting follows restitution alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0268","hypothesis":"A passive particle classifier could separate roughness at equal size through successive grazing rebounds.","test":"Measure roughness and exit paths.","contrary_result":"Sorting follows restitution alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0269","id":"S8-0269","volume":"900v8","title":"A flexible heat exchanger could suppress thermal shocks through delayed channel-wall motion without added thermal mass.","prediction":"A flexible heat exchanger could suppress thermal shocks through delayed channel-wall motion without added thermal mass.","test":"Measure wall and outlet temperatures.","contrary":"Suppression follows stored heat only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0269","hypothesis":"A flexible heat exchanger could suppress thermal shocks through delayed channel-wall motion without added thermal mass.","test":"Measure wall and outlet temperatures.","contrary_result":"Suppression follows stored heat only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0270","id":"S8-0270","volume":"900v8","title":"A liquid-coated fiber pair could distinguish tension loss from solvent loss through opposite phase coupling.","prediction":"A liquid-coated fiber pair could distinguish tension loss from solvent loss through opposite phase coupling.","test":"Calibrate separately.","contrary":"Phase signatures are indistinguishable.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0270","hypothesis":"A liquid-coated fiber pair could distinguish tension loss from solvent loss through opposite phase coupling.","test":"Calibrate separately.","contrary_result":"Phase signatures are indistinguishable.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0271","id":"S8-0271","volume":"900v8","title":"A porous cap could suppress evaporation noise while retaining mean evaporative cooling.","prediction":"A porous cap could suppress evaporation noise while retaining mean evaporative cooling.","test":"Measure heat and mass fluctuations.","contrary":"Noise reduction requires lower mean cooling.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0271","hypothesis":"A porous cap could suppress evaporation noise while retaining mean evaporative cooling.","test":"Measure heat and mass fluctuations.","contrary_result":"Noise reduction requires lower mean cooling.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0272","id":"S8-0272","volume":"900v8","title":"A granular arch could act as a reversible pressure threshold whose reset depends on unloading direction.","prediction":"A granular arch could act as a reversible pressure threshold whose reset depends on unloading direction.","test":"Measure thresholds and contact paths.","contrary":"Reset depends only on minimum load.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0272","hypothesis":"A granular arch could act as a reversible pressure threshold whose reset depends on unloading direction.","test":"Measure thresholds and contact paths.","contrary_result":"Reset depends only on minimum load.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0273","id":"S8-0273","volume":"900v8","title":"A hollow sheet could reduce sag when partially rather than fully liquid-filled through internal pressure redistribution.","prediction":"A hollow sheet could reduce sag when partially rather than fully liquid-filled through internal pressure redistribution.","test":"Measure sag and pressure.","contrary":"Sag varies monotonically with fill.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0273","hypothesis":"A hollow sheet could reduce sag when partially rather than fully liquid-filled through internal pressure redistribution.","test":"Measure sag and pressure.","contrary_result":"Sag varies monotonically with fill.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0274","id":"S8-0274","volume":"900v8","title":"A curved ceramic channel could direct a bubble toward a colder exit despite adverse buoyancy.","prediction":"A curved ceramic channel could direct a bubble toward a colder exit despite adverse buoyancy.","test":"Measure bubble and thermal fields.","contrary":"Motion follows buoyancy alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0274","hypothesis":"A curved ceramic channel could direct a bubble toward a colder exit despite adverse buoyancy.","test":"Measure bubble and thermal fields.","contrary_result":"Motion follows buoyancy alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0275","id":"S8-0275","volume":"900v8","title":"A compliant contact could distinguish surface contamination from insufficient preload through nonlinear acoustic phase.","prediction":"A compliant contact could distinguish surface contamination from insufficient preload through nonlinear acoustic phase.","test":"Calibrate faults separately.","contrary":"Both signatures coincide.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0275","hypothesis":"A compliant contact could distinguish surface contamination from insufficient preload through nonlinear acoustic phase.","test":"Calibrate faults separately.","contrary_result":"Both signatures coincide.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0276","id":"S8-0276","volume":"900v8","title":"A liquid-film hinge could show maximum mechanical recovery at intermediate rest time.","prediction":"A liquid-film hinge could show maximum mechanical recovery at intermediate rest time.","test":"Measure recovery versus pause.","contrary":"Recovery increases monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0276","hypothesis":"A liquid-film hinge could show maximum mechanical recovery at intermediate rest time.","test":"Measure recovery versus pause.","contrary_result":"Recovery increases monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0277","id":"S8-0277","volume":"900v8","title":"A particle-loaded membrane could detect flow reversal before mean drag changes sign through mode coupling.","prediction":"A particle-loaded membrane could detect flow reversal before mean drag changes sign through mode coupling.","test":"Measure flow and modes.","contrary":"Coupling reverses only after drag.","layers":[1],"categories":["physical","biology","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0277","hypothesis":"A particle-loaded membrane could detect flow reversal before mean drag changes sign through mode coupling.","test":"Measure flow and modes.","contrary_result":"Coupling reverses only after drag.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0278","id":"S8-0278","volume":"900v8","title":"A porous elastic tube could restore blocked liquid flow through weak axial oscillation without dislodging solids.","prediction":"A porous elastic tube could restore blocked liquid flow through weak axial oscillation without dislodging solids.","test":"Measure channels and retained particles.","contrary":"Recovery requires particle loss.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0278","hypothesis":"A porous elastic tube could restore blocked liquid flow through weak axial oscillation without dislodging solids.","test":"Measure channels and retained particles.","contrary_result":"Recovery requires particle loss.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0279","id":"S8-0279","volume":"900v8","title":"A passive thermal bridge could move its effective contact point toward a changing hotspot.","prediction":"A passive thermal bridge could move its effective contact point toward a changing hotspot.","test":"Map contact and temperature.","contrary":"Contact remains fixed.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0279","hypothesis":"A passive thermal bridge could move its effective contact point toward a changing hotspot.","test":"Map contact and temperature.","contrary_result":"Contact remains fixed.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0280","id":"S8-0280","volume":"900v8","title":"A vented soft cavity could reject a pressure impulse through delayed rather than immediate vent opening.","prediction":"A vented soft cavity could reject a pressure impulse through delayed rather than immediate vent opening.","test":"Measure vent motion and pressure.","contrary":"Immediate opening always minimizes the peak.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0280","hypothesis":"A vented soft cavity could reject a pressure impulse through delayed rather than immediate vent opening.","test":"Measure vent motion and pressure.","contrary_result":"Immediate opening always minimizes the peak.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0281","id":"S8-0281","volume":"900v8","title":"A dry granular pad could acquire directional friction from alternating normal loads with zero lateral motion.","prediction":"A dry granular pad could acquire directional friction from alternating normal loads with zero lateral motion.","test":"Measure contact texture and sliding.","contrary":"Friction remains isotropic.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0281","hypothesis":"A dry granular pad could acquire directional friction from alternating normal loads with zero lateral motion.","test":"Measure contact texture and sliding.","contrary_result":"Friction remains isotropic.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0281","hypothesis":"A dry granular pad could acquire directional friction from alternating normal loads with zero lateral motion.","test":"Measure contact texture and sliding.","contrary_result":"Friction remains isotropic.","status":"Untested; novelty unverified","selection_rationale":"Zero lateral preparation tests a specific friction-symmetry claim.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0282","id":"S8-0282","volume":"900v8","title":"A liquid-filled shell could distinguish tangential impact from normal impact through late-time rotational modes.","prediction":"A liquid-filled shell could distinguish tangential impact from normal impact through late-time rotational modes.","test":"Calibrate equal-energy impacts.","contrary":"Late modes record energy only.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0282","hypothesis":"A liquid-filled shell could distinguish tangential impact from normal impact through late-time rotational modes.","test":"Calibrate equal-energy impacts.","contrary_result":"Late modes record energy only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0283","id":"S8-0283","volume":"900v8","title":"A porous slider could reduce wear by releasing retained liquid only during force reversals.","prediction":"A porous slider could reduce wear by releasing retained liquid only during force reversals.","test":"Measure release and wear.","contrary":"Liquid release follows mean load only.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0283","hypothesis":"A porous slider could reduce wear by releasing retained liquid only during force reversals.","test":"Measure release and wear.","contrary_result":"Liquid release follows mean load only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0284","id":"S8-0284","volume":"900v8","title":"A thermally cycled folded film could retain more elastic energy after partial contact release than complete separation.","prediction":"A thermally cycled folded film could retain more elastic energy after partial contact release than complete separation.","test":"Measure work loops.","contrary":"Energy depends only on peak strain.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0284","hypothesis":"A thermally cycled folded film could retain more elastic energy after partial contact release than complete separation.","test":"Measure work loops.","contrary_result":"Energy depends only on peak strain.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0285","id":"S8-0285","volume":"900v8","title":"A narrow elastic channel could equalize unequal droplet spacing through pressure-mediated wall motion.","prediction":"A narrow elastic channel could equalize unequal droplet spacing through pressure-mediated wall motion.","test":"Track intervals and wall shape.","contrary":"Spacing variability persists.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0285","hypothesis":"A narrow elastic channel could equalize unequal droplet spacing through pressure-mediated wall motion.","test":"Track intervals and wall shape.","contrary_result":"Spacing variability persists.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0286","id":"S8-0286","volume":"900v8","title":"A mechanically loaded vapor cavity could separate condensation delay from thermal diffusion through two pressure peaks.","prediction":"A mechanically loaded vapor cavity could separate condensation delay from thermal diffusion through two pressure peaks.","test":"Measure heat and condensate.","contrary":"One thermal timescale explains both peaks.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0286","hypothesis":"A mechanically loaded vapor cavity could separate condensation delay from thermal diffusion through two pressure peaks.","test":"Measure heat and condensate.","contrary_result":"One thermal timescale explains both peaks.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0287","id":"S8-0287","volume":"900v8","title":"A granular ring could transmit torque after losing a load-bearing contact by reorganizing around the opposite side.","prediction":"A granular ring could transmit torque after losing a load-bearing contact by reorganizing around the opposite side.","test":"Map contacts and torque.","contrary":"Torque collapses immediately.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0287","hypothesis":"A granular ring could transmit torque after losing a load-bearing contact by reorganizing around the opposite side.","test":"Map contacts and torque.","contrary_result":"Torque collapses immediately.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0288","id":"S8-0288","volume":"900v8","title":"A thin gas cushion could stabilize a wet friction contact against stick-slip at intermediate vent conductance.","prediction":"A thin gas cushion could stabilize a wet friction contact against stick-slip at intermediate vent conductance.","test":"Measure force spectra and pressure.","contrary":"Stability varies monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0288","hypothesis":"A thin gas cushion could stabilize a wet friction contact against stick-slip at intermediate vent conductance.","test":"Measure force spectra and pressure.","contrary_result":"Stability varies monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0289","id":"S8-0289","volume":"900v8","title":"A passive liquid reservoir could release equal volumes per cycle despite changing hydrostatic head through elastic inversion.","prediction":"A passive liquid reservoir could release equal volumes per cycle despite changing hydrostatic head through elastic inversion.","test":"Measure volumes and geometry.","contrary":"Dose follows head pressure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0289","hypothesis":"A passive liquid reservoir could release equal volumes per cycle despite changing hydrostatic head through elastic inversion.","test":"Measure volumes and geometry.","contrary_result":"Dose follows head pressure.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0290","id":"S8-0290","volume":"900v8","title":"A soft optical element could distinguish a local scratch from uniform swelling through mode-parity changes.","prediction":"A soft optical element could distinguish a local scratch from uniform swelling through mode-parity changes.","test":"Calibrate defects.","contrary":"Both perturbations preserve the same parity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0290","hypothesis":"A soft optical element could distinguish a local scratch from uniform swelling through mode-parity changes.","test":"Calibrate defects.","contrary_result":"Both perturbations preserve the same parity.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0291","id":"S8-0291","volume":"900v8","title":"A porous ceramic joint could become thermally quieter after reversible compression without improving average conductance.","prediction":"A porous ceramic joint could become thermally quieter after reversible compression without improving average conductance.","test":"Measure fluctuations and mean flux.","contrary":"Noise follows conductance only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0291","hypothesis":"A porous ceramic joint could become thermally quieter after reversible compression without improving average conductance.","test":"Measure fluctuations and mean flux.","contrary_result":"Noise follows conductance only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0292","id":"S8-0292","volume":"900v8","title":"A hollow torsion beam could record a pressure pulse's duration through internal fluid position after pressure returns to baseline.","prediction":"A hollow torsion beam could record a pressure pulse's duration through internal fluid position after pressure returns to baseline.","test":"Measure fluid and angle.","contrary":"Position depends only on total injected volume.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0292","hypothesis":"A hollow torsion beam could record a pressure pulse's duration through internal fluid position after pressure returns to baseline.","test":"Measure fluid and angle.","contrary_result":"Position depends only on total injected volume.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0293","id":"S8-0293","volume":"900v8","title":"A flexible particle bed could suppress channeling after a brief cross-flow pulse without bulk remixing.","prediction":"A flexible particle bed could suppress channeling after a brief cross-flow pulse without bulk remixing.","test":"Map contacts and subsequent flow.","contrary":"Improvement requires macroscopic mixing.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0293","hypothesis":"A flexible particle bed could suppress channeling after a brief cross-flow pulse without bulk remixing.","test":"Map contacts and subsequent flow.","contrary_result":"Improvement requires macroscopic mixing.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0294","id":"S8-0294","volume":"900v8","title":"A self-contacting metal loop could detect solvent vapor through a reversible jump in electrical contact area.","prediction":"A self-contacting metal loop could detect solvent vapor through a reversible jump in electrical contact area.","test":"Measure area and uptake.","contrary":"Conductance changes are smooth.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0294","hypothesis":"A self-contacting metal loop could detect solvent vapor through a reversible jump in electrical contact area.","test":"Measure area and uptake.","contrary_result":"Conductance changes are smooth.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0295","id":"S8-0295","volume":"900v8","title":"A liquid bridge could reject one impact direction through transient neck translation.","prediction":"A liquid bridge could reject one impact direction through transient neck translation.","test":"Measure neck and rupture.","contrary":"Stability depends only on impulse magnitude.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0295","hypothesis":"A liquid bridge could reject one impact direction through transient neck translation.","test":"Measure neck and rupture.","contrary_result":"Stability depends only on impulse magnitude.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0296","id":"S8-0296","volume":"900v8","title":"A granular contact could show lower restart noise after a two-stage unloading history than direct unloading.","prediction":"A granular contact could show lower restart noise after a two-stage unloading history than direct unloading.","test":"Match final force.","contrary":"Noise follows final packing density only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0296","hypothesis":"A granular contact could show lower restart noise after a two-stage unloading history than direct unloading.","test":"Match final force.","contrary_result":"Noise follows final packing density only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0297","id":"S8-0297","volume":"900v8","title":"A thermally expanding pore could reject a gas bubble while passing liquid through the same opening.","prediction":"A thermally expanding pore could reject a gas bubble while passing liquid through the same opening.","test":"Image phase passage.","contrary":"Both phases respond identically.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0297","hypothesis":"A thermally expanding pore could reject a gas bubble while passing liquid through the same opening.","test":"Image phase passage.","contrary_result":"Both phases respond identically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0298","id":"S8-0298","volume":"900v8","title":"A suspended porous disk could infer the direction of internal drainage from its torsional-noise asymmetry.","prediction":"A suspended porous disk could infer the direction of internal drainage from its torsional-noise asymmetry.","test":"Map drainage and noise.","contrary":"Asymmetry follows external airflow only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0298","hypothesis":"A suspended porous disk could infer the direction of internal drainage from its torsional-noise asymmetry.","test":"Map drainage and noise.","contrary_result":"Asymmetry follows external airflow only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0299","id":"S8-0299","volume":"900v8","title":"A compliant thermal seam could remain closed during rapid cooling but open during slow cooling at equal endpoints.","prediction":"A compliant thermal seam could remain closed during rapid cooling but open during slow cooling at equal endpoints.","test":"Measure seam and temperatures.","contrary":"Endpoint temperature uniquely determines closure.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0299","hypothesis":"A compliant thermal seam could remain closed during rapid cooling but open during slow cooling at equal endpoints.","test":"Measure seam and temperatures.","contrary_result":"Endpoint temperature uniquely determines closure.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0300","id":"S8-0300","volume":"900v8","title":"A liquid-coated elastic arch could suppress fatigue damage by moving its contact line before each load maximum.","prediction":"A liquid-coated elastic arch could suppress fatigue damage by moving its contact line before each load maximum.","test":"Measure contact motion and damage.","contrary":"Damage reduction requires lower peak stress only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0300","hypothesis":"A liquid-coated elastic arch could suppress fatigue damage by moving its contact line before each load maximum.","test":"Measure contact motion and damage.","contrary_result":"Damage reduction requires lower peak stress only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0301","id":"S8-0301","volume":"900v8","title":"A shallow soil cavity could collect condensation before the surface dew point is reached through local radiative geometry.","prediction":"A shallow soil cavity could collect condensation before the surface dew point is reached through local radiative geometry.","test":"Measure local temperature and droplets.","contrary":"Condensation requires the bulk dew point.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0301","hypothesis":"A shallow soil cavity could collect condensation before the surface dew point is reached through local radiative geometry.","test":"Measure local temperature and droplets.","contrary_result":"Condensation requires the bulk dew point.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0302","id":"S8-0302","volume":"900v8","title":"A granular ridge could deflect a vapor front more than its liquid infiltration front.","prediction":"A granular ridge could deflect a vapor front more than its liquid infiltration front.","test":"Map both fronts.","contrary":"Both follow identical paths.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0302","hypothesis":"A granular ridge could deflect a vapor front more than its liquid infiltration front.","test":"Map both fronts.","contrary_result":"Both follow identical paths.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0303","id":"S8-0303","volume":"900v8","title":"A drying clay lens could generate a temporary upward heat flux under downward mean temperature gradient.","prediction":"A drying clay lens could generate a temporary upward heat flux under downward mean temperature gradient.","test":"Measure heat and moisture.","contrary":"Flux follows the mean gradient always.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0303","hypothesis":"A drying clay lens could generate a temporary upward heat flux under downward mean temperature gradient.","test":"Measure heat and moisture.","contrary_result":"Flux follows the mean gradient always.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0304","id":"S8-0304","volume":"900v8","title":"A porous rock fragment could retain a flood's duration in its later gas-release statistics.","prediction":"A porous rock fragment could retain a flood's duration in its later gas-release statistics.","test":"Match water inventory.","contrary":"Statistics depend only on retained water.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0304","hypothesis":"A porous rock fragment could retain a flood's duration in its later gas-release statistics.","test":"Match water inventory.","contrary_result":"Statistics depend only on retained water.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0305","id":"S8-0305","volume":"900v8","title":"A frost layer could strengthen a sediment arch before any ice bridge spans neighboring grains.","prediction":"A frost layer could strengthen a sediment arch before any ice bridge spans neighboring grains.","test":"Image bridges and failure load.","contrary":"Strength rises only after bridging.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0305","hypothesis":"A frost layer could strengthen a sediment arch before any ice bridge spans neighboring grains.","test":"Image bridges and failure load.","contrary_result":"Strength rises only after bridging.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0306","id":"S8-0306","volume":"900v8","title":"A salt crust could transport heat laterally through a moving thin brine film before visible wetting.","prediction":"A salt crust could transport heat laterally through a moving thin brine film before visible wetting.","test":"Map heat and liquid.","contrary":"Thermal change follows visible wetting.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0306","hypothesis":"A salt crust could transport heat laterally through a moving thin brine film before visible wetting.","test":"Map heat and liquid.","contrary_result":"Thermal change follows visible wetting.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0307","id":"S8-0307","volume":"900v8","title":"A tilted layered soil could develop alternating drainage outlets under constant inflow through pressure redistribution.","prediction":"A tilted layered soil could develop alternating drainage outlets under constant inflow through pressure redistribution.","test":"Measure outlets and internal pressure.","contrary":"One outlet remains dominant.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0307","hypothesis":"A tilted layered soil could develop alternating drainage outlets under constant inflow through pressure redistribution.","test":"Measure outlets and internal pressure.","contrary_result":"One outlet remains dominant.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0308","id":"S8-0308","volume":"900v8","title":"A granular slope could show increased acoustic coherence immediately before a local rearrangement.","prediction":"A granular slope could show increased acoustic coherence immediately before a local rearrangement.","test":"Record sound and displacement.","contrary":"Coherence changes only afterward.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0308","hypothesis":"A granular slope could show increased acoustic coherence immediately before a local rearrangement.","test":"Record sound and displacement.","contrary_result":"Coherence changes only afterward.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0309","id":"S8-0309","volume":"900v8","title":"A mineral dust layer could reduce frost nucleation variance without changing its mean onset temperature.","prediction":"A mineral dust layer could reduce frost nucleation variance without changing its mean onset temperature.","test":"Measure onset distributions.","contrary":"Variance follows the mean only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0309","hypothesis":"A mineral dust layer could reduce frost nucleation variance without changing its mean onset temperature.","test":"Measure onset distributions.","contrary_result":"Variance follows the mean only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0310","id":"S8-0310","volume":"900v8","title":"A sediment interface could trap a harmless dissolved tracer through repeated local flow reversal despite zero mean adsorption.","prediction":"A sediment interface could trap a harmless dissolved tracer through repeated local flow reversal despite zero mean adsorption.","test":"Measure tracer and flow.","contrary":"Retention requires chemical adsorption.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0310","hypothesis":"A sediment interface could trap a harmless dissolved tracer through repeated local flow reversal despite zero mean adsorption.","test":"Measure tracer and flow.","contrary_result":"Retention requires chemical adsorption.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0311","id":"S8-0311","volume":"900v8","title":"A porous ice chunk could rotate while submerged through asymmetric internal meltwater release.","prediction":"A porous ice chunk could rotate while submerged through asymmetric internal meltwater release.","test":"Measure rotation and internal water.","contrary":"Motion follows external currents only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0311","hypothesis":"A porous ice chunk could rotate while submerged through asymmetric internal meltwater release.","test":"Measure rotation and internal water.","contrary_result":"Motion follows external currents only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0312","id":"S8-0312","volume":"900v8","title":"A drying sand cap could compress underlying wet pores before its visible shrinkage begins.","prediction":"A drying sand cap could compress underlying wet pores before its visible shrinkage begins.","test":"Measure pressure and surface strain.","contrary":"Pressure changes follow shrinkage.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0312","hypothesis":"A drying sand cap could compress underlying wet pores before its visible shrinkage begins.","test":"Measure pressure and surface strain.","contrary_result":"Pressure changes follow shrinkage.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0313","id":"S8-0313","volume":"900v8","title":"A sediment grain's abrasion history could predict its later wetting-front pinning beyond surface roughness alone.","prediction":"A sediment grain's abrasion history could predict its later wetting-front pinning beyond surface roughness alone.","test":"Measure chemistry and pinning.","contrary":"Roughness fully predicts behavior.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0313","hypothesis":"A sediment grain's abrasion history could predict its later wetting-front pinning beyond surface roughness alone.","test":"Measure chemistry and pinning.","contrary_result":"Roughness fully predicts behavior.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0314","id":"S8-0314","volume":"900v8","title":"A thawing soil analogue could emit a thermal pulse as disconnected liquid pockets first connect.","prediction":"A thawing soil analogue could emit a thermal pulse as disconnected liquid pockets first connect.","test":"Measure connectivity and temperature.","contrary":"Temperature follows external heating smoothly.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0314","hypothesis":"A thawing soil analogue could emit a thermal pulse as disconnected liquid pockets first connect.","test":"Measure connectivity and temperature.","contrary_result":"Temperature follows external heating smoothly.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0315","id":"S8-0315","volume":"900v8","title":"A rock fracture could favor a different liquid pathway after a weak acoustic pulse without permanent aperture change.","prediction":"A rock fracture could favor a different liquid pathway after a weak acoustic pulse without permanent aperture change.","test":"Map aperture and flow.","contrary":"Routing requires geometric change.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0315","hypothesis":"A rock fracture could favor a different liquid pathway after a weak acoustic pulse without permanent aperture change.","test":"Map aperture and flow.","contrary_result":"Routing requires geometric change.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0316","id":"S8-0316","volume":"900v8","title":"A fine sediment layer could shield a coarse bed from humidity-driven acoustic changes while allowing vapor exchange.","prediction":"A fine sediment layer could shield a coarse bed from humidity-driven acoustic changes while allowing vapor exchange.","test":"Measure sound and vapor flux.","contrary":"Shielding requires vapor blockage.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0316","hypothesis":"A fine sediment layer could shield a coarse bed from humidity-driven acoustic changes while allowing vapor exchange.","test":"Measure sound and vapor flux.","contrary_result":"Shielding requires vapor blockage.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0317","id":"S8-0317","volume":"900v8","title":"A porous stone could show temporary mass gain during drying through internal salt hydration.","prediction":"A porous stone could show temporary mass gain during drying through internal salt hydration.","test":"Measure water states and mass.","contrary":"Mass decreases monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0317","hypothesis":"A porous stone could show temporary mass gain during drying through internal salt hydration.","test":"Measure water states and mass.","contrary_result":"Mass decreases monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0318","id":"S8-0318","volume":"900v8","title":"A shallow wet sand bed could develop a cool subsurface ring around a warm surface spot.","prediction":"A shallow wet sand bed could develop a cool subsurface ring around a warm surface spot.","test":"Map temperatures and liquid flow.","contrary":"Cooling follows simple conduction only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0318","hypothesis":"A shallow wet sand bed could develop a cool subsurface ring around a warm surface spot.","test":"Map temperatures and liquid flow.","contrary_result":"Cooling follows simple conduction only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0319","id":"S8-0319","volume":"900v8","title":"A frozen mineral surface could retain a previous wind direction in its first thawing drainage paths.","prediction":"A frozen mineral surface could retain a previous wind direction in its first thawing drainage paths.","test":"Reverse conditioning wind.","contrary":"Paths depend only on topography.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0319","hypothesis":"A frozen mineral surface could retain a previous wind direction in its first thawing drainage paths.","test":"Reverse conditioning wind.","contrary_result":"Paths depend only on topography.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0320","id":"S8-0320","volume":"900v8","title":"A granular mixture could reverse segregation direction during drainage without changing grain-size distribution.","prediction":"A granular mixture could reverse segregation direction during drainage without changing grain-size distribution.","test":"Track fractions and saturation.","contrary":"Segregation retains one direction.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0320","hypothesis":"A granular mixture could reverse segregation direction during drainage without changing grain-size distribution.","test":"Track fractions and saturation.","contrary_result":"Segregation retains one direction.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0321","id":"S8-0321","volume":"900v8","title":"A sediment crust could fracture less after a rapid humidity rise than a slow rise at equal endpoints.","prediction":"A sediment crust could fracture less after a rapid humidity rise than a slow rise at equal endpoints.","test":"Measure strain and crack formation.","contrary":"Cracking depends only on endpoint moisture.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0321","hypothesis":"A sediment crust could fracture less after a rapid humidity rise than a slow rise at equal endpoints.","test":"Measure strain and crack formation.","contrary_result":"Cracking depends only on endpoint moisture.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0321","hypothesis":"A sediment crust could fracture less after a rapid humidity rise than a slow rise at equal endpoints.","test":"Measure strain and crack formation.","contrary_result":"Cracking depends only on endpoint moisture.","status":"Untested; novelty unverified","selection_rationale":"Humidity ramps can be matched on endpoint and exposure.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0322","id":"S8-0322","volume":"900v8","title":"A capillary barrier could release retained water in a narrower pulse after a small pressure interruption.","prediction":"A capillary barrier could release retained water in a narrower pulse after a small pressure interruption.","test":"Measure release widths.","contrary":"Interruptions always broaden release.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0322","hypothesis":"A capillary barrier could release retained water in a narrower pulse after a small pressure interruption.","test":"Measure release widths.","contrary_result":"Interruptions always broaden release.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0323","id":"S8-0323","volume":"900v8","title":"A porous rock could reveal connected gas pathways through a minimum in thermal-noise correlation length.","prediction":"A porous rock could reveal connected gas pathways through a minimum in thermal-noise correlation length.","test":"Map gas and thermal signals.","contrary":"Correlation follows gas fraction alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0323","hypothesis":"A porous rock could reveal connected gas pathways through a minimum in thermal-noise correlation length.","test":"Map gas and thermal signals.","contrary_result":"Correlation follows gas fraction alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0324","id":"S8-0324","volume":"900v8","title":"A sand ripple could alter its migration direction after a weak transverse vibration at unchanged water flow.","prediction":"A sand ripple could alter its migration direction after a weak transverse vibration at unchanged water flow.","test":"Measure bed motion.","contrary":"Direction follows water flow only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0324","hypothesis":"A sand ripple could alter its migration direction after a weak transverse vibration at unchanged water flow.","test":"Measure bed motion.","contrary_result":"Direction follows water flow only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0325","id":"S8-0325","volume":"900v8","title":"A mineral seam could focus frost growth by elastic stress despite matched local temperature and chemistry.","prediction":"A mineral seam could focus frost growth by elastic stress despite matched local temperature and chemistry.","test":"Measure strain and deposition.","contrary":"Frost follows temperature only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0325","hypothesis":"A mineral seam could focus frost growth by elastic stress despite matched local temperature and chemistry.","test":"Measure strain and deposition.","contrary_result":"Frost follows temperature only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0326","id":"S8-0326","volume":"900v8","title":"A shrinking mud plate could show a reversible negative acoustic nonlinearity before cracking.","prediction":"A shrinking mud plate could show a reversible negative acoustic nonlinearity before cracking.","test":"Measure harmonics and strain.","contrary":"Nonlinearity remains positive.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0326","hypothesis":"A shrinking mud plate could show a reversible negative acoustic nonlinearity before cracking.","test":"Measure harmonics and strain.","contrary_result":"Nonlinearity remains positive.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0327","id":"S8-0327","volume":"900v8","title":"A salt-coated soil aggregate could weaken more under alternating dry gases than humid gas at equal water removal.","prediction":"A salt-coated soil aggregate could weaken more under alternating dry gases than humid gas at equal water removal.","test":"Measure water and strength.","contrary":"Strength follows water loss only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0327","hypothesis":"A salt-coated soil aggregate could weaken more under alternating dry gases than humid gas at equal water removal.","test":"Measure water and strength.","contrary_result":"Strength follows water loss only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0328","id":"S8-0328","volume":"900v8","title":"A submerged porous grain could expel gas preferentially from its lower face during gentle warming.","prediction":"A submerged porous grain could expel gas preferentially from its lower face during gentle warming.","test":"Image gas escape.","contrary":"Buoyancy selects the upper face always.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0328","hypothesis":"A submerged porous grain could expel gas preferentially from its lower face during gentle warming.","test":"Image gas escape.","contrary_result":"Buoyancy selects the upper face always.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0329","id":"S8-0329","volume":"900v8","title":"A sediment column could transmit a pressure pulse faster after partial drainage despite lower saturation.","prediction":"A sediment column could transmit a pressure pulse faster after partial drainage despite lower saturation.","test":"Measure connectivity and transit.","contrary":"Transit speed decreases monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0329","hypothesis":"A sediment column could transmit a pressure pulse faster after partial drainage despite lower saturation.","test":"Measure connectivity and transit.","contrary_result":"Transit speed decreases monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0330","id":"S8-0330","volume":"900v8","title":"A mineral-rich interface could show an electrical precursor to local freezing before temperature reaches its equilibrium freezing point.","prediction":"A mineral-rich interface could show an electrical precursor to local freezing before temperature reaches its equilibrium freezing point.","test":"Measure potential and temperature.","contrary":"Signals follow ice formation only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0330","hypothesis":"A mineral-rich interface could show an electrical precursor to local freezing before temperature reaches its equilibrium freezing point.","test":"Measure potential and temperature.","contrary_result":"Signals follow ice formation only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0331","id":"S8-0331","volume":"900v8","title":"A dry granular layer could retain a rotating load's chirality in its later erosion pattern.","prediction":"A dry granular layer could retain a rotating load's chirality in its later erosion pattern.","test":"Reverse preparation rotation.","contrary":"Erosion records only compaction magnitude.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0331","hypothesis":"A dry granular layer could retain a rotating load's chirality in its later erosion pattern.","test":"Reverse preparation rotation.","contrary_result":"Erosion records only compaction magnitude.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0332","id":"S8-0332","volume":"900v8","title":"A porous snow analogue could show a maximum vapor diffusivity before mechanical percolation is lost.","prediction":"A porous snow analogue could show a maximum vapor diffusivity before mechanical percolation is lost.","test":"Measure structure and diffusion.","contrary":"Diffusivity changes monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0332","hypothesis":"A porous snow analogue could show a maximum vapor diffusivity before mechanical percolation is lost.","test":"Measure structure and diffusion.","contrary_result":"Diffusivity changes monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0333","id":"S8-0333","volume":"900v8","title":"A thin clay crust could redirect infiltration around a warm patch through local stress closure.","prediction":"A thin clay crust could redirect infiltration around a warm patch through local stress closure.","test":"Map strain and water.","contrary":"Viscosity alone explains diversion.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0333","hypothesis":"A thin clay crust could redirect infiltration around a warm patch through local stress closure.","test":"Map strain and water.","contrary_result":"Viscosity alone explains diversion.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0334","id":"S8-0334","volume":"900v8","title":"A saturated rock-like sample could separate gas dissolution from fracture closure through opposite ultrasonic coda changes.","prediction":"A saturated rock-like sample could separate gas dissolution from fracture closure through opposite ultrasonic coda changes.","test":"Induce mechanisms separately.","contrary":"Coda signatures coincide.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0334","hypothesis":"A saturated rock-like sample could separate gas dissolution from fracture closure through opposite ultrasonic coda changes.","test":"Induce mechanisms separately.","contrary_result":"Coda signatures coincide.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0335","id":"S8-0335","volume":"900v8","title":"A sandy surface could form stable dew reservoirs below grain overhangs despite warmer local temperature.","prediction":"A sandy surface could form stable dew reservoirs below grain overhangs despite warmer local temperature.","test":"Measure geometry and temperature.","contrary":"Reservoirs follow minimum temperature only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0335","hypothesis":"A sandy surface could form stable dew reservoirs below grain overhangs despite warmer local temperature.","test":"Measure geometry and temperature.","contrary_result":"Reservoirs follow minimum temperature only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0336","id":"S8-0336","volume":"900v8","title":"A buried fine-particle layer could sharpen an evaporative cooling pulse at the surface.","prediction":"A buried fine-particle layer could sharpen an evaporative cooling pulse at the surface.","test":"Measure depth-resolved temperature.","contrary":"All layering broadens the pulse.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0336","hypothesis":"A buried fine-particle layer could sharpen an evaporative cooling pulse at the surface.","test":"Measure depth-resolved temperature.","contrary_result":"All layering broadens the pulse.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0337","id":"S8-0337","volume":"900v8","title":"A mineral pore could retain different gas compositions after two equal-pressure exchange sequences.","prediction":"A mineral pore could retain different gas compositions after two equal-pressure exchange sequences.","test":"Swap exchange order.","contrary":"Composition depends only on final boundary gas.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0337","hypothesis":"A mineral pore could retain different gas compositions after two equal-pressure exchange sequences.","test":"Swap exchange order.","contrary_result":"Composition depends only on final boundary gas.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0338","id":"S8-0338","volume":"900v8","title":"A granular bank could strengthen during slow erosion through contact alignment before coarsening is measurable.","prediction":"A granular bank could strengthen during slow erosion through contact alignment before coarsening is measurable.","test":"Measure contacts and strength.","contrary":"Strength change requires coarsening.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0338","hypothesis":"A granular bank could strengthen during slow erosion through contact alignment before coarsening is measurable.","test":"Measure contacts and strength.","contrary_result":"Strength change requires coarsening.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0339","id":"S8-0339","volume":"900v8","title":"A frozen sediment seam could route a crack perpendicular to its weakest mechanical axis through brine pressure.","prediction":"A frozen sediment seam could route a crack perpendicular to its weakest mechanical axis through brine pressure.","test":"Map pressure and crack.","contrary":"Weakest axis always controls.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0339","hypothesis":"A frozen sediment seam could route a crack perpendicular to its weakest mechanical axis through brine pressure.","test":"Map pressure and crack.","contrary_result":"Weakest axis always controls.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0340","id":"S8-0340","volume":"900v8","title":"A salt film could reveal past dissolution direction through anisotropic optical scattering after complete drying.","prediction":"A salt film could reveal past dissolution direction through anisotropic optical scattering after complete drying.","test":"Reverse flow histories.","contrary":"Scattering depends only on final salt mass.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0340","hypothesis":"A salt film could reveal past dissolution direction through anisotropic optical scattering after complete drying.","test":"Reverse flow histories.","contrary_result":"Scattering depends only on final salt mass.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0341","id":"S8-0341","volume":"900v8","title":"A porous dust aggregate could cool faster after losing its outermost fine particles despite reduced surface area.","prediction":"A porous dust aggregate could cool faster after losing its outermost fine particles despite reduced surface area.","test":"Measure area and thermal relaxation.","contrary":"Cooling follows surface area monotonically.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0341","hypothesis":"A porous dust aggregate could cool faster after losing its outermost fine particles despite reduced surface area.","test":"Measure area and thermal relaxation.","contrary_result":"Cooling follows surface area monotonically.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0341","hypothesis":"A porous dust aggregate could cool faster after losing its outermost fine particles despite reduced surface area.","test":"Measure area and thermal relaxation.","contrary_result":"Cooling follows surface area monotonically.","status":"Untested; novelty unverified","selection_rationale":"Surface-area measurement challenges counterintuitive cooling acceleration.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0342","id":"S8-0342","volume":"900v8","title":"A weakly consolidated rock could show a stress interval where permeability rises while pore volume falls.","prediction":"A weakly consolidated rock could show a stress interval where permeability rises while pore volume falls.","test":"Measure both under load.","contrary":"Permeability follows pore volume only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0342","hypothesis":"A weakly consolidated rock could show a stress interval where permeability rises while pore volume falls.","test":"Measure both under load.","contrary_result":"Permeability follows pore volume only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0343","id":"S8-0343","volume":"900v8","title":"A shallow erosion channel could retain a flow pulse's rise time in its later bank-collapse timing.","prediction":"A shallow erosion channel could retain a flow pulse's rise time in its later bank-collapse timing.","test":"Match peak and volume.","contrary":"Collapse depends only on peak shear.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0343","hypothesis":"A shallow erosion channel could retain a flow pulse's rise time in its later bank-collapse timing.","test":"Match peak and volume.","contrary_result":"Collapse depends only on peak shear.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0344","id":"S8-0344","volume":"900v8","title":"A partially frozen mineral paste could show stronger acoustic anisotropy after thermal equilibration than during cooling.","prediction":"A partially frozen mineral paste could show stronger acoustic anisotropy after thermal equilibration than during cooling.","test":"Measure tensor and temperature.","contrary":"Anisotropy decays monotonically.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0344","hypothesis":"A partially frozen mineral paste could show stronger acoustic anisotropy after thermal equilibration than during cooling.","test":"Measure tensor and temperature.","contrary_result":"Anisotropy decays monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0345","id":"S8-0345","volume":"900v8","title":"A clay-rich aggregate could release solute before bulk water during gentle mechanical unloading.","prediction":"A clay-rich aggregate could release solute before bulk water during gentle mechanical unloading.","test":"Measure effluent composition.","contrary":"Release stays proportional to water.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0345","hypothesis":"A clay-rich aggregate could release solute before bulk water during gentle mechanical unloading.","test":"Measure effluent composition.","contrary_result":"Release stays proportional to water.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0346","id":"S8-0346","volume":"900v8","title":"A granular bed could produce an upward tracer pulse after a downward pressure step through local recirculation.","prediction":"A granular bed could produce an upward tracer pulse after a downward pressure step through local recirculation.","test":"Map flow and tracer.","contrary":"Tracer moves downward everywhere.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0346","hypothesis":"A granular bed could produce an upward tracer pulse after a downward pressure step through local recirculation.","test":"Map flow and tracer.","contrary_result":"Tracer moves downward everywhere.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0347","id":"S8-0347","volume":"900v8","title":"A thin mineral coating could reduce thermal-fatigue cracks through reversible adsorption stress under constant humidity.","prediction":"A thin mineral coating could reduce thermal-fatigue cracks through reversible adsorption stress under constant humidity.","test":"Measure adsorption and strain.","contrary":"Protection requires changing humidity.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0347","hypothesis":"A thin mineral coating could reduce thermal-fatigue cracks through reversible adsorption stress under constant humidity.","test":"Measure adsorption and strain.","contrary_result":"Protection requires changing humidity.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0348","id":"S8-0348","volume":"900v8","title":"A drying porous stone could develop an internal liquid lens at a thermal-conductivity boundary without a pore-size boundary.","prediction":"A drying porous stone could develop an internal liquid lens at a thermal-conductivity boundary without a pore-size boundary.","test":"Image interfaces and liquid.","contrary":"Lens requires pore-size contrast.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0348","hypothesis":"A drying porous stone could develop an internal liquid lens at a thermal-conductivity boundary without a pore-size boundary.","test":"Image interfaces and liquid.","contrary_result":"Lens requires pore-size contrast.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0349","id":"S8-0349","volume":"900v8","title":"A sediment surface could distinguish fog from drizzle through different post-drying acoustic loss despite equal water dose.","prediction":"A sediment surface could distinguish fog from drizzle through different post-drying acoustic loss despite equal water dose.","test":"Measure structure and sound.","contrary":"Dose alone predicts loss.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0349","hypothesis":"A sediment surface could distinguish fog from drizzle through different post-drying acoustic loss despite equal water dose.","test":"Measure structure and sound.","contrary_result":"Dose alone predicts loss.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0350","id":"S8-0350","volume":"900v8","title":"A frost-covered slope could fail at a warmer region before a steeper colder region through asymmetric ice-bond relaxation.","prediction":"A frost-covered slope could fail at a warmer region before a steeper colder region through asymmetric ice-bond relaxation.","test":"Map bond temperature and failure.","contrary":"Slope angle predicts failure completely.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0350","hypothesis":"A frost-covered slope could fail at a warmer region before a steeper colder region through asymmetric ice-bond relaxation.","test":"Map bond temperature and failure.","contrary_result":"Slope angle predicts failure completely.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0351","id":"S8-0351","volume":"900v8","title":"A waterlogged porous grain could retain positive buoyancy longer under a weak temperature oscillation than constant mean temperature.","prediction":"A waterlogged porous grain could retain positive buoyancy longer under a weak temperature oscillation than constant mean temperature.","test":"Measure gas and flotation.","contrary":"Only mean temperature matters.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0351","hypothesis":"A waterlogged porous grain could retain positive buoyancy longer under a weak temperature oscillation than constant mean temperature.","test":"Measure gas and flotation.","contrary_result":"Only mean temperature matters.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0352","id":"S8-0352","volume":"900v8","title":"A buried mineral inclusion could generate a lateral concentration dipole during otherwise vertical infiltration.","prediction":"A buried mineral inclusion could generate a lateral concentration dipole during otherwise vertical infiltration.","test":"Map concentration and flow.","contrary":"The perturbation remains vertically symmetric.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0352","hypothesis":"A buried mineral inclusion could generate a lateral concentration dipole during otherwise vertical infiltration.","test":"Map concentration and flow.","contrary_result":"The perturbation remains vertically symmetric.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0353","id":"S8-0353","volume":"900v8","title":"A salt crust could have a finite strain interval where electrical noise falls before fracture noise rises.","prediction":"A salt crust could have a finite strain interval where electrical noise falls before fracture noise rises.","test":"Measure both channels.","contrary":"Noise changes coincide.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0353","hypothesis":"A salt crust could have a finite strain interval where electrical noise falls before fracture noise rises.","test":"Measure both channels.","contrary_result":"Noise changes coincide.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0354","id":"S8-0354","volume":"900v8","title":"A granular column could recover contact stiffness faster after a pressure pause than after continuous unloading.","prediction":"A granular column could recover contact stiffness faster after a pressure pause than after continuous unloading.","test":"Measure contacts and waves.","contrary":"Only final load matters.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0354","hypothesis":"A granular column could recover contact stiffness faster after a pressure pause than after continuous unloading.","test":"Measure contacts and waves.","contrary_result":"Only final load matters.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0355","id":"S8-0355","volume":"900v8","title":"A frozen soil analogue could delay gas escape through a moving zone of refreezing behind the melt front.","prediction":"A frozen soil analogue could delay gas escape through a moving zone of refreezing behind the melt front.","test":"Image gas and ice.","contrary":"Gas follows open pore connectivity only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0355","hypothesis":"A frozen soil analogue could delay gas escape through a moving zone of refreezing behind the melt front.","test":"Image gas and ice.","contrary_result":"Gas follows open pore connectivity only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0356","id":"S8-0356","volume":"900v8","title":"A porous mineral surface could become less reflective during initial salt removal even as roughness decreases.","prediction":"A porous mineral surface could become less reflective during initial salt removal even as roughness decreases.","test":"Measure spectra and roughness.","contrary":"Reflectance follows roughness monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0356","hypothesis":"A porous mineral surface could become less reflective during initial salt removal even as roughness decreases.","test":"Measure spectra and roughness.","contrary_result":"Reflectance follows roughness monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0357","id":"S8-0357","volume":"900v8","title":"A sediment layer could exhibit maximum resistance to bubble penetration at intermediate pre-shear.","prediction":"A sediment layer could exhibit maximum resistance to bubble penetration at intermediate pre-shear.","test":"Measure gas thresholds.","contrary":"Resistance follows final density alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0357","hypothesis":"A sediment layer could exhibit maximum resistance to bubble penetration at intermediate pre-shear.","test":"Measure gas thresholds.","contrary_result":"Resistance follows final density alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0358","id":"S8-0358","volume":"900v8","title":"A clay seam could delay a thermal pulse more during adsorption than desorption at equal water content.","prediction":"A clay seam could delay a thermal pulse more during adsorption than desorption at equal water content.","test":"Measure water and thermal transfer.","contrary":"Transfer depends only on water content.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0358","hypothesis":"A clay seam could delay a thermal pulse more during adsorption than desorption at equal water content.","test":"Measure water and thermal transfer.","contrary_result":"Transfer depends only on water content.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0359","id":"S8-0359","volume":"900v8","title":"A granular surface could preserve the ordering of two weak impacts in its later capillary-rise map.","prediction":"A granular surface could preserve the ordering of two weak impacts in its later capillary-rise map.","test":"Swap impact order.","contrary":"Map records only total energy.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0359","hypothesis":"A granular surface could preserve the ordering of two weak impacts in its later capillary-rise map.","test":"Swap impact order.","contrary_result":"Map records only total energy.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0360","id":"S8-0360","volume":"900v8","title":"A porous rock could reveal internal ice lenses through polarization-dependent vibration decay before bulk expansion.","prediction":"A porous rock could reveal internal ice lenses through polarization-dependent vibration decay before bulk expansion.","test":"Measure modes and expansion.","contrary":"Expansion detects lenses first.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0360","hypothesis":"A porous rock could reveal internal ice lenses through polarization-dependent vibration decay before bulk expansion.","test":"Measure modes and expansion.","contrary_result":"Expansion detects lenses first.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0361","id":"S8-0361","volume":"900v8","title":"A sand bed could develop a temporary low-permeability skin after a flow decrease through fine-particle settling.","prediction":"A sand bed could develop a temporary low-permeability skin after a flow decrease through fine-particle settling.","test":"Image particles and measure flux.","contrary":"Skin requires increased flow.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0361","hypothesis":"A sand bed could develop a temporary low-permeability skin after a flow decrease through fine-particle settling.","test":"Image particles and measure flux.","contrary_result":"Skin requires increased flow.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0361","hypothesis":"A sand bed could develop a temporary low-permeability skin after a flow decrease through fine-particle settling.","test":"Image particles and measure flux.","contrary_result":"Skin requires increased flow.","status":"Untested; novelty unverified","selection_rationale":"Particle imaging can verify the proposed low-flow skin.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0362","id":"S8-0362","volume":"900v8","title":"A partially wet mineral powder could lower acoustic attenuation under weak compression before contacts multiply.","prediction":"A partially wet mineral powder could lower acoustic attenuation under weak compression before contacts multiply.","test":"Map contacts and damping.","contrary":"Attenuation follows contact number only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0362","hypothesis":"A partially wet mineral powder could lower acoustic attenuation under weak compression before contacts multiply.","test":"Map contacts and damping.","contrary_result":"Attenuation follows contact number only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0363","id":"S8-0363","volume":"900v8","title":"A sloped sediment layer could drain uphill locally after warming through differential capillary expansion.","prediction":"A sloped sediment layer could drain uphill locally after warming through differential capillary expansion.","test":"Map temperature and flow.","contrary":"All drainage follows gravity.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0363","hypothesis":"A sloped sediment layer could drain uphill locally after warming through differential capillary expansion.","test":"Map temperature and flow.","contrary_result":"All drainage follows gravity.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0364","id":"S8-0364","volume":"900v8","title":"A salt-rich rock could emit synchronized acoustic bursts as hydration fronts cross grain junctions.","prediction":"A salt-rich rock could emit synchronized acoustic bursts as hydration fronts cross grain junctions.","test":"Image fronts and sound.","contrary":"Bursts track cracks only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0364","hypothesis":"A salt-rich rock could emit synchronized acoustic bursts as hydration fronts cross grain junctions.","test":"Image fronts and sound.","contrary_result":"Bursts track cracks only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0365","id":"S8-0365","volume":"900v8","title":"A layered porous slab could distinguish top-down and bottom-up wetting from late-time thermal tails at equal saturation.","prediction":"A layered porous slab could distinguish top-down and bottom-up wetting from late-time thermal tails at equal saturation.","test":"Compare prepared states.","contrary":"Tails depend only on mean saturation.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0365","hypothesis":"A layered porous slab could distinguish top-down and bottom-up wetting from late-time thermal tails at equal saturation.","test":"Compare prepared states.","contrary_result":"Tails depend only on mean saturation.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0366","id":"S8-0366","volume":"900v8","title":"A clay particle raft could recover shape faster after partial drying than complete wetting.","prediction":"A clay particle raft could recover shape faster after partial drying than complete wetting.","test":"Measure shape recovery.","contrary":"Recovery follows final water content only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0366","hypothesis":"A clay particle raft could recover shape faster after partial drying than complete wetting.","test":"Measure shape recovery.","contrary_result":"Recovery follows final water content only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0367","id":"S8-0367","volume":"900v8","title":"A mineral-lined cavity could trap a gas-composition gradient after total pressure equilibrates.","prediction":"A mineral-lined cavity could trap a gas-composition gradient after total pressure equilibrates.","test":"Measure composition spatially.","contrary":"Composition equilibrates with pressure.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0367","hypothesis":"A mineral-lined cavity could trap a gas-composition gradient after total pressure equilibrates.","test":"Measure composition spatially.","contrary_result":"Composition equilibrates with pressure.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0368","id":"S8-0368","volume":"900v8","title":"A granular slope could show a temperature-noise minimum just before a humidity-triggered slip.","prediction":"A granular slope could show a temperature-noise minimum just before a humidity-triggered slip.","test":"Measure noise and displacement.","contrary":"Noise changes only after slip.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0368","hypothesis":"A granular slope could show a temperature-noise minimum just before a humidity-triggered slip.","test":"Measure noise and displacement.","contrary_result":"Noise changes only after slip.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0369","id":"S8-0369","volume":"900v8","title":"A porous stone could resist salt damage more after a small preexisting crack diverts crystallization pressure.","prediction":"A porous stone could resist salt damage more after a small preexisting crack diverts crystallization pressure.","test":"Map crystals and damage.","contrary":"Any crack worsens damage.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0369","hypothesis":"A porous stone could resist salt damage more after a small preexisting crack diverts crystallization pressure.","test":"Map crystals and damage.","contrary_result":"Any crack worsens damage.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0370","id":"S8-0370","volume":"900v8","title":"A sediment patch could channel dew toward its least compact region even when that region is warmer.","prediction":"A sediment patch could channel dew toward its least compact region even when that region is warmer.","test":"Measure compaction and droplets.","contrary":"Temperature determines collection alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0370","hypothesis":"A sediment patch could channel dew toward its least compact region even when that region is warmer.","test":"Measure compaction and droplets.","contrary_result":"Temperature determines collection alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0371","id":"S8-0371","volume":"900v8","title":"A frozen porous layer could exhibit a transient conductivity minimum during warming without melting.","prediction":"A frozen porous layer could exhibit a transient conductivity minimum during warming without melting.","test":"Measure structure and heat flux.","contrary":"Conductivity varies smoothly with temperature.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0371","hypothesis":"A frozen porous layer could exhibit a transient conductivity minimum during warming without melting.","test":"Measure structure and heat flux.","contrary_result":"Conductivity varies smoothly with temperature.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0372","id":"S8-0372","volume":"900v8","title":"A sand grain cluster could reverse its settling rotation after internal gas redistribution without changing external shape.","prediction":"A sand grain cluster could reverse its settling rotation after internal gas redistribution without changing external shape.","test":"Image gas and motion.","contrary":"Rotation follows exterior geometry only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0372","hypothesis":"A sand grain cluster could reverse its settling rotation after internal gas redistribution without changing external shape.","test":"Image gas and motion.","contrary_result":"Rotation follows exterior geometry only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0373","id":"S8-0373","volume":"900v8","title":"A thin mud film could reveal a buried elastic boundary through crack-spacing changes before cracks reach it.","prediction":"A thin mud film could reveal a buried elastic boundary through crack-spacing changes before cracks reach it.","test":"Measure strain and spacing.","contrary":"Changes occur only after contact.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0373","hypothesis":"A thin mud film could reveal a buried elastic boundary through crack-spacing changes before cracks reach it.","test":"Measure strain and spacing.","contrary_result":"Changes occur only after contact.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0374","id":"S8-0374","volume":"900v8","title":"A mineral surface could retain a short pressure pulse in its later adsorption-site distribution.","prediction":"A mineral surface could retain a short pressure pulse in its later adsorption-site distribution.","test":"Map uptake sites.","contrary":"Distribution depends only on current pressure.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0374","hypothesis":"A mineral surface could retain a short pressure pulse in its later adsorption-site distribution.","test":"Map uptake sites.","contrary_result":"Distribution depends only on current pressure.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0375","id":"S8-0375","volume":"900v8","title":"A porous sediment column could release heat in bursts during monotonic drainage through contact rearrangement.","prediction":"A porous sediment column could release heat in bursts during monotonic drainage through contact rearrangement.","test":"Measure heat and grain motion.","contrary":"Heat follows flow smoothly.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0375","hypothesis":"A porous sediment column could release heat in bursts during monotonic drainage through contact rearrangement.","test":"Measure heat and grain motion.","contrary_result":"Heat follows flow smoothly.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0376","id":"S8-0376","volume":"900v8","title":"A salt-coated granular arch could become temporarily more stable during the first moments of humidification.","prediction":"A salt-coated granular arch could become temporarily more stable during the first moments of humidification.","test":"Measure survival and water uptake.","contrary":"Humidity immediately weakens it.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0376","hypothesis":"A salt-coated granular arch could become temporarily more stable during the first moments of humidification.","test":"Measure survival and water uptake.","contrary_result":"Humidity immediately weakens it.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0377","id":"S8-0377","volume":"900v8","title":"A shallow sediment cavity could amplify a weak thermal oscillation through condensation heat released out of phase.","prediction":"A shallow sediment cavity could amplify a weak thermal oscillation through condensation heat released out of phase.","test":"Measure heat balance and phase.","contrary":"Condensation only attenuates oscillations.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0377","hypothesis":"A shallow sediment cavity could amplify a weak thermal oscillation through condensation heat released out of phase.","test":"Measure heat balance and phase.","contrary_result":"Condensation only attenuates oscillations.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0378","id":"S8-0378","volume":"900v8","title":"A frozen mineral bridge could transmit a torsional pulse better after a small axial unloading.","prediction":"A frozen mineral bridge could transmit a torsional pulse better after a small axial unloading.","test":"Measure geometry and waves.","contrary":"Unloading always reduces transmission.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0378","hypothesis":"A frozen mineral bridge could transmit a torsional pulse better after a small axial unloading.","test":"Measure geometry and waves.","contrary_result":"Unloading always reduces transmission.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0379","id":"S8-0379","volume":"900v8","title":"A porous rock could distinguish surface evaporation from internal boiling analogues through opposite spatial acoustic correlations.","prediction":"A porous rock could distinguish surface evaporation from internal boiling analogues through opposite spatial acoustic correlations.","test":"Induce safe separate regimes.","contrary":"Correlations are indistinguishable.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0379","hypothesis":"A porous rock could distinguish surface evaporation from internal boiling analogues through opposite spatial acoustic correlations.","test":"Induce safe separate regimes.","contrary_result":"Correlations are indistinguishable.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0380","id":"S8-0380","volume":"900v8","title":"A layered sand bed could retain rainfall intermittency in its later gas permeability at equal moisture.","prediction":"A layered sand bed could retain rainfall intermittency in its later gas permeability at equal moisture.","test":"Compare input schedules.","contrary":"Permeability depends only on moisture.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0380","hypothesis":"A layered sand bed could retain rainfall intermittency in its later gas permeability at equal moisture.","test":"Compare input schedules.","contrary_result":"Permeability depends only on moisture.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0381","id":"S8-0381","volume":"900v8","title":"A granular crust could show lower erosion after mild flexing through closure of weak pore throats.","prediction":"A granular crust could show lower erosion after mild flexing through closure of weak pore throats.","test":"Measure pores and erosion.","contrary":"Flexing always damages protection.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0381","hypothesis":"A granular crust could show lower erosion after mild flexing through closure of weak pore throats.","test":"Measure pores and erosion.","contrary_result":"Flexing always damages protection.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0381","hypothesis":"A granular crust could show lower erosion after mild flexing through closure of weak pore throats.","test":"Measure pores and erosion.","contrary_result":"Flexing always damages protection.","status":"Untested; novelty unverified","selection_rationale":"Pore mapping challenges a flexing-induced erosion benefit.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0382","id":"S8-0382","volume":"900v8","title":"A wet mineral surface could redirect a dissolving particle's trajectory through asymmetric surface cooling.","prediction":"A wet mineral surface could redirect a dissolving particle's trajectory through asymmetric surface cooling.","test":"Measure temperature and motion.","contrary":"Trajectory follows density currents alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0382","hypothesis":"A wet mineral surface could redirect a dissolving particle's trajectory through asymmetric surface cooling.","test":"Measure temperature and motion.","contrary_result":"Trajectory follows density currents alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0383","id":"S8-0383","volume":"900v8","title":"A drying clay lens could locally rewet its perimeter through elastic squeezing of retained water.","prediction":"A drying clay lens could locally rewet its perimeter through elastic squeezing of retained water.","test":"Image water and strain.","contrary":"Water content decreases everywhere.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0383","hypothesis":"A drying clay lens could locally rewet its perimeter through elastic squeezing of retained water.","test":"Image water and strain.","contrary_result":"Water content decreases everywhere.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0384","id":"S8-0384","volume":"900v8","title":"A sediment bed could show a narrow flow interval of reduced tracer dispersion after grain rotation.","prediction":"A sediment bed could show a narrow flow interval of reduced tracer dispersion after grain rotation.","test":"Measure orientation and transport.","contrary":"Dispersion rises monotonically with flow.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0384","hypothesis":"A sediment bed could show a narrow flow interval of reduced tracer dispersion after grain rotation.","test":"Measure orientation and transport.","contrary_result":"Dispersion rises monotonically with flow.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0385","id":"S8-0385","volume":"900v8","title":"A porous ice fragment could recover buoyant orientation before its internal temperature equilibrates.","prediction":"A porous ice fragment could recover buoyant orientation before its internal temperature equilibrates.","test":"Measure orientation and thermal field.","contrary":"Recovery follows thermal equilibrium.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0385","hypothesis":"A porous ice fragment could recover buoyant orientation before its internal temperature equilibrates.","test":"Measure orientation and thermal field.","contrary_result":"Recovery follows thermal equilibrium.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0386","id":"S8-0386","volume":"900v8","title":"A mineral coating could reveal microcrack healing through increasing thermal correlation length before stiffness recovery.","prediction":"A mineral coating could reveal microcrack healing through increasing thermal correlation length before stiffness recovery.","test":"Measure heat and stiffness.","contrary":"Both recover simultaneously.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0386","hypothesis":"A mineral coating could reveal microcrack healing through increasing thermal correlation length before stiffness recovery.","test":"Measure heat and stiffness.","contrary_result":"Both recover simultaneously.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0387","id":"S8-0387","volume":"900v8","title":"A thin salt crust could alternate between vapor uptake and release under constant ambient conditions through internal hydration coupling.","prediction":"A thin salt crust could alternate between vapor uptake and release under constant ambient conditions through internal hydration coupling.","test":"Measure mass and phase composition.","contrary":"Mass approaches equilibrium monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0387","hypothesis":"A thin salt crust could alternate between vapor uptake and release under constant ambient conditions through internal hydration coupling.","test":"Measure mass and phase composition.","contrary_result":"Mass approaches equilibrium monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0388","id":"S8-0388","volume":"900v8","title":"A granular channel could route bubbles through paths different from liquid tracers despite identical mean pressure gradient.","prediction":"A granular channel could route bubbles through paths different from liquid tracers despite identical mean pressure gradient.","test":"Map both phases.","contrary":"Paths coincide after buoyancy correction.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0388","hypothesis":"A granular channel could route bubbles through paths different from liquid tracers despite identical mean pressure gradient.","test":"Map both phases.","contrary_result":"Paths coincide after buoyancy correction.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0389","id":"S8-0389","volume":"900v8","title":"A clay-rich sediment could show stronger residual acoustic anisotropy after small rather than large cyclic strain.","prediction":"A clay-rich sediment could show stronger residual acoustic anisotropy after small rather than large cyclic strain.","test":"Measure tensor and structure.","contrary":"Anisotropy increases monotonically.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0389","hypothesis":"A clay-rich sediment could show stronger residual acoustic anisotropy after small rather than large cyclic strain.","test":"Measure tensor and structure.","contrary_result":"Anisotropy increases monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0390","id":"S8-0390","volume":"900v8","title":"A porous mineral slab could produce a transient surface hot spot during uniform evaporative cooling.","prediction":"A porous mineral slab could produce a transient surface hot spot during uniform evaporative cooling.","test":"Measure internal and surface heat.","contrary":"Every region cools monotonically.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0390","hypothesis":"A porous mineral slab could produce a transient surface hot spot during uniform evaporative cooling.","test":"Measure internal and surface heat.","contrary_result":"Every region cools monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0391","id":"S8-0391","volume":"900v8","title":"A frozen capillary bundle could preserve salt-distribution history after ice fraction recovers to its initial value.","prediction":"A frozen capillary bundle could preserve salt-distribution history after ice fraction recovers to its initial value.","test":"Measure composition and ice.","contrary":"Ice fraction uniquely predicts salt distribution.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0391","hypothesis":"A frozen capillary bundle could preserve salt-distribution history after ice fraction recovers to its initial value.","test":"Measure composition and ice.","contrary_result":"Ice fraction uniquely predicts salt distribution.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0392","id":"S8-0392","volume":"900v8","title":"A sediment aggregate could have maximum rebound after a finite dry-storage interval at equal final humidity.","prediction":"A sediment aggregate could have maximum rebound after a finite dry-storage interval at equal final humidity.","test":"Measure restitution and water.","contrary":"Rebound depends only on final humidity.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0392","hypothesis":"A sediment aggregate could have maximum rebound after a finite dry-storage interval at equal final humidity.","test":"Measure restitution and water.","contrary_result":"Rebound depends only on final humidity.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0393","id":"S8-0393","volume":"900v8","title":"A weakly cemented slope could transmit an acoustic pulse around a growing failure zone before visible displacement.","prediction":"A weakly cemented slope could transmit an acoustic pulse around a growing failure zone before visible displacement.","test":"Map waves and strain.","contrary":"Routing begins only after movement.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0393","hypothesis":"A weakly cemented slope could transmit an acoustic pulse around a growing failure zone before visible displacement.","test":"Map waves and strain.","contrary_result":"Routing begins only after movement.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0394","id":"S8-0394","volume":"900v8","title":"A porous stone could release smaller gas bubbles later than larger bubbles during slow pressure reduction.","prediction":"A porous stone could release smaller gas bubbles later than larger bubbles during slow pressure reduction.","test":"Measure bubble sizes and timing.","contrary":"Release follows size monotonically in the opposite order.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0394","hypothesis":"A porous stone could release smaller gas bubbles later than larger bubbles during slow pressure reduction.","test":"Measure bubble sizes and timing.","contrary_result":"Release follows size monotonically in the opposite order.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0395","id":"S8-0395","volume":"900v8","title":"A mineral film could retain a weak thermal gradient's direction in its later vapor adsorption pattern.","prediction":"A mineral film could retain a weak thermal gradient's direction in its later vapor adsorption pattern.","test":"Reverse gradients and equilibrate.","contrary":"Adsorption becomes isotropic.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0395","hypothesis":"A mineral film could retain a weak thermal gradient's direction in its later vapor adsorption pattern.","test":"Reverse gradients and equilibrate.","contrary_result":"Adsorption becomes isotropic.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0396","id":"S8-0396","volume":"900v8","title":"A layered sediment could show delayed contraction after unloading as gas dissolves into newly connected water.","prediction":"A layered sediment could show delayed contraction after unloading as gas dissolves into newly connected water.","test":"Measure strain and gas.","contrary":"Contraction requires continued external load.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0396","hypothesis":"A layered sediment could show delayed contraction after unloading as gas dissolves into newly connected water.","test":"Measure strain and gas.","contrary_result":"Contraction requires continued external load.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0397","id":"S8-0397","volume":"900v8","title":"A granular surface could self-level more effectively under alternating humidity than mechanical vibration at equal energy input.","prediction":"A granular surface could self-level more effectively under alternating humidity than mechanical vibration at equal energy input.","test":"Measure roughness and energy.","contrary":"Only vibration produces leveling.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0397","hypothesis":"A granular surface could self-level more effectively under alternating humidity than mechanical vibration at equal energy input.","test":"Measure roughness and energy.","contrary_result":"Only vibration produces leveling.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0398","id":"S8-0398","volume":"900v8","title":"A frost-coated porous slab could transmit vapor preferentially perpendicular to its fastest thermal-conduction axis.","prediction":"A frost-coated porous slab could transmit vapor preferentially perpendicular to its fastest thermal-conduction axis.","test":"Measure both tensors.","contrary":"Preferred axes always align.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0398","hypothesis":"A frost-coated porous slab could transmit vapor preferentially perpendicular to its fastest thermal-conduction axis.","test":"Measure both tensors.","contrary_result":"Preferred axes always align.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0399","id":"S8-0399","volume":"900v8","title":"A clay-lined pore could temporarily reverse a local liquid velocity during monotonic external drainage.","prediction":"A clay-lined pore could temporarily reverse a local liquid velocity during monotonic external drainage.","test":"Map velocities and wall motion.","contrary":"All velocities follow imposed pressure.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0399","hypothesis":"A clay-lined pore could temporarily reverse a local liquid velocity during monotonic external drainage.","test":"Map velocities and wall motion.","contrary_result":"All velocities follow imposed pressure.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0400","id":"S8-0400","volume":"900v8","title":"A mineral crust could distinguish repeated dew cycles from one equivalent wetting through different fracture-path branching.","prediction":"A mineral crust could distinguish repeated dew cycles from one equivalent wetting through different fracture-path branching.","test":"Match water dose and final state.","contrary":"Branching depends only on thickness.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0400","hypothesis":"A mineral crust could distinguish repeated dew cycles from one equivalent wetting through different fracture-path branching.","test":"Match water dose and final state.","contrary_result":"Branching depends only on thickness.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0401","id":"S8-0401","volume":"900v8","title":"A detached leaf could produce a reversible electrical pulse when a dew bridge first connects two veins.","prediction":"A detached leaf could produce a reversible electrical pulse when a dew bridge first connects two veins.","test":"Measure potential and bridge formation.","contrary":"Potential changes follow bulk wetting only.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0401","hypothesis":"A detached leaf could produce a reversible electrical pulse when a dew bridge first connects two veins.","test":"Measure potential and bridge formation.","contrary_result":"Potential changes follow bulk wetting only.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0401","hypothesis":"A detached leaf could produce a reversible electrical pulse when a dew bridge first connects two veins.","test":"Measure potential and bridge formation.","contrary_result":"Potential changes follow bulk wetting only.","status":"Untested; novelty unverified","selection_rationale":"Dew-bridge formation provides a timed electrical event.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0402","id":"S8-0402","volume":"900v8","title":"A seed coat could transmit an acoustic pulse preferentially away from its hydration pore.","prediction":"A seed coat could transmit an acoustic pulse preferentially away from its hydration pore.","test":"Map wave fields during wetting.","contrary":"Transmission remains symmetric.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0402","hypothesis":"A seed coat could transmit an acoustic pulse preferentially away from its hydration pore.","test":"Map wave fields during wetting.","contrary_result":"Transmission remains symmetric.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0403","id":"S8-0403","volume":"900v8","title":"A dry wood strip could distinguish rapid fog exposure from slow vapor adsorption through opposite torsional transients.","prediction":"A dry wood strip could distinguish rapid fog exposure from slow vapor adsorption through opposite torsional transients.","test":"Match final water mass.","contrary":"Twist depends only on uptake.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0403","hypothesis":"A dry wood strip could distinguish rapid fog exposure from slow vapor adsorption through opposite torsional transients.","test":"Match final water mass.","contrary_result":"Twist depends only on uptake.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0404","id":"S8-0404","volume":"900v8","title":"A moss cushion could redistribute heat toward a dry edge through liquid movement after illumination stops.","prediction":"A moss cushion could redistribute heat toward a dry edge through liquid movement after illumination stops.","test":"Map water and temperature.","contrary":"Cooling follows conduction alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0404","hypothesis":"A moss cushion could redistribute heat toward a dry edge through liquid movement after illumination stops.","test":"Map water and temperature.","contrary_result":"Cooling follows conduction alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0405","id":"S8-0405","volume":"900v8","title":"A plant wax film could repair a shallow scratch during humidity cycling without reaching its melting interval.","prediction":"A plant wax film could repair a shallow scratch during humidity cycling without reaching its melting interval.","test":"Image texture and wetting.","contrary":"Repair requires melting.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0405","hypothesis":"A plant wax film could repair a shallow scratch during humidity cycling without reaching its melting interval.","test":"Image texture and wetting.","contrary_result":"Repair requires melting.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0406","id":"S8-0406","volume":"900v8","title":"A nonliving grass stem could amplify small droplet impacts through delayed cross-section ovalization.","prediction":"A nonliving grass stem could amplify small droplet impacts through delayed cross-section ovalization.","test":"Measure geometry and vibration.","contrary":"Response follows ordinary beam bending only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0406","hypothesis":"A nonliving grass stem could amplify small droplet impacts through delayed cross-section ovalization.","test":"Measure geometry and vibration.","contrary_result":"Response follows ordinary beam bending only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0407","id":"S8-0407","volume":"900v8","title":"A seed wing could retain mechanical twist after a brief vapor gradient even when total water returns to baseline.","prediction":"A seed wing could retain mechanical twist after a brief vapor gradient even when total water returns to baseline.","test":"Measure water and twist.","contrary":"Twist vanishes with mass recovery.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0407","hypothesis":"A seed wing could retain mechanical twist after a brief vapor gradient even when total water returns to baseline.","test":"Measure water and twist.","contrary_result":"Twist vanishes with mass recovery.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0408","id":"S8-0408","volume":"900v8","title":"A leaf skeleton could sort mineral grains by shape during periodic condensation without liquid flooding.","prediction":"A leaf skeleton could sort mineral grains by shape during periodic condensation without liquid flooding.","test":"Track grains and droplets.","contrary":"Sorting follows grain mass only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0408","hypothesis":"A leaf skeleton could sort mineral grains by shape during periodic condensation without liquid flooding.","test":"Track grains and droplets.","contrary_result":"Sorting follows grain mass only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0409","id":"S8-0409","volume":"900v8","title":"A piece of bark could retain a transient heat-source location in its subsequent vapor-release map.","prediction":"A piece of bark could retain a transient heat-source location in its subsequent vapor-release map.","test":"Reverse source positions.","contrary":"Release depends only on total heat.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0409","hypothesis":"A piece of bark could retain a transient heat-source location in its subsequent vapor-release map.","test":"Reverse source positions.","contrary_result":"Release depends only on total heat.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0410","id":"S8-0410","volume":"900v8","title":"A benign algal cell aggregate could develop an oxygen minimum at its illuminated perimeter through circulation changes.","prediction":"A benign algal cell aggregate could develop an oxygen minimum at its illuminated perimeter through circulation changes.","test":"Map oxygen and light.","contrary":"Oxygen rises everywhere under illumination.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0410","hypothesis":"A benign algal cell aggregate could develop an oxygen minimum at its illuminated perimeter through circulation changes.","test":"Map oxygen and light.","contrary_result":"Oxygen rises everywhere under illumination.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0411","id":"S8-0411","volume":"900v8","title":"A root-free moss substrate could show a temporary maximum in mechanical damping before capillary connectivity forms.","prediction":"A root-free moss substrate could show a temporary maximum in mechanical damping before capillary connectivity forms.","test":"Measure connectivity and ringdown.","contrary":"Damping rises monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0411","hypothesis":"A root-free moss substrate could show a temporary maximum in mechanical damping before capillary connectivity forms.","test":"Measure connectivity and ringdown.","contrary_result":"Damping rises monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0412","id":"S8-0412","volume":"900v8","title":"A detached petal could localize a tiny puncture through a moving polarization pattern during rehydration.","prediction":"A detached petal could localize a tiny puncture through a moving polarization pattern during rehydration.","test":"Map water and optics.","contrary":"Pattern follows pigment concentration only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0412","hypothesis":"A detached petal could localize a tiny puncture through a moving polarization pattern during rehydration.","test":"Map water and optics.","contrary_result":"Pattern follows pigment concentration only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0413","id":"S8-0413","volume":"900v8","title":"A dry cone scale could release different mechanical work after equal-dose liquid wetting and vapor wetting.","prediction":"A dry cone scale could release different mechanical work after equal-dose liquid wetting and vapor wetting.","test":"Measure work and water distribution.","contrary":"Work depends only on total uptake.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0413","hypothesis":"A dry cone scale could release different mechanical work after equal-dose liquid wetting and vapor wetting.","test":"Measure work and water distribution.","contrary_result":"Work depends only on total uptake.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0414","id":"S8-0414","volume":"900v8","title":"A plant-derived hollow fiber could retain a vapor pulse's rise time in its later bending relaxation.","prediction":"A plant-derived hollow fiber could retain a vapor pulse's rise time in its later bending relaxation.","test":"Match pulse dose.","contrary":"Relaxation depends only on final water.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0414","hypothesis":"A plant-derived hollow fiber could retain a vapor pulse's rise time in its later bending relaxation.","test":"Match pulse dose.","contrary_result":"Relaxation depends only on final water.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0415","id":"S8-0415","volume":"900v8","title":"A dormant nonviable seed could reveal internal cracks through a change in thermal-noise spatial coherence.","prediction":"A dormant nonviable seed could reveal internal cracks through a change in thermal-noise spatial coherence.","test":"Measure noise and crack imaging.","contrary":"Coherence follows external airflow only.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0415","hypothesis":"A dormant nonviable seed could reveal internal cracks through a change in thermal-noise spatial coherence.","test":"Measure noise and crack imaging.","contrary_result":"Coherence follows external airflow only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0416","id":"S8-0416","volume":"900v8","title":"A wood cross-section could form alternating condensation bands at earlywood-latewood boundaries before visible swelling.","prediction":"A wood cross-section could form alternating condensation bands at earlywood-latewood boundaries before visible swelling.","test":"Map droplets and strain.","contrary":"Bands require swelling.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0416","hypothesis":"A wood cross-section could form alternating condensation bands at earlywood-latewood boundaries before visible swelling.","test":"Map droplets and strain.","contrary_result":"Bands require swelling.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0417","id":"S8-0417","volume":"900v8","title":"A nonliving leaf could shed mineral dust more efficiently during asymmetric humidity cycles than constant wetting.","prediction":"A nonliving leaf could shed mineral dust more efficiently during asymmetric humidity cycles than constant wetting.","test":"Measure dust and water dose.","contrary":"Removal follows dose alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0417","hypothesis":"A nonliving leaf could shed mineral dust more efficiently during asymmetric humidity cycles than constant wetting.","test":"Measure dust and water dose.","contrary_result":"Removal follows dose alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0418","id":"S8-0418","volume":"900v8","title":"A moss stem could recover its acoustic mode order before its original shape after drying.","prediction":"A moss stem could recover its acoustic mode order before its original shape after drying.","test":"Measure shapes and spectra.","contrary":"Mode recovery follows shape recovery.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0418","hypothesis":"A moss stem could recover its acoustic mode order before its original shape after drying.","test":"Measure shapes and spectra.","contrary_result":"Mode recovery follows shape recovery.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0419","id":"S8-0419","volume":"900v8","title":"A plant cuticle could exhibit temporary reverse vapor flow after an external humidity decrease through stored elastic stress.","prediction":"A plant cuticle could exhibit temporary reverse vapor flow after an external humidity decrease through stored elastic stress.","test":"Measure signed flux and strain.","contrary":"Flux follows the instantaneous humidity gradient.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0419","hypothesis":"A plant cuticle could exhibit temporary reverse vapor flow after an external humidity decrease through stored elastic stress.","test":"Measure signed flux and strain.","contrary_result":"Flux follows the instantaneous humidity gradient.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0420","id":"S8-0420","volume":"900v8","title":"A grass awn could distinguish wind-pulse direction from humidity-induced twist through different relaxation handedness.","prediction":"A grass awn could distinguish wind-pulse direction from humidity-induced twist through different relaxation handedness.","test":"Apply inputs separately.","contrary":"Both produce the same handedness.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0420","hypothesis":"A grass awn could distinguish wind-pulse direction from humidity-induced twist through different relaxation handedness.","test":"Apply inputs separately.","contrary_result":"Both produce the same handedness.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0421","id":"S8-0421","volume":"900v8","title":"A detached succulent skin could trap a dissolved benign dye away from its evaporating edge through selective cell-wall swelling.","prediction":"A detached succulent skin could trap a dissolved benign dye away from its evaporating edge through selective cell-wall swelling.","test":"Map dye and water.","contrary":"Dye follows evaporation fronts only.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0421","hypothesis":"A detached succulent skin could trap a dissolved benign dye away from its evaporating edge through selective cell-wall swelling.","test":"Map dye and water.","contrary_result":"Dye follows evaporation fronts only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0422","id":"S8-0422","volume":"900v8","title":"A tree seed shell could display a reversible acoustic transparency maximum at intermediate hydration.","prediction":"A tree seed shell could display a reversible acoustic transparency maximum at intermediate hydration.","test":"Measure waves and water.","contrary":"Transmission changes monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0422","hypothesis":"A tree seed shell could display a reversible acoustic transparency maximum at intermediate hydration.","test":"Measure waves and water.","contrary_result":"Transmission changes monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0423","id":"S8-0423","volume":"900v8","title":"A benign yeast suspension could exhibit a pressure-noise precursor to sediment resuspension without population growth.","prediction":"A benign yeast suspension could exhibit a pressure-noise precursor to sediment resuspension without population growth.","test":"Measure cells and pressure.","contrary":"Noise changes follow resuspension.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0423","hypothesis":"A benign yeast suspension could exhibit a pressure-noise precursor to sediment resuspension without population growth.","test":"Measure cells and pressure.","contrary_result":"Noise changes follow resuspension.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0424","id":"S8-0424","volume":"900v8","title":"A leaf vein remnant could maintain a liquid path around a cut through reversible tissue folding.","prediction":"A leaf vein remnant could maintain a liquid path around a cut through reversible tissue folding.","test":"Image fluid and deformation.","contrary":"Routing requires new external liquid contact.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0424","hypothesis":"A leaf vein remnant could maintain a liquid path around a cut through reversible tissue folding.","test":"Image fluid and deformation.","contrary_result":"Routing requires new external liquid contact.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0425","id":"S8-0425","volume":"900v8","title":"A dry plant fiber could soften transiently during cooling at constant water activity.","prediction":"A dry plant fiber could soften transiently during cooling at constant water activity.","test":"Measure temperature, water and modulus.","contrary":"Modulus follows water content only.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0425","hypothesis":"A dry plant fiber could soften transiently during cooling at constant water activity.","test":"Measure temperature, water and modulus.","contrary_result":"Modulus follows water content only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0426","id":"S8-0426","volume":"900v8","title":"A natural cellulose network could separate dissolved gas from liquid during flexure through pore-opening asymmetry.","prediction":"A natural cellulose network could separate dissolved gas from liquid during flexure through pore-opening asymmetry.","test":"Measure gas and liquid output.","contrary":"Both phases exit proportionally.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0426","hypothesis":"A natural cellulose network could separate dissolved gas from liquid during flexure through pore-opening asymmetry.","test":"Measure gas and liquid output.","contrary_result":"Both phases exit proportionally.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0427","id":"S8-0427","volume":"900v8","title":"A pollen-free petal surface could develop a directionally moving dew-release front under uniform warming.","prediction":"A pollen-free petal surface could develop a directionally moving dew-release front under uniform warming.","test":"Map release and temperature.","contrary":"Release is spatially random.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0427","hypothesis":"A pollen-free petal surface could develop a directionally moving dew-release front under uniform warming.","test":"Map release and temperature.","contrary_result":"Release is spatially random.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0428","id":"S8-0428","volume":"900v8","title":"A cork layer could transmit pressure fluctuations more effectively after one compression cycle while retaining lower mean permeability.","prediction":"A cork layer could transmit pressure fluctuations more effectively after one compression cycle while retaining lower mean permeability.","test":"Measure both channels.","contrary":"Transmission follows permeability exclusively.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0428","hypothesis":"A cork layer could transmit pressure fluctuations more effectively after one compression cycle while retaining lower mean permeability.","test":"Measure both channels.","contrary_result":"Transmission follows permeability exclusively.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0429","id":"S8-0429","volume":"900v8","title":"A fallen leaf stack could transport heat vertically faster during initial wetting than after saturation.","prediction":"A fallen leaf stack could transport heat vertically faster during initial wetting than after saturation.","test":"Measure thermal transients.","contrary":"Conductivity increases monotonically with water.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0429","hypothesis":"A fallen leaf stack could transport heat vertically faster during initial wetting than after saturation.","test":"Measure thermal transients.","contrary_result":"Conductivity increases monotonically with water.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0430","id":"S8-0430","volume":"900v8","title":"A living moss film could show a light-induced surface-tension change before measurable oxygen production changes.","prediction":"A living moss film could show a light-induced surface-tension change before measurable oxygen production changes.","test":"Measure tension and oxygen.","contrary":"Tension follows temperature only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0430","hypothesis":"A living moss film could show a light-induced surface-tension change before measurable oxygen production changes.","test":"Measure tension and oxygen.","contrary_result":"Tension follows temperature only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0431","id":"S8-0431","volume":"900v8","title":"A nonliving root network could distribute a water pulse more evenly after a short reverse-pressure conditioning.","prediction":"A nonliving root network could distribute a water pulse more evenly after a short reverse-pressure conditioning.","test":"Map flow paths.","contrary":"Conditioning only increases channeling.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0431","hypothesis":"A nonliving root network could distribute a water pulse more evenly after a short reverse-pressure conditioning.","test":"Map flow paths.","contrary_result":"Conditioning only increases channeling.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0432","id":"S8-0432","volume":"900v8","title":"A dry wood vessel could retain gas longer when connected to two narrow outlets than one equal-area outlet.","prediction":"A dry wood vessel could retain gas longer when connected to two narrow outlets than one equal-area outlet.","test":"Measure gas lifetime.","contrary":"Area alone determines retention.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0432","hypothesis":"A dry wood vessel could retain gas longer when connected to two narrow outlets than one equal-area outlet.","test":"Measure gas lifetime.","contrary_result":"Area alone determines retention.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0433","id":"S8-0433","volume":"900v8","title":"A seed hair could rotate a dew droplet against gravity through hydration-induced cross-sectional change.","prediction":"A seed hair could rotate a dew droplet against gravity through hydration-induced cross-sectional change.","test":"Measure shape and motion.","contrary":"Transport requires external vibration.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0433","hypothesis":"A seed hair could rotate a dew droplet against gravity through hydration-induced cross-sectional change.","test":"Measure shape and motion.","contrary_result":"Transport requires external vibration.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0434","id":"S8-0434","volume":"900v8","title":"A fern-like natural membrane could preserve a past bending direction in its later acoustic anisotropy.","prediction":"A fern-like natural membrane could preserve a past bending direction in its later acoustic anisotropy.","test":"Reverse conditioning bends.","contrary":"Anisotropy follows current geometry only.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0434","hypothesis":"A fern-like natural membrane could preserve a past bending direction in its later acoustic anisotropy.","test":"Reverse conditioning bends.","contrary_result":"Anisotropy follows current geometry only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0435","id":"S8-0435","volume":"900v8","title":"A detached leaf could reveal a blocked water path through anti-correlated thermal fluctuations on neighboring veins.","prediction":"A detached leaf could reveal a blocked water path through anti-correlated thermal fluctuations on neighboring veins.","test":"Map flow and temperature.","contrary":"Correlations reflect only shared air temperature.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0435","hypothesis":"A detached leaf could reveal a blocked water path through anti-correlated thermal fluctuations on neighboring veins.","test":"Map flow and temperature.","contrary_result":"Correlations reflect only shared air temperature.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0436","id":"S8-0436","volume":"900v8","title":"A moss mat could release a gas pulse during partial drying before visible contraction.","prediction":"A moss mat could release a gas pulse during partial drying before visible contraction.","test":"Measure gas and strain.","contrary":"Release begins only with contraction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0436","hypothesis":"A moss mat could release a gas pulse during partial drying before visible contraction.","test":"Measure gas and strain.","contrary_result":"Release begins only with contraction.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0437","id":"S8-0437","volume":"900v8","title":"A plant wax surface could show a minimum in droplet pinning after a finite dark recovery interval.","prediction":"A plant wax surface could show a minimum in droplet pinning after a finite dark recovery interval.","test":"Measure pinning across intervals.","contrary":"Pinning changes monotonically.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0437","hypothesis":"A plant wax surface could show a minimum in droplet pinning after a finite dark recovery interval.","test":"Measure pinning across intervals.","contrary_result":"Pinning changes monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0438","id":"S8-0438","volume":"900v8","title":"A nonliving seed coat could stiffen during initial water entry while its thickness increases.","prediction":"A nonliving seed coat could stiffen during initial water entry while its thickness increases.","test":"Measure water and modulus.","contrary":"Stiffness decreases immediately.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0438","hypothesis":"A nonliving seed coat could stiffen during initial water entry while its thickness increases.","test":"Measure water and modulus.","contrary_result":"Stiffness decreases immediately.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0439","id":"S8-0439","volume":"900v8","title":"A wood knot could redirect a humidity front through reversible stress closure before bulk swelling.","prediction":"A wood knot could redirect a humidity front through reversible stress closure before bulk swelling.","test":"Map moisture and strain.","contrary":"Routing follows pore geometry alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0439","hypothesis":"A wood knot could redirect a humidity front through reversible stress closure before bulk swelling.","test":"Map moisture and strain.","contrary_result":"Routing follows pore geometry alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0440","id":"S8-0440","volume":"900v8","title":"A benign algal suspension could retain illumination direction briefly in its acoustic scattering after darkness.","prediction":"A benign algal suspension could retain illumination direction briefly in its acoustic scattering after darkness.","test":"Measure cell alignment and sound.","contrary":"Scattering becomes isotropic immediately.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0440","hypothesis":"A benign algal suspension could retain illumination direction briefly in its acoustic scattering after darkness.","test":"Measure cell alignment and sound.","contrary_result":"Scattering becomes isotropic immediately.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0441","id":"S8-0441","volume":"900v8","title":"A detached grass blade could reveal internal delamination through a split in its drying-front velocity.","prediction":"A detached grass blade could reveal internal delamination through a split in its drying-front velocity.","test":"Map fronts and structure.","contrary":"Velocity changes follow exterior thickness only.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0441","hypothesis":"A detached grass blade could reveal internal delamination through a split in its drying-front velocity.","test":"Map fronts and structure.","contrary_result":"Velocity changes follow exterior thickness only.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0441","hypothesis":"A detached grass blade could reveal internal delamination through a split in its drying-front velocity.","test":"Map fronts and structure.","contrary_result":"Velocity changes follow exterior thickness only.","status":"Untested; novelty unverified","selection_rationale":"Imaging can validate delamination behind a drying-front split.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0442","id":"S8-0442","volume":"900v8","title":"A bark scale could detach less readily after a short humidity spike than steady humidity at the same mean.","prediction":"A bark scale could detach less readily after a short humidity spike than steady humidity at the same mean.","test":"Measure adhesion and water.","contrary":"Only mean humidity matters.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0442","hypothesis":"A bark scale could detach less readily after a short humidity spike than steady humidity at the same mean.","test":"Measure adhesion and water.","contrary_result":"Only mean humidity matters.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0443","id":"S8-0443","volume":"900v8","title":"A natural fiber loop could store an impact's duration in its subsequent swelling-induced knot motion.","prediction":"A natural fiber loop could store an impact's duration in its subsequent swelling-induced knot motion.","test":"Match impact energy.","contrary":"Motion depends only on peak force.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0443","hypothesis":"A natural fiber loop could store an impact's duration in its subsequent swelling-induced knot motion.","test":"Match impact energy.","contrary_result":"Motion depends only on peak force.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0444","id":"S8-0444","volume":"900v8","title":"A nonliving plant pith could distinguish liquid infiltration from vapor sorption through opposite changes in acoustic dispersion.","prediction":"A nonliving plant pith could distinguish liquid infiltration from vapor sorption through opposite changes in acoustic dispersion.","test":"Calibrate uptake routes.","contrary":"Dispersion depends only on water mass.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0444","hypothesis":"A nonliving plant pith could distinguish liquid infiltration from vapor sorption through opposite changes in acoustic dispersion.","test":"Calibrate uptake routes.","contrary_result":"Dispersion depends only on water mass.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0445","id":"S8-0445","volume":"900v8","title":"A seed shell could focus a heat pulse near its hydration entry without a local conductivity maximum.","prediction":"A seed shell could focus a heat pulse near its hydration entry without a local conductivity maximum.","test":"Map heat paths and structure.","contrary":"Focusing requires higher conductivity there.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0445","hypothesis":"A seed shell could focus a heat pulse near its hydration entry without a local conductivity maximum.","test":"Map heat paths and structure.","contrary_result":"Focusing requires higher conductivity there.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0446","id":"S8-0446","volume":"900v8","title":"A moss branch cluster could suppress water loss through reversible mechanical closure before humidity rises internally.","prediction":"A moss branch cluster could suppress water loss through reversible mechanical closure before humidity rises internally.","test":"Measure geometry and local humidity.","contrary":"Closure follows humidity equilibration.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0446","hypothesis":"A moss branch cluster could suppress water loss through reversible mechanical closure before humidity rises internally.","test":"Measure geometry and local humidity.","contrary_result":"Closure follows humidity equilibration.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0447","id":"S8-0447","volume":"900v8","title":"A detached petal could recover its water mass without recovering its original vapor permeability.","prediction":"A detached petal could recover its water mass without recovering its original vapor permeability.","test":"Measure both before and after cycling.","contrary":"Permeability follows mass uniquely.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0447","hypothesis":"A detached petal could recover its water mass without recovering its original vapor permeability.","test":"Measure both before and after cycling.","contrary_result":"Permeability follows mass uniquely.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0448","id":"S8-0448","volume":"900v8","title":"A dry conifer needle could exhibit different torsional recovery after clockwise and counterclockwise humidity gradients.","prediction":"A dry conifer needle could exhibit different torsional recovery after clockwise and counterclockwise humidity gradients.","test":"Reverse gradient rotation.","contrary":"Only final humidity matters.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0448","hypothesis":"A dry conifer needle could exhibit different torsional recovery after clockwise and counterclockwise humidity gradients.","test":"Reverse gradient rotation.","contrary_result":"Only final humidity matters.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0449","id":"S8-0449","volume":"900v8","title":"A leaf-derived cellulose sheet could retain fine dust more strongly after weak vibration during drying.","prediction":"A leaf-derived cellulose sheet could retain fine dust more strongly after weak vibration during drying.","test":"Measure retention and contacts.","contrary":"Vibration only removes dust.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0449","hypothesis":"A leaf-derived cellulose sheet could retain fine dust more strongly after weak vibration during drying.","test":"Measure retention and contacts.","contrary_result":"Vibration only removes dust.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0450","id":"S8-0450","volume":"900v8","title":"A living root segment could create a local refractive-index transient before measurable bending under benign osmotic change.","prediction":"A living root segment could create a local refractive-index transient before measurable bending under benign osmotic change.","test":"Measure optics and shape.","contrary":"Optics changes follow bending.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0450","hypothesis":"A living root segment could create a local refractive-index transient before measurable bending under benign osmotic change.","test":"Measure optics and shape.","contrary_result":"Optics changes follow bending.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0451","id":"S8-0451","volume":"900v8","title":"A nonliving wood membrane could transmit a concentration pulse faster after a brief mechanical unloading.","prediction":"A nonliving wood membrane could transmit a concentration pulse faster after a brief mechanical unloading.","test":"Measure tracer and strain.","contrary":"Transit follows pore volume only.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0451","hypothesis":"A nonliving wood membrane could transmit a concentration pulse faster after a brief mechanical unloading.","test":"Measure tracer and strain.","contrary_result":"Transit follows pore volume only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0452","id":"S8-0452","volume":"900v8","title":"A seed cluster could direct condensation into sheltered gaps through collective thermal radiation.","prediction":"A seed cluster could direct condensation into sheltered gaps through collective thermal radiation.","test":"Measure local temperature and droplets.","contrary":"Geometry changes collection only through exposed area.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0452","hypothesis":"A seed cluster could direct condensation into sheltered gaps through collective thermal radiation.","test":"Measure local temperature and droplets.","contrary_result":"Geometry changes collection only through exposed area.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0453","id":"S8-0453","volume":"900v8","title":"A detached waxy leaf could show greater droplet mobility after a small cooling pulse despite increased liquid viscosity.","prediction":"A detached waxy leaf could show greater droplet mobility after a small cooling pulse despite increased liquid viscosity.","test":"Measure contact lines and temperature.","contrary":"Mobility follows viscosity monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0453","hypothesis":"A detached waxy leaf could show greater droplet mobility after a small cooling pulse despite increased liquid viscosity.","test":"Measure contact lines and temperature.","contrary_result":"Mobility follows viscosity monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0454","id":"S8-0454","volume":"900v8","title":"A moss layer could distinguish mild freezing from dehydration through opposite recovery of optical anisotropy.","prediction":"A moss layer could distinguish mild freezing from dehydration through opposite recovery of optical anisotropy.","test":"Match final water content.","contrary":"Optical recovery is identical.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0454","hypothesis":"A moss layer could distinguish mild freezing from dehydration through opposite recovery of optical anisotropy.","test":"Match final water content.","contrary_result":"Optical recovery is identical.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0455","id":"S8-0455","volume":"900v8","title":"A plant fiber braid could reduce humidity-induced extension through reversible internal sliding rather than stiffness increase.","prediction":"A plant fiber braid could reduce humidity-induced extension through reversible internal sliding rather than stiffness increase.","test":"Measure sliding and modulus.","contrary":"Reduced extension requires higher modulus.","layers":[1],"categories":["biology","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0455","hypothesis":"A plant fiber braid could reduce humidity-induced extension through reversible internal sliding rather than stiffness increase.","test":"Measure sliding and modulus.","contrary_result":"Reduced extension requires higher modulus.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0456","id":"S8-0456","volume":"900v8","title":"A dry stem junction could amplify a local wetting signal through a snap between two cross-sectional states.","prediction":"A dry stem junction could amplify a local wetting signal through a snap between two cross-sectional states.","test":"Image shape and force.","contrary":"Response is continuous.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0456","hypothesis":"A dry stem junction could amplify a local wetting signal through a snap between two cross-sectional states.","test":"Image shape and force.","contrary_result":"Response is continuous.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0457","id":"S8-0457","volume":"900v8","title":"A leaf skeleton could form a stable capillary loop around a dry patch during uniform wetting.","prediction":"A leaf skeleton could form a stable capillary loop around a dry patch during uniform wetting.","test":"Map liquid topology.","contrary":"All loops collapse immediately.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0457","hypothesis":"A leaf skeleton could form a stable capillary loop around a dry patch during uniform wetting.","test":"Map liquid topology.","contrary_result":"All loops collapse immediately.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0458","id":"S8-0458","volume":"900v8","title":"A porous seed could release trapped air in a sequence predicting later swelling asymmetry.","prediction":"A porous seed could release trapped air in a sequence predicting later swelling asymmetry.","test":"Track bubbles and shape.","contrary":"Bubble timing has no predictive value.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0458","hypothesis":"A porous seed could release trapped air in a sequence predicting later swelling asymmetry.","test":"Track bubbles and shape.","contrary_result":"Bubble timing has no predictive value.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0459","id":"S8-0459","volume":"900v8","title":"A detached petal's thermal fluctuation spectrum could reveal rehydration damage before its mean color changes.","prediction":"A detached petal's thermal fluctuation spectrum could reveal rehydration damage before its mean color changes.","test":"Measure spectra and tissue integrity.","contrary":"Color changes appear first.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0459","hypothesis":"A detached petal's thermal fluctuation spectrum could reveal rehydration damage before its mean color changes.","test":"Measure spectra and tissue integrity.","contrary_result":"Color changes appear first.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0460","id":"S8-0460","volume":"900v8","title":"A bark surface could retain droplet-pulse frequency in its later drying crack pattern.","prediction":"A bark surface could retain droplet-pulse frequency in its later drying crack pattern.","test":"Match total water and duration.","contrary":"Cracks depend only on final water.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0460","hypothesis":"A bark surface could retain droplet-pulse frequency in its later drying crack pattern.","test":"Match total water and duration.","contrary_result":"Cracks depend only on final water.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0461","id":"S8-0461","volume":"900v8","title":"A benign fungal fruiting body sample could recover acoustic stiffness faster than mass after mild drying.","prediction":"A benign fungal fruiting body sample could recover acoustic stiffness faster than mass after mild drying.","test":"Measure water and ringdown.","contrary":"Both recover together.","layers":[1,2],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0461","hypothesis":"A benign fungal fruiting body sample could recover acoustic stiffness faster than mass after mild drying.","test":"Measure water and ringdown.","contrary_result":"Both recover together.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0461","hypothesis":"A benign fungal fruiting body sample could recover acoustic stiffness faster than mass after mild drying.","test":"Measure water and ringdown.","contrary_result":"Both recover together.","status":"Untested; novelty unverified","selection_rationale":"Acoustic recovery and mass recovery have independent clocks.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0462","id":"S8-0462","volume":"900v8","title":"A natural hollow fiber could select a single condensation site through elastic self-shadowing.","prediction":"A natural hollow fiber could select a single condensation site through elastic self-shadowing.","test":"Map shape and droplets.","contrary":"Sites follow chemistry alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0462","hypothesis":"A natural hollow fiber could select a single condensation site through elastic self-shadowing.","test":"Map shape and droplets.","contrary_result":"Sites follow chemistry alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0463","id":"S8-0463","volume":"900v8","title":"A root-free soil-plant-litter interface could maintain a cool band after evaporation stops through redistribution of bound water.","prediction":"A root-free soil-plant-litter interface could maintain a cool band after evaporation stops through redistribution of bound water.","test":"Measure water states and heat.","contrary":"Cooling ends with surface evaporation.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0463","hypothesis":"A root-free soil-plant-litter interface could maintain a cool band after evaporation stops through redistribution of bound water.","test":"Measure water states and heat.","contrary_result":"Cooling ends with surface evaporation.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0464","id":"S8-0464","volume":"900v8","title":"An emptied seed shell could focus sound near its attachment scar, with focusing lost during gentle humidity swelling.","prediction":"An emptied seed shell could focus sound near its attachment scar, with focusing lost during gentle humidity swelling.","test":"Map acoustic fields and geometry.","contrary":"The focus follows cavity volume only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0464","hypothesis":"An emptied seed shell could focus sound near its attachment scar, with focusing lost during gentle humidity swelling.","test":"Map acoustic fields and geometry.","contrary_result":"The focus follows cavity volume only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0465","id":"S8-0465","volume":"900v8","title":"A leaf's cuticle could become less permeable after small reversible stretching through pore realignment.","prediction":"A leaf's cuticle could become less permeable after small reversible stretching through pore realignment.","test":"Measure flux and texture.","contrary":"Stretching always raises permeability.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0465","hypothesis":"A leaf's cuticle could become less permeable after small reversible stretching through pore realignment.","test":"Measure flux and texture.","contrary_result":"Stretching always raises permeability.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0466","id":"S8-0466","volume":"900v8","title":"A moss cushion could have a minimum droplet-impact rebound at intermediate water content.","prediction":"A moss cushion could have a minimum droplet-impact rebound at intermediate water content.","test":"Measure rebound across hydration.","contrary":"Rebound varies monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0466","hypothesis":"A moss cushion could have a minimum droplet-impact rebound at intermediate water content.","test":"Measure rebound across hydration.","contrary_result":"Rebound varies monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0467","id":"S8-0467","volume":"900v8","title":"A dry plant pith could conduct heat more evenly after a weak transverse compression pulse.","prediction":"A dry plant pith could conduct heat more evenly after a weak transverse compression pulse.","test":"Map heat and pore shape.","contrary":"Uniformity follows bulk density alone.","layers":[1],"categories":["energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0467","hypothesis":"A dry plant pith could conduct heat more evenly after a weak transverse compression pulse.","test":"Map heat and pore shape.","contrary_result":"Uniformity follows bulk density alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0468","id":"S8-0468","volume":"900v8","title":"A detached leaf could retain light-pattern history in its later dew map after temperature becomes uniform.","prediction":"A detached leaf could retain light-pattern history in its later dew map after temperature becomes uniform.","test":"Register light and condensation patterns.","contrary":"Dew follows current temperature only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0468","hypothesis":"A detached leaf could retain light-pattern history in its later dew map after temperature becomes uniform.","test":"Register light and condensation patterns.","contrary_result":"Dew follows current temperature only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0469","id":"S8-0469","volume":"900v8","title":"A nonliving seed wing could generate a humidity-driven oscillation under constant ambient conditions through delayed contact friction.","prediction":"A nonliving seed wing could generate a humidity-driven oscillation under constant ambient conditions through delayed contact friction.","test":"Measure water and angle.","contrary":"Oscillation requires ambient cycling.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0469","hypothesis":"A nonliving seed wing could generate a humidity-driven oscillation under constant ambient conditions through delayed contact friction.","test":"Measure water and angle.","contrary_result":"Oscillation requires ambient cycling.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0470","id":"S8-0470","volume":"900v8","title":"A wood surface could suppress salt crystallization at mechanically compressed vessels despite higher local concentration.","prediction":"A wood surface could suppress salt crystallization at mechanically compressed vessels despite higher local concentration.","test":"Map stress and crystals.","contrary":"Nucleation follows concentration alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0470","hypothesis":"A wood surface could suppress salt crystallization at mechanically compressed vessels despite higher local concentration.","test":"Map stress and crystals.","contrary_result":"Nucleation follows concentration alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0471","id":"S8-0471","volume":"900v8","title":"A moss branch could distinguish immersion from misting through different late-time torsional recovery at equal mass.","prediction":"A moss branch could distinguish immersion from misting through different late-time torsional recovery at equal mass.","test":"Measure preparation and angle.","contrary":"Mass fully predicts recovery.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0471","hypothesis":"A moss branch could distinguish immersion from misting through different late-time torsional recovery at equal mass.","test":"Measure preparation and angle.","contrary_result":"Mass fully predicts recovery.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0472","id":"S8-0472","volume":"900v8","title":"A detached grass sheath could retain a short pressure pulse as a reversible fold pattern.","prediction":"A detached grass sheath could retain a short pressure pulse as a reversible fold pattern.","test":"Image folds after unloading.","contrary":"Pattern vanishes immediately.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0472","hypothesis":"A detached grass sheath could retain a short pressure pulse as a reversible fold pattern.","test":"Image folds after unloading.","contrary_result":"Pattern vanishes immediately.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0473","id":"S8-0473","volume":"900v8","title":"A natural fiber mat could release retained mineral grains preferentially before bulk water drainage.","prediction":"A natural fiber mat could release retained mineral grains preferentially before bulk water drainage.","test":"Measure particle and water effluent.","contrary":"Particles follow water proportionally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0473","hypothesis":"A natural fiber mat could release retained mineral grains preferentially before bulk water drainage.","test":"Measure particle and water effluent.","contrary_result":"Particles follow water proportionally.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0474","id":"S8-0474","volume":"900v8","title":"A leaf vein network could show a local thermal phase inversion after a benign hydraulic blockage.","prediction":"A leaf vein network could show a local thermal phase inversion after a benign hydraulic blockage.","test":"Map phase and flow.","contrary":"Phase changes only in magnitude.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0474","hypothesis":"A leaf vein network could show a local thermal phase inversion after a benign hydraulic blockage.","test":"Map phase and flow.","contrary_result":"Phase changes only in magnitude.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0475","id":"S8-0475","volume":"900v8","title":"A nonliving pine scale could amplify a weak lateral humidity gradient through asymmetric internal vapor resistance.","prediction":"A nonliving pine scale could amplify a weak lateral humidity gradient through asymmetric internal vapor resistance.","test":"Measure humidity and bending.","contrary":"Only mean humidity matters.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0475","hypothesis":"A nonliving pine scale could amplify a weak lateral humidity gradient through asymmetric internal vapor resistance.","test":"Measure humidity and bending.","contrary_result":"Only mean humidity matters.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0476","id":"S8-0476","volume":"900v8","title":"A seed shell could show lower acoustic loss after partial cracking than before cracking through stress release.","prediction":"A seed shell could show lower acoustic loss after partial cracking than before cracking through stress release.","test":"Measure cracks and damping.","contrary":"Cracks always increase loss.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0476","hypothesis":"A seed shell could show lower acoustic loss after partial cracking than before cracking through stress release.","test":"Measure cracks and damping.","contrary_result":"Cracks always increase loss.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0477","id":"S8-0477","volume":"900v8","title":"A bark fissure could transport condensate away from its nucleation site before droplet coalescence.","prediction":"A bark fissure could transport condensate away from its nucleation site before droplet coalescence.","test":"Image droplets and wall motion.","contrary":"Transport begins only after coalescence.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0477","hypothesis":"A bark fissure could transport condensate away from its nucleation site before droplet coalescence.","test":"Image droplets and wall motion.","contrary_result":"Transport begins only after coalescence.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0478","id":"S8-0478","volume":"900v8","title":"A moss mat could retain a weak compression direction in its rehydration-induced electrical signal.","prediction":"A moss mat could retain a weak compression direction in its rehydration-induced electrical signal.","test":"Reverse preparation compression.","contrary":"Signals depend only on water dose.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0478","hypothesis":"A moss mat could retain a weak compression direction in its rehydration-induced electrical signal.","test":"Reverse preparation compression.","contrary_result":"Signals depend only on water dose.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0479","id":"S8-0479","volume":"900v8","title":"A detached petal could display an optical recovery front moving opposite its water-entry front.","prediction":"A detached petal could display an optical recovery front moving opposite its water-entry front.","test":"Map spectra and water.","contrary":"Both fronts move together.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0479","hypothesis":"A detached petal could display an optical recovery front moving opposite its water-entry front.","test":"Map spectra and water.","contrary_result":"Both fronts move together.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0480","id":"S8-0480","volume":"900v8","title":"A plant fiber knot could untie under alternating vapor exposures while tightening under liquid wetting.","prediction":"A plant fiber knot could untie under alternating vapor exposures while tightening under liquid wetting.","test":"Measure contacts and knot motion.","contrary":"Both uptake routes tighten it.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0480","hypothesis":"A plant fiber knot could untie under alternating vapor exposures while tightening under liquid wetting.","test":"Measure contacts and knot motion.","contrary_result":"Both uptake routes tighten it.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0481","id":"S8-0481","volume":"900v8","title":"A wood vessel cluster could transmit a pressure pulse through gas paths after liquid continuity is lost.","prediction":"A wood vessel cluster could transmit a pressure pulse through gas paths after liquid continuity is lost.","test":"Map phases and pulse transmission.","contrary":"Transmission requires connected liquid.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0481","hypothesis":"A wood vessel cluster could transmit a pressure pulse through gas paths after liquid continuity is lost.","test":"Map phases and pulse transmission.","contrary_result":"Transmission requires connected liquid.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0481","hypothesis":"A wood vessel cluster could transmit a pressure pulse through gas paths after liquid continuity is lost.","test":"Map phases and pulse transmission.","contrary_result":"Transmission requires connected liquid.","status":"Untested; novelty unverified","selection_rationale":"Phase imaging can verify gas transport after hydraulic disconnection.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0482","id":"S8-0482","volume":"900v8","title":"A nonliving root fragment could show a transient increase in electrical conductivity during drying before ion precipitation.","prediction":"A nonliving root fragment could show a transient increase in electrical conductivity during drying before ion precipitation.","test":"Measure concentration and conductivity.","contrary":"Conductivity decreases immediately.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0482","hypothesis":"A nonliving root fragment could show a transient increase in electrical conductivity during drying before ion precipitation.","test":"Measure concentration and conductivity.","contrary_result":"Conductivity decreases immediately.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0483","id":"S8-0483","volume":"900v8","title":"A seed hair array could shed large droplets while retaining small droplets through collective bending.","prediction":"A seed hair array could shed large droplets while retaining small droplets through collective bending.","test":"Measure bending and release.","contrary":"Retention follows contact area only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0483","hypothesis":"A seed hair array could shed large droplets while retaining small droplets through collective bending.","test":"Measure bending and release.","contrary_result":"Retention follows contact area only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0484","id":"S8-0484","volume":"900v8","title":"A detached leaf could localize a prior mechanical bruise through thermal-noise decorrelation before discoloration.","prediction":"A detached leaf could localize a prior mechanical bruise through thermal-noise decorrelation before discoloration.","test":"Measure structure and thermal signals.","contrary":"Discoloration appears first.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0484","hypothesis":"A detached leaf could localize a prior mechanical bruise through thermal-noise decorrelation before discoloration.","test":"Measure structure and thermal signals.","contrary_result":"Discoloration appears first.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0485","id":"S8-0485","volume":"900v8","title":"A dry moss branch could recover its original curvature after vapor uptake without recovering bending stiffness.","prediction":"A dry moss branch could recover its original curvature after vapor uptake without recovering bending stiffness.","test":"Measure water, shape and modulus.","contrary":"Shape and stiffness recover together.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0485","hypothesis":"A dry moss branch could recover its original curvature after vapor uptake without recovering bending stiffness.","test":"Measure water, shape and modulus.","contrary_result":"Shape and stiffness recover together.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0486","id":"S8-0486","volume":"900v8","title":"A natural cellulose wall could distinguish salt removal from simple rehydration through opposite creep transients.","prediction":"A natural cellulose wall could distinguish salt removal from simple rehydration through opposite creep transients.","test":"Control water activity.","contrary":"Creep follows water content only.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0486","hypothesis":"A natural cellulose wall could distinguish salt removal from simple rehydration through opposite creep transients.","test":"Control water activity.","contrary_result":"Creep follows water content only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0487","id":"S8-0487","volume":"900v8","title":"A bark chip could reverse its floating orientation before sinking through asymmetric wetting of internal layers.","prediction":"A bark chip could reverse its floating orientation before sinking through asymmetric wetting of internal layers.","test":"Track water and orientation.","contrary":"Orientation changes only after full wetting.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0487","hypothesis":"A bark chip could reverse its floating orientation before sinking through asymmetric wetting of internal layers.","test":"Track water and orientation.","contrary_result":"Orientation changes only after full wetting.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0488","id":"S8-0488","volume":"900v8","title":"A plant wax coating could retain pressure-cycle history in its later contact-line fluctuations without permanent roughness change.","prediction":"A plant wax coating could retain pressure-cycle history in its later contact-line fluctuations without permanent roughness change.","test":"Measure roughness and droplet motion.","contrary":"Fluctuations depend only on current surface state.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0488","hypothesis":"A plant wax coating could retain pressure-cycle history in its later contact-line fluctuations without permanent roughness change.","test":"Measure roughness and droplet motion.","contrary_result":"Fluctuations depend only on current surface state.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0489","id":"S8-0489","volume":"900v8","title":"A seed surface could reduce freezing variability after one nonfreezing dew cycle.","prediction":"A seed surface could reduce freezing variability after one nonfreezing dew cycle.","test":"Measure onset distributions.","contrary":"Variance changes only with mean onset.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0489","hypothesis":"A seed surface could reduce freezing variability after one nonfreezing dew cycle.","test":"Measure onset distributions.","contrary_result":"Variance changes only with mean onset.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0490","id":"S8-0490","volume":"900v8","title":"A detached reed could distinguish internal condensation from external wetting through opposite torsional frequency shifts.","prediction":"A detached reed could distinguish internal condensation from external wetting through opposite torsional frequency shifts.","test":"Wet regions separately.","contrary":"Frequency follows total water only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0490","hypothesis":"A detached reed could distinguish internal condensation from external wetting through opposite torsional frequency shifts.","test":"Wet regions separately.","contrary_result":"Frequency follows total water only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0491","id":"S8-0491","volume":"900v8","title":"A leaf skeleton could distribute a liquid pulse farther after weak cyclic tension than after static tension.","prediction":"A leaf skeleton could distribute a liquid pulse farther after weak cyclic tension than after static tension.","test":"Map liquid and strain.","contrary":"Only mean tension matters.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0491","hypothesis":"A leaf skeleton could distribute a liquid pulse farther after weak cyclic tension than after static tension.","test":"Map liquid and strain.","contrary_result":"Only mean tension matters.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0492","id":"S8-0492","volume":"900v8","title":"A moss substrate could reveal capillary bridge failure through a localized optical fluctuation before acoustic emission.","prediction":"A moss substrate could reveal capillary bridge failure through a localized optical fluctuation before acoustic emission.","test":"Synchronize imaging and sound.","contrary":"Sound always leads.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0492","hypothesis":"A moss substrate could reveal capillary bridge failure through a localized optical fluctuation before acoustic emission.","test":"Synchronize imaging and sound.","contrary_result":"Sound always leads.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0493","id":"S8-0493","volume":"900v8","title":"A nonliving wood strip could develop a reversible thermal-conductivity gradient after one-sided vapor exposure at equal mean moisture.","prediction":"A nonliving wood strip could develop a reversible thermal-conductivity gradient after one-sided vapor exposure at equal mean moisture.","test":"Measure depth profiles.","contrary":"Conductivity follows mean moisture only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0493","hypothesis":"A nonliving wood strip could develop a reversible thermal-conductivity gradient after one-sided vapor exposure at equal mean moisture.","test":"Measure depth profiles.","contrary_result":"Conductivity follows mean moisture only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0494","id":"S8-0494","volume":"900v8","title":"A seed coat could retain solvent-exchange direction in its subsequent pressure-swelling response.","prediction":"A seed coat could retain solvent-exchange direction in its subsequent pressure-swelling response.","test":"Reverse exchange histories.","contrary":"Response depends only on final solvent.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0494","hypothesis":"A seed coat could retain solvent-exchange direction in its subsequent pressure-swelling response.","test":"Reverse exchange histories.","contrary_result":"Response depends only on final solvent.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0495","id":"S8-0495","volume":"900v8","title":"A detached petal could show an intermediate rehydration state with restored color but lower-than-dry mechanical damping.","prediction":"A detached petal could show an intermediate rehydration state with restored color but lower-than-dry mechanical damping.","test":"Measure optical and modal response.","contrary":"Damping stays between endpoints.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0495","hypothesis":"A detached petal could show an intermediate rehydration state with restored color but lower-than-dry mechanical damping.","test":"Measure optical and modal response.","contrary_result":"Damping stays between endpoints.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0496","id":"S8-0496","volume":"900v8","title":"A plant pith sample could trap a gas pocket longer under gentle periodic flexure than at rest.","prediction":"A plant pith sample could trap a gas pocket longer under gentle periodic flexure than at rest.","test":"Image gas and pores.","contrary":"Flexure only accelerates escape.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0496","hypothesis":"A plant pith sample could trap a gas pocket longer under gentle periodic flexure than at rest.","test":"Image gas and pores.","contrary_result":"Flexure only accelerates escape.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0497","id":"S8-0497","volume":"900v8","title":"A natural fiber network could redirect sound around a wet region through hydration-induced tension redistribution.","prediction":"A natural fiber network could redirect sound around a wet region through hydration-induced tension redistribution.","test":"Map tension and wave paths.","contrary":"Sound follows density contrast only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0497","hypothesis":"A natural fiber network could redirect sound around a wet region through hydration-induced tension redistribution.","test":"Map tension and wave paths.","contrary_result":"Sound follows density contrast only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0498","id":"S8-0498","volume":"900v8","title":"A fallen leaf could shed a localized salt deposit by torsion before the deposit redissolves.","prediction":"A fallen leaf could shed a localized salt deposit by torsion before the deposit redissolves.","test":"Measure strain and salt state.","contrary":"Removal requires dissolution.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0498","hypothesis":"A fallen leaf could shed a localized salt deposit by torsion before the deposit redissolves.","test":"Measure strain and salt state.","contrary_result":"Removal requires dissolution.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0499","id":"S8-0499","volume":"900v8","title":"A moss surface could distinguish fog droplet velocity from total deposition through different early electrical transients.","prediction":"A moss surface could distinguish fog droplet velocity from total deposition through different early electrical transients.","test":"Match deposited mass.","contrary":"Signal depends only on mass.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0499","hypothesis":"A moss surface could distinguish fog droplet velocity from total deposition through different early electrical transients.","test":"Match deposited mass.","contrary_result":"Signal depends only on mass.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0500","id":"S8-0500","volume":"900v8","title":"A seed wing could exhibit lower aerodynamic noise after a reversible humidity gradient despite identical recovered shape.","prediction":"A seed wing could exhibit lower aerodynamic noise after a reversible humidity gradient despite identical recovered shape.","test":"Measure shape and sound.","contrary":"Noise follows shape alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0500","hypothesis":"A seed wing could exhibit lower aerodynamic noise after a reversible humidity gradient despite identical recovered shape.","test":"Measure shape and sound.","contrary_result":"Noise follows shape alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0501","id":"S8-0501","volume":"900v8","title":"A rolling crystal could dissolve faster on its trailing face because trapped liquid relaxes after contact.","prediction":"A rolling crystal could dissolve faster on its trailing face because trapped liquid relaxes after contact.","test":"Image face velocities and rotation.","contrary":"Rates follow exposed area alone.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0501","hypothesis":"A rolling crystal could dissolve faster on its trailing face because trapped liquid relaxes after contact.","test":"Image face velocities and rotation.","contrary_result":"Rates follow exposed area alone.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0501","hypothesis":"A rolling crystal could dissolve faster on its trailing face because trapped liquid relaxes after contact.","test":"Image face velocities and rotation.","contrary_result":"Rates follow exposed area alone.","status":"Untested; novelty unverified","selection_rationale":"Controlled rotation permits face-resolved dissolution measurements.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0502","id":"S8-0502","volume":"900v8","title":"A slowly oscillating bubble could stabilize a nearby liquid concentration boundary without net streaming.","prediction":"A slowly oscillating bubble could stabilize a nearby liquid concentration boundary without net streaming.","test":"Measure concentration and mean flow.","contrary":"Stabilization requires measurable mean circulation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0502","hypothesis":"A slowly oscillating bubble could stabilize a nearby liquid concentration boundary without net streaming.","test":"Measure concentration and mean flow.","contrary_result":"Stabilization requires measurable mean circulation.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0503","id":"S8-0503","volume":"900v8","title":"A tilted vapor cavity could separate thermal expansion from gas dissolution through opposite pressure curvatures.","prediction":"A tilted vapor cavity could separate thermal expansion from gas dissolution through opposite pressure curvatures.","test":"Calibrate both inputs.","contrary":"Pressure histories remain indistinguishable.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0503","hypothesis":"A tilted vapor cavity could separate thermal expansion from gas dissolution through opposite pressure curvatures.","test":"Calibrate both inputs.","contrary_result":"Pressure histories remain indistinguishable.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0504","id":"S8-0504","volume":"900v8","title":"A dense suspension could develop a temporary transparent band after a weak lateral temperature pulse.","prediction":"A dense suspension could develop a temporary transparent band after a weak lateral temperature pulse.","test":"Measure concentration and optics.","contrary":"Transparency requires particle depletion.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0504","hypothesis":"A dense suspension could develop a temporary transparent band after a weak lateral temperature pulse.","test":"Measure concentration and optics.","contrary_result":"Transparency requires particle depletion.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0505","id":"S8-0505","volume":"900v8","title":"A liquid thread could retain a pulse's sign in its breakup asymmetry after mean flow returns to zero.","prediction":"A liquid thread could retain a pulse's sign in its breakup asymmetry after mean flow returns to zero.","test":"Reverse preparation pulses.","contrary":"Breakup depends only on final shape.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0505","hypothesis":"A liquid thread could retain a pulse's sign in its breakup asymmetry after mean flow returns to zero.","test":"Reverse preparation pulses.","contrary_result":"Breakup depends only on final shape.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0506","id":"S8-0506","volume":"900v8","title":"A dissolving particle pair could rotate collectively without translating when their crystal axes differ.","prediction":"A dissolving particle pair could rotate collectively without translating when their crystal axes differ.","test":"Track axes and motion.","contrary":"Motion requires net drift.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0506","hypothesis":"A dissolving particle pair could rotate collectively without translating when their crystal axes differ.","test":"Track axes and motion.","contrary_result":"Motion requires net drift.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0507","id":"S8-0507","volume":"900v8","title":"A liquid film over a buried groove could exhibit a traveling thickness minimum under constant illumination.","prediction":"A liquid film over a buried groove could exhibit a traveling thickness minimum under constant illumination.","test":"Map thickness and temperature.","contrary":"The minimum remains stationary.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0507","hypothesis":"A liquid film over a buried groove could exhibit a traveling thickness minimum under constant illumination.","test":"Map thickness and temperature.","contrary_result":"The minimum remains stationary.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0508","id":"S8-0508","volume":"900v8","title":"A bubble's dissolution rate could decrease after a small pressure decrease because interface particles reorganize.","prediction":"A bubble's dissolution rate could decrease after a small pressure decrease because interface particles reorganize.","test":"Measure particle coverage and radius.","contrary":"Rate follows gas undersaturation only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0508","hypothesis":"A bubble's dissolution rate could decrease after a small pressure decrease because interface particles reorganize.","test":"Measure particle coverage and radius.","contrary_result":"Rate follows gas undersaturation only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0509","id":"S8-0509","volume":"900v8","title":"A thermal boundary layer could split into two propagation speeds near a reversible adsorption front.","prediction":"A thermal boundary layer could split into two propagation speeds near a reversible adsorption front.","test":"Map temperature and uptake.","contrary":"One diffusivity describes all profiles.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0509","hypothesis":"A thermal boundary layer could split into two propagation speeds near a reversible adsorption front.","test":"Map temperature and uptake.","contrary_result":"One diffusivity describes all profiles.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0510","id":"S8-0510","volume":"900v8","title":"A crystal growing in a narrow channel could periodically detach from one wall under constant supersaturation.","prediction":"A crystal growing in a narrow channel could periodically detach from one wall under constant supersaturation.","test":"Image contact and growth.","contrary":"Detachment requires changing feed.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0510","hypothesis":"A crystal growing in a narrow channel could periodically detach from one wall under constant supersaturation.","test":"Image contact and growth.","contrary_result":"Detachment requires changing feed.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0511","id":"S8-0511","volume":"900v8","title":"A charged droplet pair could exchange mass asymmetrically through vapor despite equal initial radii.","prediction":"A charged droplet pair could exchange mass asymmetrically through vapor despite equal initial radii.","test":"Measure charge and radii.","contrary":"Exchange vanishes after size matching.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0511","hypothesis":"A charged droplet pair could exchange mass asymmetrically through vapor despite equal initial radii.","test":"Measure charge and radii.","contrary_result":"Exchange vanishes after size matching.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0512","id":"S8-0512","volume":"900v8","title":"A thin oil film could redistribute neutral dust toward a cooler edge while bulk flow points inward.","prediction":"A thin oil film could redistribute neutral dust toward a cooler edge while bulk flow points inward.","test":"Map particles and velocity.","contrary":"Particles follow local flow everywhere.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0512","hypothesis":"A thin oil film could redistribute neutral dust toward a cooler edge while bulk flow points inward.","test":"Map particles and velocity.","contrary_result":"Particles follow local flow everywhere.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0513","id":"S8-0513","volume":"900v8","title":"A soft porous sphere could rebound more after partial gas dissolution than before immersion.","prediction":"A soft porous sphere could rebound more after partial gas dissolution than before immersion.","test":"Measure internal gas and impact.","contrary":"Rebound decreases monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0513","hypothesis":"A soft porous sphere could rebound more after partial gas dissolution than before immersion.","test":"Measure internal gas and impact.","contrary_result":"Rebound decreases monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0514","id":"S8-0514","volume":"900v8","title":"A salt solution jet could develop an acoustic precursor to crystallization before scattering increases.","prediction":"A salt solution jet could develop an acoustic precursor to crystallization before scattering increases.","test":"Synchronize sound and optics.","contrary":"Optical change always leads.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0514","hypothesis":"A salt solution jet could develop an acoustic precursor to crystallization before scattering increases.","test":"Synchronize sound and optics.","contrary_result":"Optical change always leads.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0515","id":"S8-0515","volume":"900v8","title":"A freely floating crystal could lock to a capillary-wave phase through dissolution-induced drag changes.","prediction":"A freely floating crystal could lock to a capillary-wave phase through dissolution-induced drag changes.","test":"Measure phase and shape.","contrary":"Locking requires mechanical trapping.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0515","hypothesis":"A freely floating crystal could lock to a capillary-wave phase through dissolution-induced drag changes.","test":"Measure phase and shape.","contrary_result":"Locking requires mechanical trapping.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0516","id":"S8-0516","volume":"900v8","title":"A liquid lens could distinguish an underlying roughness change from a thermal-conductivity change through azimuthal modes.","prediction":"A liquid lens could distinguish an underlying roughness change from a thermal-conductivity change through azimuthal modes.","test":"Calibrate substrates.","contrary":"Modes are indistinguishable.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0516","hypothesis":"A liquid lens could distinguish an underlying roughness change from a thermal-conductivity change through azimuthal modes.","test":"Calibrate substrates.","contrary_result":"Modes are indistinguishable.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0517","id":"S8-0517","volume":"900v8","title":"A heated capillary could transport a dissolved benign solute toward its cold end while solvent moves toward its hot end.","prediction":"A heated capillary could transport a dissolved benign solute toward its cold end while solvent moves toward its hot end.","test":"Measure signed fluxes.","contrary":"Both fluxes remain aligned.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0517","hypothesis":"A heated capillary could transport a dissolved benign solute toward its cold end while solvent moves toward its hot end.","test":"Measure signed fluxes.","contrary_result":"Both fluxes remain aligned.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0518","id":"S8-0518","volume":"900v8","title":"A bubble-covered wall could reduce pressure noise most at intermediate coverage.","prediction":"A bubble-covered wall could reduce pressure noise most at intermediate coverage.","test":"Measure pressure fluctuations and bubble maps.","contrary":"Noise changes monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0518","hypothesis":"A bubble-covered wall could reduce pressure noise most at intermediate coverage.","test":"Measure pressure fluctuations and bubble maps.","contrary_result":"Noise changes monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0519","id":"S8-0519","volume":"900v8","title":"A slowly draining film could recover local thickness after a weak tangential impulse without external liquid supply.","prediction":"A slowly draining film could recover local thickness after a weak tangential impulse without external liquid supply.","test":"Measure flow and thickness.","contrary":"Recovery follows ordinary leveling only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0519","hypothesis":"A slowly draining film could recover local thickness after a weak tangential impulse without external liquid supply.","test":"Measure flow and thickness.","contrary_result":"Recovery follows ordinary leveling only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0520","id":"S8-0520","volume":"900v8","title":"A floating particle raft could exhibit a finite interval of negative incremental surface tension during reversible compression.","prediction":"A floating particle raft could exhibit a finite interval of negative incremental surface tension during reversible compression.","test":"Measure stress and area.","contrary":"Incremental tension remains positive.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0520","hypothesis":"A floating particle raft could exhibit a finite interval of negative incremental surface tension during reversible compression.","test":"Measure stress and area.","contrary_result":"Incremental tension remains positive.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0521","id":"S8-0521","volume":"900v8","title":"A liquid bridge between unequal thermal conductors could reverse evaporation asymmetry during one cooling transient.","prediction":"A liquid bridge between unequal thermal conductors could reverse evaporation asymmetry during one cooling transient.","test":"Measure local flux and temperature.","contrary":"One end always dominates.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0521","hypothesis":"A liquid bridge between unequal thermal conductors could reverse evaporation asymmetry during one cooling transient.","test":"Measure local flux and temperature.","contrary_result":"One end always dominates.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0521","hypothesis":"A liquid bridge between unequal thermal conductors could reverse evaporation asymmetry during one cooling transient.","test":"Measure local flux and temperature.","contrary_result":"One end always dominates.","status":"Untested; novelty unverified","selection_rationale":"Thermometry can test an evaporation-sign reversal within one transient.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0522","id":"S8-0522","volume":"900v8","title":"A crystal dissolution plume could entrain smaller inert particles less effectively than larger particles over a finite size range.","prediction":"A crystal dissolution plume could entrain smaller inert particles less effectively than larger particles over a finite size range.","test":"Track particles and flow.","contrary":"Entrainment varies monotonically with size.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0522","hypothesis":"A crystal dissolution plume could entrain smaller inert particles less effectively than larger particles over a finite size range.","test":"Track particles and flow.","contrary_result":"Entrainment varies monotonically with size.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0523","id":"S8-0523","volume":"900v8","title":"A compliant channel could isolate two nearby droplets acoustically while permitting hydraulic interaction.","prediction":"A compliant channel could isolate two nearby droplets acoustically while permitting hydraulic interaction.","test":"Measure both coupling channels.","contrary":"Coupling strengths vary together.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0523","hypothesis":"A compliant channel could isolate two nearby droplets acoustically while permitting hydraulic interaction.","test":"Measure both coupling channels.","contrary_result":"Coupling strengths vary together.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0524","id":"S8-0524","volume":"900v8","title":"A gas pocket near a rough wall could develop rotational shape oscillations under purely normal forcing.","prediction":"A gas pocket near a rough wall could develop rotational shape oscillations under purely normal forcing.","test":"Measure full interface motion.","contrary":"Motion remains axisymmetric.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0524","hypothesis":"A gas pocket near a rough wall could develop rotational shape oscillations under purely normal forcing.","test":"Measure full interface motion.","contrary_result":"Motion remains axisymmetric.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0525","id":"S8-0525","volume":"900v8","title":"A thin evaporating film could reject a dissolved impurity from its hottest spot through concentration-dependent surface tension.","prediction":"A thin evaporating film could reject a dissolved impurity from its hottest spot through concentration-dependent surface tension.","test":"Map composition and flow.","contrary":"Impurity concentrates at the hotspot.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0525","hypothesis":"A thin evaporating film could reject a dissolved impurity from its hottest spot through concentration-dependent surface tension.","test":"Map composition and flow.","contrary_result":"Impurity concentrates at the hotspot.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0526","id":"S8-0526","volume":"900v8","title":"A rising droplet could change wake handedness after a short cooling pulse without reversing rotation.","prediction":"A rising droplet could change wake handedness after a short cooling pulse without reversing rotation.","test":"Measure temperature and vorticity.","contrary":"Wake handedness follows droplet rotation exclusively.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0526","hypothesis":"A rising droplet could change wake handedness after a short cooling pulse without reversing rotation.","test":"Measure temperature and vorticity.","contrary_result":"Wake handedness follows droplet rotation exclusively.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0527","id":"S8-0527","volume":"900v8","title":"A tapered liquid bridge could show maximum rupture resistance at a finite gas content.","prediction":"A tapered liquid bridge could show maximum rupture resistance at a finite gas content.","test":"Measure gas and rupture force.","contrary":"Resistance decreases monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0527","hypothesis":"A tapered liquid bridge could show maximum rupture resistance at a finite gas content.","test":"Measure gas and rupture force.","contrary_result":"Resistance decreases monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0528","id":"S8-0528","volume":"900v8","title":"A suspended liquid film could reveal a localized surface contaminant through an acoustic shadow before optical contrast.","prediction":"A suspended liquid film could reveal a localized surface contaminant through an acoustic shadow before optical contrast.","test":"Measure waves and imaging.","contrary":"Optical detection always leads.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0528","hypothesis":"A suspended liquid film could reveal a localized surface contaminant through an acoustic shadow before optical contrast.","test":"Measure waves and imaging.","contrary_result":"Optical detection always leads.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0529","id":"S8-0529","volume":"900v8","title":"A saline droplet could retain the direction of a weak electric pulse in its later crystallization ring.","prediction":"A saline droplet could retain the direction of a weak electric pulse in its later crystallization ring.","test":"Reverse pulses and remove field.","contrary":"Ring orientation becomes isotropic.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0529","hypothesis":"A saline droplet could retain the direction of a weak electric pulse in its later crystallization ring.","test":"Reverse pulses and remove field.","contrary_result":"Ring orientation becomes isotropic.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0530","id":"S8-0530","volume":"900v8","title":"A liquid-filled elastic corner could emit a secondary pressure pulse as its contact line depins.","prediction":"A liquid-filled elastic corner could emit a secondary pressure pulse as its contact line depins.","test":"Measure pressure and interface.","contrary":"Secondary pulses require inlet forcing.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0530","hypothesis":"A liquid-filled elastic corner could emit a secondary pressure pulse as its contact line depins.","test":"Measure pressure and interface.","contrary_result":"Secondary pulses require inlet forcing.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0531","id":"S8-0531","volume":"900v8","title":"A porous coating could separate gas-bubble passage from dissolved-gas passage through opposite thermal responses.","prediction":"A porous coating could separate gas-bubble passage from dissolved-gas passage through opposite thermal responses.","test":"Induce each independently.","contrary":"Responses follow total gas only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0531","hypothesis":"A porous coating could separate gas-bubble passage from dissolved-gas passage through opposite thermal responses.","test":"Induce each independently.","contrary_result":"Responses follow total gas only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0532","id":"S8-0532","volume":"900v8","title":"A dissolving rough surface could become hydraulically smoother before its geometric roughness decreases.","prediction":"A dissolving rough surface could become hydraulically smoother before its geometric roughness decreases.","test":"Measure flow drag and topography.","contrary":"Drag follows geometric roughness directly.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0532","hypothesis":"A dissolving rough surface could become hydraulically smoother before its geometric roughness decreases.","test":"Measure flow drag and topography.","contrary_result":"Drag follows geometric roughness directly.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0533","id":"S8-0533","volume":"900v8","title":"A two-layer liquid could develop a transient interfacial temperature maximum during uniform cooling.","prediction":"A two-layer liquid could develop a transient interfacial temperature maximum during uniform cooling.","test":"Measure both depth profiles.","contrary":"Temperatures remain monotonic with depth.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0533","hypothesis":"A two-layer liquid could develop a transient interfacial temperature maximum during uniform cooling.","test":"Measure both depth profiles.","contrary_result":"Temperatures remain monotonic with depth.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0534","id":"S8-0534","volume":"900v8","title":"A bubble train could narrow its spacing distribution through thermal coupling without changing mean gas flow.","prediction":"A bubble train could narrow its spacing distribution through thermal coupling without changing mean gas flow.","test":"Measure spacing and temperature.","contrary":"Regularization requires flow-rate modulation.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0534","hypothesis":"A bubble train could narrow its spacing distribution through thermal coupling without changing mean gas flow.","test":"Measure spacing and temperature.","contrary_result":"Regularization requires flow-rate modulation.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0535","id":"S8-0535","volume":"900v8","title":"A liquid droplet could support a long-lived internal composition vortex after external rotation stops.","prediction":"A liquid droplet could support a long-lived internal composition vortex after external rotation stops.","test":"Map composition and velocity.","contrary":"Composition follows rapidly decaying bulk rotation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0535","hypothesis":"A liquid droplet could support a long-lived internal composition vortex after external rotation stops.","test":"Map composition and velocity.","contrary_result":"Composition follows rapidly decaying bulk rotation.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0536","id":"S8-0536","volume":"900v8","title":"A soft particle could expel a dissolved tracer preferentially opposite its compression direction.","prediction":"A soft particle could expel a dissolved tracer preferentially opposite its compression direction.","test":"Measure deformation and effluent.","contrary":"Release is isotropic after geometry correction.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0536","hypothesis":"A soft particle could expel a dissolved tracer preferentially opposite its compression direction.","test":"Measure deformation and effluent.","contrary_result":"Release is isotropic after geometry correction.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0537","id":"S8-0537","volume":"900v8","title":"A surface wave could move a floating crystal toward a pressure node through facet-specific dissolution.","prediction":"A surface wave could move a floating crystal toward a pressure node through facet-specific dissolution.","test":"Measure shape and drift.","contrary":"Motion is explained by ordinary wave force.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0537","hypothesis":"A surface wave could move a floating crystal toward a pressure node through facet-specific dissolution.","test":"Measure shape and drift.","contrary_result":"Motion is explained by ordinary wave force.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0538","id":"S8-0538","volume":"900v8","title":"A liquid annulus could retain a clockwise forcing history in its subsequent radial drainage.","prediction":"A liquid annulus could retain a clockwise forcing history in its subsequent radial drainage.","test":"Reverse preparation rotation.","contrary":"Drainage depends only on final shape.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0538","hypothesis":"A liquid annulus could retain a clockwise forcing history in its subsequent radial drainage.","test":"Reverse preparation rotation.","contrary_result":"Drainage depends only on final shape.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0539","id":"S8-0539","volume":"900v8","title":"A capillary meniscus could detect nearby solid creep through increasing contact-line intermittency.","prediction":"A capillary meniscus could detect nearby solid creep through increasing contact-line intermittency.","test":"Measure substrate strain and line motion.","contrary":"Intermittency follows humidity drift only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0539","hypothesis":"A capillary meniscus could detect nearby solid creep through increasing contact-line intermittency.","test":"Measure substrate strain and line motion.","contrary_result":"Intermittency follows humidity drift only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0540","id":"S8-0540","volume":"900v8","title":"A concentrated solution could show an apparent viscosity minimum during a temperature reversal before composition changes.","prediction":"A concentrated solution could show an apparent viscosity minimum during a temperature reversal before composition changes.","test":"Measure rheology and temperature.","contrary":"Viscosity follows instantaneous temperature only.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0540","hypothesis":"A concentrated solution could show an apparent viscosity minimum during a temperature reversal before composition changes.","test":"Measure rheology and temperature.","contrary_result":"Viscosity follows instantaneous temperature only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0541","id":"S8-0541","volume":"900v8","title":"A liquid interface could divert heat around a mechanically stressed region through altered surface transport.","prediction":"A liquid interface could divert heat around a mechanically stressed region through altered surface transport.","test":"Map stress and heat.","contrary":"Diversion requires bulk flow.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0541","hypothesis":"A liquid interface could divert heat around a mechanically stressed region through altered surface transport.","test":"Map stress and heat.","contrary_result":"Diversion requires bulk flow.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0542","id":"S8-0542","volume":"900v8","title":"A particle cluster could trap a vapor pocket more reliably after a brief expansion than after direct compression.","prediction":"A particle cluster could trap a vapor pocket more reliably after a brief expansion than after direct compression.","test":"Measure preparation and trapping probability.","contrary":"Only final pore volume matters.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0542","hypothesis":"A particle cluster could trap a vapor pocket more reliably after a brief expansion than after direct compression.","test":"Measure preparation and trapping probability.","contrary_result":"Only final pore volume matters.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0543","id":"S8-0543","volume":"900v8","title":"A thin film could distinguish a dissolved-gas pulse from a temperature pulse through opposite thickness-wave propagation.","prediction":"A thin film could distinguish a dissolved-gas pulse from a temperature pulse through opposite thickness-wave propagation.","test":"Calibrate inputs separately.","contrary":"Both waves travel identically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0543","hypothesis":"A thin film could distinguish a dissolved-gas pulse from a temperature pulse through opposite thickness-wave propagation.","test":"Calibrate inputs separately.","contrary_result":"Both waves travel identically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0544","id":"S8-0544","volume":"900v8","title":"A dissolving crystal could develop an internal acoustic resonance that ends before its hollow cavity opens.","prediction":"A dissolving crystal could develop an internal acoustic resonance that ends before its hollow cavity opens.","test":"Measure spectra and imaging.","contrary":"Resonance appears only after opening.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0544","hypothesis":"A dissolving crystal could develop an internal acoustic resonance that ends before its hollow cavity opens.","test":"Measure spectra and imaging.","contrary_result":"Resonance appears only after opening.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0545","id":"S8-0545","volume":"900v8","title":"A rising bubble could release attached particles preferentially at a wake transition rather than maximum acceleration.","prediction":"A rising bubble could release attached particles preferentially at a wake transition rather than maximum acceleration.","test":"Measure flow and detachment.","contrary":"Acceleration alone predicts release.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0545","hypothesis":"A rising bubble could release attached particles preferentially at a wake transition rather than maximum acceleration.","test":"Measure flow and detachment.","contrary_result":"Acceleration alone predicts release.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0546","id":"S8-0546","volume":"900v8","title":"A liquid bridge could resist coalescence with an approaching drop through delayed substrate deformation.","prediction":"A liquid bridge could resist coalescence with an approaching drop through delayed substrate deformation.","test":"Measure wall and liquid.","contrary":"Resistance requires a chemical barrier.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0546","hypothesis":"A liquid bridge could resist coalescence with an approaching drop through delayed substrate deformation.","test":"Measure wall and liquid.","contrary_result":"Resistance requires a chemical barrier.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0547","id":"S8-0547","volume":"900v8","title":"A thermal pulse could temporarily reduce dispersion in a flowing suspension by aligning particle rotations.","prediction":"A thermal pulse could temporarily reduce dispersion in a flowing suspension by aligning particle rotations.","test":"Measure trajectories and temperature.","contrary":"Dispersion increases with heating.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0547","hypothesis":"A thermal pulse could temporarily reduce dispersion in a flowing suspension by aligning particle rotations.","test":"Measure trajectories and temperature.","contrary_result":"Dispersion increases with heating.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0548","id":"S8-0548","volume":"900v8","title":"A gas-saturated liquid could develop a localized refractive-index halo before visible bubble nucleation.","prediction":"A gas-saturated liquid could develop a localized refractive-index halo before visible bubble nucleation.","test":"Measure index and bubbles.","contrary":"Halo follows visible bubbles only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0548","hypothesis":"A gas-saturated liquid could develop a localized refractive-index halo before visible bubble nucleation.","test":"Measure index and bubbles.","contrary_result":"Halo follows visible bubbles only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0549","id":"S8-0549","volume":"900v8","title":"A draining liquid film could emit a torsional acoustic signal when its last connected path breaks.","prediction":"A draining liquid film could emit a torsional acoustic signal when its last connected path breaks.","test":"Measure connectivity and modes.","contrary":"Signal requires substrate fracture.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0549","hypothesis":"A draining liquid film could emit a torsional acoustic signal when its last connected path breaks.","test":"Measure connectivity and modes.","contrary_result":"Signal requires substrate fracture.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0550","id":"S8-0550","volume":"900v8","title":"A hollow crystal could exchange solute through oscillating internal convection under steady external conditions.","prediction":"A hollow crystal could exchange solute through oscillating internal convection under steady external conditions.","test":"Map internal concentration and velocity.","contrary":"Exchange approaches equilibrium monotonically.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0550","hypothesis":"A hollow crystal could exchange solute through oscillating internal convection under steady external conditions.","test":"Map internal concentration and velocity.","contrary_result":"Exchange approaches equilibrium monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0551","id":"S8-0551","volume":"900v8","title":"A partially wet particle could distinguish vapor-pressure change from liquid-pressure change through opposite rotational responses.","prediction":"A partially wet particle could distinguish vapor-pressure change from liquid-pressure change through opposite rotational responses.","test":"Calibrate inputs.","contrary":"Rotation depends only on net force.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0551","hypothesis":"A partially wet particle could distinguish vapor-pressure change from liquid-pressure change through opposite rotational responses.","test":"Calibrate inputs.","contrary_result":"Rotation depends only on net force.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0552","id":"S8-0552","volume":"900v8","title":"A rough liquid channel could transport a concentration pulse faster after weak transverse oscillation without increasing mean flow.","prediction":"A rough liquid channel could transport a concentration pulse faster after weak transverse oscillation without increasing mean flow.","test":"Measure tracer and flow.","contrary":"Transit time follows flow only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0552","hypothesis":"A rough liquid channel could transport a concentration pulse faster after weak transverse oscillation without increasing mean flow.","test":"Measure tracer and flow.","contrary_result":"Transit time follows flow only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0553","id":"S8-0553","volume":"900v8","title":"A liquid-shell particle could develop greater effective stiffness during slow core dissolution.","prediction":"A liquid-shell particle could develop greater effective stiffness during slow core dissolution.","test":"Measure shape and mechanical response.","contrary":"Stiffness decreases monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0553","hypothesis":"A liquid-shell particle could develop greater effective stiffness during slow core dissolution.","test":"Measure shape and mechanical response.","contrary_result":"Stiffness decreases monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0554","id":"S8-0554","volume":"900v8","title":"A condensation front could leave a delayed acoustic grating in a flexible substrate after droplets merge.","prediction":"A condensation front could leave a delayed acoustic grating in a flexible substrate after droplets merge.","test":"Map deformation and wave scattering.","contrary":"Grating vanishes after coalescence.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0554","hypothesis":"A condensation front could leave a delayed acoustic grating in a flexible substrate after droplets merge.","test":"Map deformation and wave scattering.","contrary_result":"Grating vanishes after coalescence.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0555","id":"S8-0555","volume":"900v8","title":"A levitated droplet could retain an electric-field rotation's direction in its post-field evaporation pattern.","prediction":"A levitated droplet could retain an electric-field rotation's direction in its post-field evaporation pattern.","test":"Reverse field rotation.","contrary":"Pattern depends only on deposited energy.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0555","hypothesis":"A levitated droplet could retain an electric-field rotation's direction in its post-field evaporation pattern.","test":"Reverse field rotation.","contrary_result":"Pattern depends only on deposited energy.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0556","id":"S8-0556","volume":"900v8","title":"A mixed liquid could exhibit a transient reversal of thermal expansion during a composition-relaxation step.","prediction":"A mixed liquid could exhibit a transient reversal of thermal expansion during a composition-relaxation step.","test":"Measure volume, temperature and composition.","contrary":"Expansion coefficient keeps one sign.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0556","hypothesis":"A mixed liquid could exhibit a transient reversal of thermal expansion during a composition-relaxation step.","test":"Measure volume, temperature and composition.","contrary_result":"Expansion coefficient keeps one sign.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0557","id":"S8-0557","volume":"900v8","title":"A bubble near a dissolving facet could migrate away from increasing solute concentration despite unchanged wettability.","prediction":"A bubble near a dissolving facet could migrate away from increasing solute concentration despite unchanged wettability.","test":"Measure gradients and motion.","contrary":"Motion follows local flow alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0557","hypothesis":"A bubble near a dissolving facet could migrate away from increasing solute concentration despite unchanged wettability.","test":"Measure gradients and motion.","contrary_result":"Motion follows local flow alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0558","id":"S8-0558","volume":"900v8","title":"A thin liquid membrane could suppress a pressure pulse by converting it into delayed surface rotation.","prediction":"A thin liquid membrane could suppress a pressure pulse by converting it into delayed surface rotation.","test":"Measure pressure and angular flow.","contrary":"Suppression requires viscous dissipation only.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0558","hypothesis":"A thin liquid membrane could suppress a pressure pulse by converting it into delayed surface rotation.","test":"Measure pressure and angular flow.","contrary_result":"Suppression requires viscous dissipation only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0559","id":"S8-0559","volume":"900v8","title":"A flowing emulsion could preserve a shear pulse's duration in its later droplet-deformation distribution.","prediction":"A flowing emulsion could preserve a shear pulse's duration in its later droplet-deformation distribution.","test":"Match total strain.","contrary":"Distribution depends only on strain.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0559","hypothesis":"A flowing emulsion could preserve a shear pulse's duration in its later droplet-deformation distribution.","test":"Match total strain.","contrary_result":"Distribution depends only on strain.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0560","id":"S8-0560","volume":"900v8","title":"A particle raft could release trapped liquid in synchronized bursts under constant load.","prediction":"A particle raft could release trapped liquid in synchronized bursts under constant load.","test":"Measure liquid and particle motion.","contrary":"Release remains smooth.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0560","hypothesis":"A particle raft could release trapped liquid in synchronized bursts under constant load.","test":"Measure liquid and particle motion.","contrary_result":"Release remains smooth.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0561","id":"S8-0561","volume":"900v8","title":"A sloped meniscus could concentrate a neutral solute at an interior point rather than either contact line.","prediction":"A sloped meniscus could concentrate a neutral solute at an interior point rather than either contact line.","test":"Map composition and circulation.","contrary":"Maximum occurs only at edges.","layers":[1,2],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0561","hypothesis":"A sloped meniscus could concentrate a neutral solute at an interior point rather than either contact line.","test":"Map composition and circulation.","contrary_result":"Maximum occurs only at edges.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0561","hypothesis":"A sloped meniscus could concentrate a neutral solute at an interior point rather than either contact line.","test":"Map composition and circulation.","contrary_result":"Maximum occurs only at edges.","status":"Untested; novelty unverified","selection_rationale":"Spatial concentration measurements challenge edge-only enrichment.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0562","id":"S8-0562","volume":"900v8","title":"A cold liquid bridge could warm locally during unloading through reversible adsorption heat.","prediction":"A cold liquid bridge could warm locally during unloading through reversible adsorption heat.","test":"Measure heat and uptake.","contrary":"Temperature follows mechanical work alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0562","hypothesis":"A cold liquid bridge could warm locally during unloading through reversible adsorption heat.","test":"Measure heat and uptake.","contrary_result":"Temperature follows mechanical work alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0563","id":"S8-0563","volume":"900v8","title":"A suspended soft grain could distinguish extensional from shear flow through delayed shape-mode phase.","prediction":"A suspended soft grain could distinguish extensional from shear flow through delayed shape-mode phase.","test":"Apply matched stress amplitudes.","contrary":"Phases depend only on stress magnitude.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0563","hypothesis":"A suspended soft grain could distinguish extensional from shear flow through delayed shape-mode phase.","test":"Apply matched stress amplitudes.","contrary_result":"Phases depend only on stress magnitude.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0564","id":"S8-0564","volume":"900v8","title":"A liquid coating could heal a shallow thermal hotspot through spontaneous local thickening despite lower local viscosity.","prediction":"A liquid coating could heal a shallow thermal hotspot through spontaneous local thickening despite lower local viscosity.","test":"Measure thickness and temperature.","contrary":"Hotspots always thin the coating.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0564","hypothesis":"A liquid coating could heal a shallow thermal hotspot through spontaneous local thickening despite lower local viscosity.","test":"Measure thickness and temperature.","contrary_result":"Hotspots always thin the coating.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0565","id":"S8-0565","volume":"900v8","title":"A pair of dissolving droplets could exchange their dominant acoustic modes before their radii cross.","prediction":"A pair of dissolving droplets could exchange their dominant acoustic modes before their radii cross.","test":"Measure spectra and size.","contrary":"Mode ordering follows radius only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0565","hypothesis":"A pair of dissolving droplets could exchange their dominant acoustic modes before their radii cross.","test":"Measure spectra and size.","contrary_result":"Mode ordering follows radius only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0566","id":"S8-0566","volume":"900v8","title":"A liquid-filled rough cavity could reveal the direction of a pressure ramp through different late-time microstreaming.","prediction":"A liquid-filled rough cavity could reveal the direction of a pressure ramp through different late-time microstreaming.","test":"Reverse ramps.","contrary":"Streaming depends only on final pressure.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0566","hypothesis":"A liquid-filled rough cavity could reveal the direction of a pressure ramp through different late-time microstreaming.","test":"Reverse ramps.","contrary_result":"Streaming depends only on final pressure.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0567","id":"S8-0567","volume":"900v8","title":"A porous membrane could suppress gas nucleation by draining only its most compliant pores.","prediction":"A porous membrane could suppress gas nucleation by draining only its most compliant pores.","test":"Measure pore motion and bubbles.","contrary":"Suppression requires complete drying.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0567","hypothesis":"A porous membrane could suppress gas nucleation by draining only its most compliant pores.","test":"Measure pore motion and bubbles.","contrary_result":"Suppression requires complete drying.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0568","id":"S8-0568","volume":"900v8","title":"A surface-tension gradient could stabilize a normally unstable droplet orientation against buoyancy.","prediction":"A surface-tension gradient could stabilize a normally unstable droplet orientation against buoyancy.","test":"Measure orientation and surface chemistry.","contrary":"Stability requires external mechanical support.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0568","hypothesis":"A surface-tension gradient could stabilize a normally unstable droplet orientation against buoyancy.","test":"Measure orientation and surface chemistry.","contrary_result":"Stability requires external mechanical support.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0569","id":"S8-0569","volume":"900v8","title":"A falling liquid thread could retain a weak upstream vibration's polarization after its amplitude falls below optical resolution.","prediction":"A falling liquid thread could retain a weak upstream vibration's polarization after its amplitude falls below optical resolution.","test":"Measure downstream phase correlations.","contrary":"Polarization correlations vanish with amplitude.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0569","hypothesis":"A falling liquid thread could retain a weak upstream vibration's polarization after its amplitude falls below optical resolution.","test":"Measure downstream phase correlations.","contrary_result":"Polarization correlations vanish with amplitude.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0570","id":"S8-0570","volume":"900v8","title":"A particle-coated interface could show a narrow loading-rate interval of enhanced acoustic transmission.","prediction":"A particle-coated interface could show a narrow loading-rate interval of enhanced acoustic transmission.","test":"Sweep rates and measure contacts.","contrary":"Transmission varies monotonically.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0570","hypothesis":"A particle-coated interface could show a narrow loading-rate interval of enhanced acoustic transmission.","test":"Sweep rates and measure contacts.","contrary_result":"Transmission varies monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0571","id":"S8-0571","volume":"900v8","title":"A dissolving crystal could create a local concentration minimum behind its own advected wake.","prediction":"A dissolving crystal could create a local concentration minimum behind its own advected wake.","test":"Map three-dimensional concentration.","contrary":"Concentration decreases monotonically downstream.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0571","hypothesis":"A dissolving crystal could create a local concentration minimum behind its own advected wake.","test":"Map three-dimensional concentration.","contrary_result":"Concentration decreases monotonically downstream.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0572","id":"S8-0572","volume":"900v8","title":"A soft channel junction could sort equal-size droplets by internal circulation direction.","prediction":"A soft channel junction could sort equal-size droplets by internal circulation direction.","test":"Track circulation and branch choices.","contrary":"Sorting follows size only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0572","hypothesis":"A soft channel junction could sort equal-size droplets by internal circulation direction.","test":"Track circulation and branch choices.","contrary_result":"Sorting follows size only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0573","id":"S8-0573","volume":"900v8","title":"A thin evaporating liquid layer could develop a reversible band of negative thermal phase lag.","prediction":"A thin evaporating liquid layer could develop a reversible band of negative thermal phase lag.","test":"Measure phase against calibrated heating.","contrary":"All apparent lead comes from sensor delay.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0573","hypothesis":"A thin evaporating liquid layer could develop a reversible band of negative thermal phase lag.","test":"Measure phase against calibrated heating.","contrary_result":"All apparent lead comes from sensor delay.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0574","id":"S8-0574","volume":"900v8","title":"A gas pocket could maintain a pressure difference after liquid pressure equilibrates through interfacial adsorption stress.","prediction":"A gas pocket could maintain a pressure difference after liquid pressure equilibrates through interfacial adsorption stress.","test":"Measure both pressures and uptake.","contrary":"Difference vanishes with liquid equilibration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0574","hypothesis":"A gas pocket could maintain a pressure difference after liquid pressure equilibrates through interfacial adsorption stress.","test":"Measure both pressures and uptake.","contrary_result":"Difference vanishes with liquid equilibration.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0575","id":"S8-0575","volume":"900v8","title":"A colloidal droplet could retain a cooling-ramp curvature in its final particle-orientation field.","prediction":"A colloidal droplet could retain a cooling-ramp curvature in its final particle-orientation field.","test":"Match endpoints and duration.","contrary":"Orientation depends only on final concentration.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0575","hypothesis":"A colloidal droplet could retain a cooling-ramp curvature in its final particle-orientation field.","test":"Match endpoints and duration.","contrary_result":"Orientation depends only on final concentration.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0576","id":"S8-0576","volume":"900v8","title":"A liquid contact could transmit mechanical torque more efficiently after a brief pressure release.","prediction":"A liquid contact could transmit mechanical torque more efficiently after a brief pressure release.","test":"Measure torque and interface.","contrary":"Torque follows contact area monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0576","hypothesis":"A liquid contact could transmit mechanical torque more efficiently after a brief pressure release.","test":"Measure torque and interface.","contrary_result":"Torque follows contact area monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0577","id":"S8-0577","volume":"900v8","title":"A moving freezing front could separate equal-size particles by internal porosity through differential liquid expulsion.","prediction":"A moving freezing front could separate equal-size particles by internal porosity through differential liquid expulsion.","test":"Track particles and gas.","contrary":"Sorting follows density only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0577","hypothesis":"A moving freezing front could separate equal-size particles by internal porosity through differential liquid expulsion.","test":"Track particles and gas.","contrary_result":"Sorting follows density only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0578","id":"S8-0578","volume":"900v8","title":"A thin gas film could become mechanically quieter when its thermal gradient increases at fixed mean temperature.","prediction":"A thin gas film could become mechanically quieter when its thermal gradient increases at fixed mean temperature.","test":"Measure fluctuations and flow.","contrary":"Noise rises monotonically.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0578","hypothesis":"A thin gas film could become mechanically quieter when its thermal gradient increases at fixed mean temperature.","test":"Measure fluctuations and flow.","contrary_result":"Noise rises monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0579","id":"S8-0579","volume":"900v8","title":"A suspended mineral grain could reveal dissolved-gas loss through a change in rotational diffusion before buoyant mass changes.","prediction":"A suspended mineral grain could reveal dissolved-gas loss through a change in rotational diffusion before buoyant mass changes.","test":"Measure both with stated sensitivity.","contrary":"Mass detects loss first.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0579","hypothesis":"A suspended mineral grain could reveal dissolved-gas loss through a change in rotational diffusion before buoyant mass changes.","test":"Measure both with stated sensitivity.","contrary_result":"Mass detects loss first.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0580","id":"S8-0580","volume":"900v8","title":"A liquid bridge could collapse asymmetrically after symmetric loading because its two adsorption relaxation times differ.","prediction":"A liquid bridge could collapse asymmetrically after symmetric loading because its two adsorption relaxation times differ.","test":"Measure local coverage and rupture.","contrary":"Asymmetry requires geometric mismatch.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0580","hypothesis":"A liquid bridge could collapse asymmetrically after symmetric loading because its two adsorption relaxation times differ.","test":"Measure local coverage and rupture.","contrary_result":"Asymmetry requires geometric mismatch.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0581","id":"S8-0581","volume":"900v8","title":"A dense droplet array could transport a composition disturbance sideways through vapor exchange without net airflow.","prediction":"A dense droplet array could transport a composition disturbance sideways through vapor exchange without net airflow.","test":"Map composition and flow.","contrary":"Transport requires bulk airflow.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0581","hypothesis":"A dense droplet array could transport a composition disturbance sideways through vapor exchange without net airflow.","test":"Map composition and flow.","contrary_result":"Transport requires bulk airflow.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0581","hypothesis":"A dense droplet array could transport a composition disturbance sideways through vapor exchange without net airflow.","test":"Map composition and flow.","contrary_result":"Transport requires bulk airflow.","status":"Untested; novelty unverified","selection_rationale":"Sealed droplet arrays allow vapor coupling without imposed airflow.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0582","id":"S8-0582","volume":"900v8","title":"A soft particle could recover volume before recovering internal pore connectivity after decompression.","prediction":"A soft particle could recover volume before recovering internal pore connectivity after decompression.","test":"Measure volume and tracer paths.","contrary":"Connectivity recovers first.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0582","hypothesis":"A soft particle could recover volume before recovering internal pore connectivity after decompression.","test":"Measure volume and tracer paths.","contrary_result":"Connectivity recovers first.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0583","id":"S8-0583","volume":"900v8","title":"A liquid interface could show a temporary decrease in wave-scattering intensity as a contaminant front crosses.","prediction":"A liquid interface could show a temporary decrease in wave-scattering intensity as a contaminant front crosses.","test":"Measure coverage and spectra.","contrary":"Scattering rises monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0583","hypothesis":"A liquid interface could show a temporary decrease in wave-scattering intensity as a contaminant front crosses.","test":"Measure coverage and spectra.","contrary_result":"Scattering rises monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0584","id":"S8-0584","volume":"900v8","title":"A falling bubble could retain a preceding pressure oscillation's phase in its first wake instability.","prediction":"A falling bubble could retain a preceding pressure oscillation's phase in its first wake instability.","test":"Control phase at release.","contrary":"Instability is phase independent.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0584","hypothesis":"A falling bubble could retain a preceding pressure oscillation's phase in its first wake instability.","test":"Control phase at release.","contrary_result":"Instability is phase independent.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0585","id":"S8-0585","volume":"900v8","title":"A dissolving mineral plate could generate alternating concentration plumes through elastic curvature feedback.","prediction":"A dissolving mineral plate could generate alternating concentration plumes through elastic curvature feedback.","test":"Measure curvature and plumes.","contrary":"Alternation requires feed fluctuations.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0585","hypothesis":"A dissolving mineral plate could generate alternating concentration plumes through elastic curvature feedback.","test":"Measure curvature and plumes.","contrary_result":"Alternation requires feed fluctuations.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0586","id":"S8-0586","volume":"900v8","title":"A thin film could route a heat pulse around a dry island through edge circulation rather than conduction.","prediction":"A thin film could route a heat pulse around a dry island through edge circulation rather than conduction.","test":"Map flow and heat.","contrary":"Routing persists when circulation is suppressed.","layers":[1],"categories":["physical","energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0586","hypothesis":"A thin film could route a heat pulse around a dry island through edge circulation rather than conduction.","test":"Map flow and heat.","contrary_result":"Routing persists when circulation is suppressed.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0587","id":"S8-0587","volume":"900v8","title":"A vapor pocket could distinguish dissolved-salt change from temperature change through opposite shape-noise skewness.","prediction":"A vapor pocket could distinguish dissolved-salt change from temperature change through opposite shape-noise skewness.","test":"Calibrate separately.","contrary":"Skewness follows pressure only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0587","hypothesis":"A vapor pocket could distinguish dissolved-salt change from temperature change through opposite shape-noise skewness.","test":"Calibrate separately.","contrary_result":"Skewness follows pressure only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0588","id":"S8-0588","volume":"900v8","title":"A compressed emulsion could display a transient increase in transparency before droplets rearrange.","prediction":"A compressed emulsion could display a transient increase in transparency before droplets rearrange.","test":"Measure optics and positions.","contrary":"Transparency changes require rearrangement.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0588","hypothesis":"A compressed emulsion could display a transient increase in transparency before droplets rearrange.","test":"Measure optics and positions.","contrary_result":"Transparency changes require rearrangement.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0589","id":"S8-0589","volume":"900v8","title":"A liquid-filled porous fiber could transport a tracer pulse uphill after a downward mechanical impulse.","prediction":"A liquid-filled porous fiber could transport a tracer pulse uphill after a downward mechanical impulse.","test":"Measure force and tracer.","contrary":"Motion follows gravity only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0589","hypothesis":"A liquid-filled porous fiber could transport a tracer pulse uphill after a downward mechanical impulse.","test":"Measure force and tracer.","contrary_result":"Motion follows gravity only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0590","id":"S8-0590","volume":"900v8","title":"A droplet's internal acoustic mode could warn of impending crystallization through spectral intermittency before average frequency shifts.","prediction":"A droplet's internal acoustic mode could warn of impending crystallization through spectral intermittency before average frequency shifts.","test":"Measure spectra and nucleation.","contrary":"Frequency shifts appear first.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0590","hypothesis":"A droplet's internal acoustic mode could warn of impending crystallization through spectral intermittency before average frequency shifts.","test":"Measure spectra and nucleation.","contrary_result":"Frequency shifts appear first.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0591","id":"S8-0591","volume":"900v8","title":"A weak surface vibration could suppress evaporation-driven particle rings without homogenizing the bulk liquid.","prediction":"A weak surface vibration could suppress evaporation-driven particle rings without homogenizing the bulk liquid.","test":"Map flow and deposition.","contrary":"Suppression requires bulk mixing.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0591","hypothesis":"A weak surface vibration could suppress evaporation-driven particle rings without homogenizing the bulk liquid.","test":"Map flow and deposition.","contrary_result":"Suppression requires bulk mixing.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0592","id":"S8-0592","volume":"900v8","title":"A liquid shell could retain an impact direction in its later gas-permeation map.","prediction":"A liquid shell could retain an impact direction in its later gas-permeation map.","test":"Reverse impacts and map exchange.","contrary":"Permeation depends only on shell thickness.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0592","hypothesis":"A liquid shell could retain an impact direction in its later gas-permeation map.","test":"Reverse impacts and map exchange.","contrary_result":"Permeation depends only on shell thickness.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0593","id":"S8-0593","volume":"900v8","title":"A heated capillary bend could support a stationary concentration wave under steady throughflow.","prediction":"A heated capillary bend could support a stationary concentration wave under steady throughflow.","test":"Map composition and velocity.","contrary":"Profiles become smoothly monotonic.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0593","hypothesis":"A heated capillary bend could support a stationary concentration wave under steady throughflow.","test":"Map composition and velocity.","contrary_result":"Profiles become smoothly monotonic.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0594","id":"S8-0594","volume":"900v8","title":"A dissolving interface could show an acoustic phase reversal before its local curvature changes sign.","prediction":"A dissolving interface could show an acoustic phase reversal before its local curvature changes sign.","test":"Measure phase and curvature.","contrary":"Phase follows curvature directly.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0594","hypothesis":"A dissolving interface could show an acoustic phase reversal before its local curvature changes sign.","test":"Measure phase and curvature.","contrary_result":"Phase follows curvature directly.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0595","id":"S8-0595","volume":"900v8","title":"A deformable bubble trap could reject an isolated large bubble while accepting a train of smaller equal-total-volume bubbles.","prediction":"A deformable bubble trap could reject an isolated large bubble while accepting a train of smaller equal-total-volume bubbles.","test":"Measure passage and wall motion.","contrary":"Only total gas volume matters.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0595","hypothesis":"A deformable bubble trap could reject an isolated large bubble while accepting a train of smaller equal-total-volume bubbles.","test":"Measure passage and wall motion.","contrary_result":"Only total gas volume matters.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0596","id":"S8-0596","volume":"900v8","title":"A fluid-filled elastic grid could transmit a pressure pulse along a path selected by pulse duration.","prediction":"A fluid-filled elastic grid could transmit a pressure pulse along a path selected by pulse duration.","test":"Sweep duration and image fields.","contrary":"Path depends only on amplitude.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0596","hypothesis":"A fluid-filled elastic grid could transmit a pressure pulse along a path selected by pulse duration.","test":"Sweep duration and image fields.","contrary_result":"Path depends only on amplitude.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0597","id":"S8-0597","volume":"900v8","title":"A particle raft could regain shear rigidity before recovering its original packing density after gentle expansion.","prediction":"A particle raft could regain shear rigidity before recovering its original packing density after gentle expansion.","test":"Measure modulus and packing.","contrary":"Rigidity follows density uniquely.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0597","hypothesis":"A particle raft could regain shear rigidity before recovering its original packing density after gentle expansion.","test":"Measure modulus and packing.","contrary_result":"Rigidity follows density uniquely.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0598","id":"S8-0598","volume":"900v8","title":"A thin liquid lens could distinguish two buried thermal defects of equal resistance through different azimuthal phase patterns.","prediction":"A thin liquid lens could distinguish two buried thermal defects of equal resistance through different azimuthal phase patterns.","test":"Use calibrated defect shapes.","contrary":"Patterns reveal resistance only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0598","hypothesis":"A thin liquid lens could distinguish two buried thermal defects of equal resistance through different azimuthal phase patterns.","test":"Use calibrated defect shapes.","contrary_result":"Patterns reveal resistance only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0599","id":"S8-0599","volume":"900v8","title":"A volatile-liquid bridge could remain stable longer after a short heating pulse than constant mean heating.","prediction":"A volatile-liquid bridge could remain stable longer after a short heating pulse than constant mean heating.","test":"Measure heat and lifetime.","contrary":"Heating always shortens lifetime proportionally.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0599","hypothesis":"A volatile-liquid bridge could remain stable longer after a short heating pulse than constant mean heating.","test":"Measure heat and lifetime.","contrary_result":"Heating always shortens lifetime proportionally.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0600","id":"S8-0600","volume":"900v8","title":"A slowly draining porous sphere could emit a discrete torsional recoil when its gas network disconnects.","prediction":"A slowly draining porous sphere could emit a discrete torsional recoil when its gas network disconnects.","test":"Measure topology and rotation.","contrary":"Recoil requires external vibration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0600","hypothesis":"A slowly draining porous sphere could emit a discrete torsional recoil when its gas network disconnects.","test":"Measure topology and rotation.","contrary_result":"Recoil requires external vibration.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0601","id":"S8-0601","volume":"900v8","title":"A brittle sheet could redirect a crack through a temporarily softened patch that rehardens before the crack arrives.","prediction":"A brittle sheet could redirect a crack through a temporarily softened patch that rehardens before the crack arrives.","test":"Measure stiffness recovery and trajectory.","contrary":"Routing requires ongoing softness.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0601","hypothesis":"A brittle sheet could redirect a crack through a temporarily softened patch that rehardens before the crack arrives.","test":"Measure stiffness recovery and trajectory.","contrary_result":"Routing requires ongoing softness.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0601","hypothesis":"A brittle sheet could redirect a crack through a temporarily softened patch that rehardens before the crack arrives.","test":"Measure stiffness recovery and trajectory.","contrary_result":"Routing requires ongoing softness.","status":"Untested; novelty unverified","selection_rationale":"Timed stiffness recovery tests a retained crack-routing effect.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0602","id":"S8-0602","volume":"900v8","title":"A granular composite could dissipate more impact energy after partial unloading than at maximum confinement.","prediction":"A granular composite could dissipate more impact energy after partial unloading than at maximum confinement.","test":"Measure force-displacement work.","contrary":"Dissipation increases monotonically with confinement.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0602","hypothesis":"A granular composite could dissipate more impact energy after partial unloading than at maximum confinement.","test":"Measure force-displacement work.","contrary_result":"Dissipation increases monotonically with confinement.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0603","id":"S8-0603","volume":"900v8","title":"A twisted crystal could reveal dislocation release through a short optical polarization pulse before permanent strain.","prediction":"A twisted crystal could reveal dislocation release through a short optical polarization pulse before permanent strain.","test":"Measure optics and strain.","contrary":"Permanent strain appears first.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0603","hypothesis":"A twisted crystal could reveal dislocation release through a short optical polarization pulse before permanent strain.","test":"Measure optics and strain.","contrary_result":"Permanent strain appears first.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0604","id":"S8-0604","volume":"900v8","title":"A porous ceramic could increase fracture resistance during initial gas adsorption without liquid condensation.","prediction":"A porous ceramic could increase fracture resistance during initial gas adsorption without liquid condensation.","test":"Measure uptake and crack growth.","contrary":"Resistance changes require condensed liquid.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0604","hypothesis":"A porous ceramic could increase fracture resistance during initial gas adsorption without liquid condensation.","test":"Measure uptake and crack growth.","contrary_result":"Resistance changes require condensed liquid.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0605","id":"S8-0605","volume":"900v8","title":"A thin metal membrane could recover bending stiffness before its residual curvature after cyclic loading.","prediction":"A thin metal membrane could recover bending stiffness before its residual curvature after cyclic loading.","test":"Measure both during recovery.","contrary":"Both recover on one trajectory.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0605","hypothesis":"A thin metal membrane could recover bending stiffness before its residual curvature after cyclic loading.","test":"Measure both during recovery.","contrary_result":"Both recover on one trajectory.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0606","id":"S8-0606","volume":"900v8","title":"A heterogeneous elastic beam could localize an impact away from its softest region through delayed internal slip.","prediction":"A heterogeneous elastic beam could localize an impact away from its softest region through delayed internal slip.","test":"Map strain and slip.","contrary":"Softest region always takes peak strain.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0606","hypothesis":"A heterogeneous elastic beam could localize an impact away from its softest region through delayed internal slip.","test":"Map strain and slip.","contrary_result":"Softest region always takes peak strain.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0607","id":"S8-0607","volume":"900v8","title":"A dry friction interface could retain the order of two normal-load pulses in its later shear threshold.","prediction":"A dry friction interface could retain the order of two normal-load pulses in its later shear threshold.","test":"Reverse pulses.","contrary":"Threshold depends only on maximum load.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0607","hypothesis":"A dry friction interface could retain the order of two normal-load pulses in its later shear threshold.","test":"Reverse pulses.","contrary_result":"Threshold depends only on maximum load.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0608","id":"S8-0608","volume":"900v8","title":"A layered crystal could show a temporary shear-modulus maximum during uniform cooling because interfaces relax unequally.","prediction":"A layered crystal could show a temporary shear-modulus maximum during uniform cooling because interfaces relax unequally.","test":"Measure layer strain and modulus.","contrary":"Modulus changes monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0608","hypothesis":"A layered crystal could show a temporary shear-modulus maximum during uniform cooling because interfaces relax unequally.","test":"Measure layer strain and modulus.","contrary_result":"Modulus changes monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0609","id":"S8-0609","volume":"900v8","title":"A hollow brittle particle could fail less readily after a small reversible internal-pressure cycle.","prediction":"A hollow brittle particle could fail less readily after a small reversible internal-pressure cycle.","test":"Measure strength and defect state.","contrary":"Pressure cycling only weakens it.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0609","hypothesis":"A hollow brittle particle could fail less readily after a small reversible internal-pressure cycle.","test":"Measure strength and defect state.","contrary_result":"Pressure cycling only weakens it.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0610","id":"S8-0610","volume":"900v8","title":"A compressed fibrous solid could transmit sound faster perpendicular to loading before density changes appreciably.","prediction":"A compressed fibrous solid could transmit sound faster perpendicular to loading before density changes appreciably.","test":"Measure tensor and density.","contrary":"Speed follows density only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0610","hypothesis":"A compressed fibrous solid could transmit sound faster perpendicular to loading before density changes appreciably.","test":"Measure tensor and density.","contrary_result":"Speed follows density only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0611","id":"S8-0611","volume":"900v8","title":"A soft inclusion could attract a crack at low propagation speed but repel it at high speed.","prediction":"A soft inclusion could attract a crack at low propagation speed but repel it at high speed.","test":"Sweep loading rate and map paths.","contrary":"Deflection sign stays constant.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0611","hypothesis":"A soft inclusion could attract a crack at low propagation speed but repel it at high speed.","test":"Sweep loading rate and map paths.","contrary_result":"Deflection sign stays constant.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0612","id":"S8-0612","volume":"900v8","title":"A thin crystal film could suppress fatigue damage through reversible domain rotation without changing mean strain.","prediction":"A thin crystal film could suppress fatigue damage through reversible domain rotation without changing mean strain.","test":"Measure domains and damage.","contrary":"Protection requires reduced strain amplitude.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0612","hypothesis":"A thin crystal film could suppress fatigue damage through reversible domain rotation without changing mean strain.","test":"Measure domains and damage.","contrary_result":"Protection requires reduced strain amplitude.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0613","id":"S8-0613","volume":"900v8","title":"A granular contact network could regain stiffness after an acoustic pulse without recovering its original topology.","prediction":"A granular contact network could regain stiffness after an acoustic pulse without recovering its original topology.","test":"Map contacts and modulus.","contrary":"Topology recovery is required.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0613","hypothesis":"A granular contact network could regain stiffness after an acoustic pulse without recovering its original topology.","test":"Map contacts and modulus.","contrary_result":"Topology recovery is required.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0614","id":"S8-0614","volume":"900v8","title":"A ceramic shell could emit a mode-specific acoustic precursor before its first internal buckling event.","prediction":"A ceramic shell could emit a mode-specific acoustic precursor before its first internal buckling event.","test":"Measure modes and imaging.","contrary":"Signals appear only after buckling.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0614","hypothesis":"A ceramic shell could emit a mode-specific acoustic precursor before its first internal buckling event.","test":"Measure modes and imaging.","contrary_result":"Signals appear only after buckling.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0615","id":"S8-0615","volume":"900v8","title":"A metal foil could have a finite waiting interval of maximum crack-growth resistance after unloading.","prediction":"A metal foil could have a finite waiting interval of maximum crack-growth resistance after unloading.","test":"Measure restart growth.","contrary":"Resistance changes monotonically with waiting.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0615","hypothesis":"A metal foil could have a finite waiting interval of maximum crack-growth resistance after unloading.","test":"Measure restart growth.","contrary_result":"Resistance changes monotonically with waiting.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0616","id":"S8-0616","volume":"900v8","title":"A porous solid could distinguish tension-induced pore opening from drying-induced pore opening through opposite nonlinear acoustic response.","prediction":"A porous solid could distinguish tension-induced pore opening from drying-induced pore opening through opposite nonlinear acoustic response.","test":"Calibrate mechanisms.","contrary":"Responses depend only on porosity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0616","hypothesis":"A porous solid could distinguish tension-induced pore opening from drying-induced pore opening through opposite nonlinear acoustic response.","test":"Calibrate mechanisms.","contrary_result":"Responses depend only on porosity.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0617","id":"S8-0617","volume":"900v8","title":"An elastic lattice could recover its shape but retain a rotated principal stiffness axis after cyclic shear.","prediction":"An elastic lattice could recover its shape but retain a rotated principal stiffness axis after cyclic shear.","test":"Measure geometry and tensor.","contrary":"Axes recover with shape.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0617","hypothesis":"An elastic lattice could recover its shape but retain a rotated principal stiffness axis after cyclic shear.","test":"Measure geometry and tensor.","contrary_result":"Axes recover with shape.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0618","id":"S8-0618","volume":"900v8","title":"A brittle coating could resist a moving crack more when its residual stress is weakly oscillated.","prediction":"A brittle coating could resist a moving crack more when its residual stress is weakly oscillated.","test":"Measure stress and crack speed.","contrary":"Oscillation only accelerates growth.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0618","hypothesis":"A brittle coating could resist a moving crack more when its residual stress is weakly oscillated.","test":"Measure stress and crack speed.","contrary_result":"Oscillation only accelerates growth.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0619","id":"S8-0619","volume":"900v8","title":"A narrow ligament could carry greater load after asymmetric rather than symmetric cooling at equal final temperature.","prediction":"A narrow ligament could carry greater load after asymmetric rather than symmetric cooling at equal final temperature.","test":"Measure residual strain and failure.","contrary":"Strength follows final temperature only.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0619","hypothesis":"A narrow ligament could carry greater load after asymmetric rather than symmetric cooling at equal final temperature.","test":"Measure residual strain and failure.","contrary_result":"Strength follows final temperature only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0620","id":"S8-0620","volume":"900v8","title":"A particle-filled elastomer could show minimum acoustic loss at intermediate particle rotation under shear.","prediction":"A particle-filled elastomer could show minimum acoustic loss at intermediate particle rotation under shear.","test":"Measure orientation and damping.","contrary":"Loss varies monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0620","hypothesis":"A particle-filled elastomer could show minimum acoustic loss at intermediate particle rotation under shear.","test":"Measure orientation and damping.","contrary_result":"Loss varies monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0621","id":"S8-0621","volume":"900v8","title":"A compressed mineral grain could reveal an internal weak plane through changing resonance mode order before visible fracture.","prediction":"A compressed mineral grain could reveal an internal weak plane through changing resonance mode order before visible fracture.","test":"Track modes and imaging.","contrary":"Modes change only after fracture.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0621","hypothesis":"A compressed mineral grain could reveal an internal weak plane through changing resonance mode order before visible fracture.","test":"Track modes and imaging.","contrary_result":"Modes change only after fracture.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0621","hypothesis":"A compressed mineral grain could reveal an internal weak plane through changing resonance mode order before visible fracture.","test":"Track modes and imaging.","contrary_result":"Modes change only after fracture.","status":"Untested; novelty unverified","selection_rationale":"Mode tracking can be compared prospectively with fracture imaging.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0622","id":"S8-0622","volume":"900v8","title":"A thin folded solid could self-localize strain into a reversible crease that protects adjacent brittle coating.","prediction":"A thin folded solid could self-localize strain into a reversible crease that protects adjacent brittle coating.","test":"Map strain and damage.","contrary":"The crease increases surrounding damage.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0622","hypothesis":"A thin folded solid could self-localize strain into a reversible crease that protects adjacent brittle coating.","test":"Map strain and damage.","contrary_result":"The crease increases surrounding damage.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0623","id":"S8-0623","volume":"900v8","title":"A dry granular layer could suppress a shear band after a brief perpendicular unloading step.","prediction":"A dry granular layer could suppress a shear band after a brief perpendicular unloading step.","test":"Image strain fields.","contrary":"Unloading only strengthens localization.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0623","hypothesis":"A dry granular layer could suppress a shear band after a brief perpendicular unloading step.","test":"Image strain fields.","contrary_result":"Unloading only strengthens localization.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0624","id":"S8-0624","volume":"900v8","title":"A hollow fiber bundle could retain impact direction through unequal internal pressure relaxation without permanent damage.","prediction":"A hollow fiber bundle could retain impact direction through unequal internal pressure relaxation without permanent damage.","test":"Measure pressure and later modes.","contrary":"Response records energy only.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0624","hypothesis":"A hollow fiber bundle could retain impact direction through unequal internal pressure relaxation without permanent damage.","test":"Measure pressure and later modes.","contrary_result":"Response records energy only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0625","id":"S8-0625","volume":"900v8","title":"A crystal interface could become acoustically stronger while mechanically weaker during reversible hydration.","prediction":"A crystal interface could become acoustically stronger while mechanically weaker during reversible hydration.","test":"Measure transmission and failure.","contrary":"Both measures change together.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0625","hypothesis":"A crystal interface could become acoustically stronger while mechanically weaker during reversible hydration.","test":"Measure transmission and failure.","contrary_result":"Both measures change together.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0626","id":"S8-0626","volume":"900v8","title":"A weakly bonded laminate could recover interfacial thermal transfer before mechanical adhesion after compression.","prediction":"A weakly bonded laminate could recover interfacial thermal transfer before mechanical adhesion after compression.","test":"Measure both channels.","contrary":"Recovery ordering is opposite.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0626","hypothesis":"A weakly bonded laminate could recover interfacial thermal transfer before mechanical adhesion after compression.","test":"Measure both channels.","contrary_result":"Recovery ordering is opposite.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0627","id":"S8-0627","volume":"900v8","title":"A tensile crack could stop temporarily at a mechanically uniform but thermally distinct inclusion.","prediction":"A tensile crack could stop temporarily at a mechanically uniform but thermally distinct inclusion.","test":"Match elastic properties and measure heat.","contrary":"Stopping requires stiffness contrast.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0627","hypothesis":"A tensile crack could stop temporarily at a mechanically uniform but thermally distinct inclusion.","test":"Match elastic properties and measure heat.","contrary_result":"Stopping requires stiffness contrast.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0628","id":"S8-0628","volume":"900v8","title":"A granular arch could switch its preferred load path after a subcritical thermal pulse at constant total load.","prediction":"A granular arch could switch its preferred load path after a subcritical thermal pulse at constant total load.","test":"Map contacts and temperature.","contrary":"Paths change only with grain displacement.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0628","hypothesis":"A granular arch could switch its preferred load path after a subcritical thermal pulse at constant total load.","test":"Map contacts and temperature.","contrary_result":"Paths change only with grain displacement.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0629","id":"S8-0629","volume":"900v8","title":"A porous metal foam could show a transient increase in elastic recovery during partial oxidation.","prediction":"A porous metal foam could show a transient increase in elastic recovery during partial oxidation.","test":"Measure oxide and work loops.","contrary":"Recovery decreases monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0629","hypothesis":"A porous metal foam could show a transient increase in elastic recovery during partial oxidation.","test":"Measure oxide and work loops.","contrary_result":"Recovery decreases monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0630","id":"S8-0630","volume":"900v8","title":"A thin plate could distinguish a hidden interface slip from a bulk modulus change through polarization of scattered waves.","prediction":"A thin plate could distinguish a hidden interface slip from a bulk modulus change through polarization of scattered waves.","test":"Calibrate defects.","contrary":"Scattering signatures coincide.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0630","hypothesis":"A thin plate could distinguish a hidden interface slip from a bulk modulus change through polarization of scattered waves.","test":"Calibrate defects.","contrary_result":"Scattering signatures coincide.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0631","id":"S8-0631","volume":"900v8","title":"An elastic shell could retain a pressure-ramp direction in its post-unloading vibration localization.","prediction":"An elastic shell could retain a pressure-ramp direction in its post-unloading vibration localization.","test":"Reverse ramps and match geometry.","contrary":"Modes depend only on final shape.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0631","hypothesis":"An elastic shell could retain a pressure-ramp direction in its post-unloading vibration localization.","test":"Reverse ramps and match geometry.","contrary_result":"Modes depend only on final shape.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0632","id":"S8-0632","volume":"900v8","title":"A brittle beam could exhibit a temperature-noise precursor to distributed damage before acoustic emission.","prediction":"A brittle beam could exhibit a temperature-noise precursor to distributed damage before acoustic emission.","test":"Measure both signals.","contrary":"Acoustic detection always leads.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0632","hypothesis":"A brittle beam could exhibit a temperature-noise precursor to distributed damage before acoustic emission.","test":"Measure both signals.","contrary_result":"Acoustic detection always leads.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0633","id":"S8-0633","volume":"900v8","title":"A mechanically jammed bed could lose shear rigidity while preserving compressive rigidity during selective pore filling.","prediction":"A mechanically jammed bed could lose shear rigidity while preserving compressive rigidity during selective pore filling.","test":"Measure both moduli.","contrary":"Both vanish together.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0633","hypothesis":"A mechanically jammed bed could lose shear rigidity while preserving compressive rigidity during selective pore filling.","test":"Measure both moduli.","contrary_result":"Both vanish together.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0634","id":"S8-0634","volume":"900v8","title":"A twisted ribbon could develop a temporary straight segment during relaxation before global untwisting.","prediction":"A twisted ribbon could develop a temporary straight segment during relaxation before global untwisting.","test":"Image local curvature.","contrary":"Curvature decays uniformly.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0634","hypothesis":"A twisted ribbon could develop a temporary straight segment during relaxation before global untwisting.","test":"Image local curvature.","contrary_result":"Curvature decays uniformly.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0635","id":"S8-0635","volume":"900v8","title":"A rough contact could show reduced friction after a rapid cooling pulse without water condensation.","prediction":"A rough contact could show reduced friction after a rapid cooling pulse without water condensation.","test":"Measure humidity and force.","contrary":"Reduction requires condensed water.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0635","hypothesis":"A rough contact could show reduced friction after a rapid cooling pulse without water condensation.","test":"Measure humidity and force.","contrary_result":"Reduction requires condensed water.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0636","id":"S8-0636","volume":"900v8","title":"A granular composite could transmit an impulse preferentially toward a previously unloaded edge.","prediction":"A granular composite could transmit an impulse preferentially toward a previously unloaded edge.","test":"Reverse conditioning edges.","contrary":"Transmission follows current preload only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0636","hypothesis":"A granular composite could transmit an impulse preferentially toward a previously unloaded edge.","test":"Reverse conditioning edges.","contrary_result":"Transmission follows current preload only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0637","id":"S8-0637","volume":"900v8","title":"A thin crystal could display a reversible fracture-resistance anisotropy under an electric field below switching threshold.","prediction":"A thin crystal could display a reversible fracture-resistance anisotropy under an electric field below switching threshold.","test":"Measure crack directions and domains.","contrary":"Anisotropy requires domain switching.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0637","hypothesis":"A thin crystal could display a reversible fracture-resistance anisotropy under an electric field below switching threshold.","test":"Measure crack directions and domains.","contrary_result":"Anisotropy requires domain switching.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0638","id":"S8-0638","volume":"900v8","title":"A hollow sphere could distinguish external abrasion from internal cracking through opposite changes in torsional quality factor.","prediction":"A hollow sphere could distinguish external abrasion from internal cracking through opposite changes in torsional quality factor.","test":"Introduce defects separately.","contrary":"Both changes have the same sign.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0638","hypothesis":"A hollow sphere could distinguish external abrasion from internal cracking through opposite changes in torsional quality factor.","test":"Introduce defects separately.","contrary_result":"Both changes have the same sign.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0639","id":"S8-0639","volume":"900v8","title":"A compressed porous slab could redistribute load before measurable macroscopic creep through contact diffusion.","prediction":"A compressed porous slab could redistribute load before measurable macroscopic creep through contact diffusion.","test":"Map contacts and strain.","contrary":"Redistribution follows bulk creep.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0639","hypothesis":"A compressed porous slab could redistribute load before measurable macroscopic creep through contact diffusion.","test":"Map contacts and strain.","contrary_result":"Redistribution follows bulk creep.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0640","id":"S8-0640","volume":"900v8","title":"A metal-coated fiber could reveal interface fatigue through a delay in thermal bending before electrical continuity changes.","prediction":"A metal-coated fiber could reveal interface fatigue through a delay in thermal bending before electrical continuity changes.","test":"Measure both channels.","contrary":"Electrical changes occur first.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0640","hypothesis":"A metal-coated fiber could reveal interface fatigue through a delay in thermal bending before electrical continuity changes.","test":"Measure both channels.","contrary_result":"Electrical changes occur first.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0641","id":"S8-0641","volume":"900v8","title":"A dry particle cluster could strengthen after losing one strategically located grain through stress redistribution.","prediction":"A dry particle cluster could strengthen after losing one strategically located grain through stress redistribution.","test":"Remove mapped grains and load.","contrary":"Any grain removal weakens it.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0641","hypothesis":"A dry particle cluster could strengthen after losing one strategically located grain through stress redistribution.","test":"Remove mapped grains and load.","contrary_result":"Any grain removal weakens it.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0641","hypothesis":"A dry particle cluster could strengthen after losing one strategically located grain through stress redistribution.","test":"Remove mapped grains and load.","contrary_result":"Any grain removal weakens it.","status":"Untested; novelty unverified","selection_rationale":"Mapped grain removal provides a direct counterintuitive strength test.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0642","id":"S8-0642","volume":"900v8","title":"A stressed crystal could concentrate absorbed water at a future slip plane before optical defect contrast.","prediction":"A stressed crystal could concentrate absorbed water at a future slip plane before optical defect contrast.","test":"Map uptake and later slip.","contrary":"Water follows existing visible defects only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0642","hypothesis":"A stressed crystal could concentrate absorbed water at a future slip plane before optical defect contrast.","test":"Map uptake and later slip.","contrary_result":"Water follows existing visible defects only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0643","id":"S8-0643","volume":"900v8","title":"A lattice beam could have a finite strain interval where its torsional stiffness rises while bending stiffness falls.","prediction":"A lattice beam could have a finite strain interval where its torsional stiffness rises while bending stiffness falls.","test":"Measure both modes.","contrary":"Both stiffnesses change together.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0643","hypothesis":"A lattice beam could have a finite strain interval where its torsional stiffness rises while bending stiffness falls.","test":"Measure both modes.","contrary_result":"Both stiffnesses change together.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0644","id":"S8-0644","volume":"900v8","title":"A brittle interface could emit a reversible electrical precursor to sliding without net charge transfer.","prediction":"A brittle interface could emit a reversible electrical precursor to sliding without net charge transfer.","test":"Measure potential and motion.","contrary":"Signals require irreversible transfer.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0644","hypothesis":"A brittle interface could emit a reversible electrical precursor to sliding without net charge transfer.","test":"Measure potential and motion.","contrary_result":"Signals require irreversible transfer.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0645","id":"S8-0645","volume":"900v8","title":"A granular pad could recover impact resilience under weak alternating magnetic alignment without compaction.","prediction":"A granular pad could recover impact resilience under weak alternating magnetic alignment without compaction.","test":"Measure density and rebound.","contrary":"Recovery requires increased density.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0645","hypothesis":"A granular pad could recover impact resilience under weak alternating magnetic alignment without compaction.","test":"Measure density and rebound.","contrary_result":"Recovery requires increased density.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0646","id":"S8-0646","volume":"900v8","title":"A thin shell could redistribute crack-driving stress through internal liquid motion faster than crack initiation.","prediction":"A thin shell could redistribute crack-driving stress through internal liquid motion faster than crack initiation.","test":"Measure fluid and strain.","contrary":"Fluid response occurs too late.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0646","hypothesis":"A thin shell could redistribute crack-driving stress through internal liquid motion faster than crack initiation.","test":"Measure fluid and strain.","contrary_result":"Fluid response occurs too late.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0647","id":"S8-0647","volume":"900v8","title":"A mineral composite could show greater thermal-shock resistance after one mild dry compression cycle.","prediction":"A mineral composite could show greater thermal-shock resistance after one mild dry compression cycle.","test":"Measure residual strain and damage.","contrary":"Compression provides no benefit.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0647","hypothesis":"A mineral composite could show greater thermal-shock resistance after one mild dry compression cycle.","test":"Measure residual strain and damage.","contrary_result":"Compression provides no benefit.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0648","id":"S8-0648","volume":"900v8","title":"A clamped film could reveal hidden residual shear through a rotation of its acoustic nodal pattern during heating.","prediction":"A clamped film could reveal hidden residual shear through a rotation of its acoustic nodal pattern during heating.","test":"Map stress and modes.","contrary":"Nodes respond only to thermal expansion.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0648","hypothesis":"A clamped film could reveal hidden residual shear through a rotation of its acoustic nodal pattern during heating.","test":"Map stress and modes.","contrary_result":"Nodes respond only to thermal expansion.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0649","id":"S8-0649","volume":"900v8","title":"A porous brittle grain could recover some stiffness after a pressure pause while its cracks remain open.","prediction":"A porous brittle grain could recover some stiffness after a pressure pause while its cracks remain open.","test":"Image cracks and resonance.","contrary":"Recovery requires crack closure.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0649","hypothesis":"A porous brittle grain could recover some stiffness after a pressure pause while its cracks remain open.","test":"Image cracks and resonance.","contrary_result":"Recovery requires crack closure.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0650","id":"S8-0650","volume":"900v8","title":"A weak adhesive joint could retain displacement-pulse spacing in its later mechanical relaxation without permanent separation.","prediction":"A weak adhesive joint could retain displacement-pulse spacing in its later mechanical relaxation without permanent separation.","test":"Match total displacement.","contrary":"Relaxation depends only on peak displacement.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0650","hypothesis":"A weak adhesive joint could retain displacement-pulse spacing in its later mechanical relaxation without permanent separation.","test":"Match total displacement.","contrary_result":"Relaxation depends only on peak displacement.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0651","id":"S8-0651","volume":"900v8","title":"A layered beam could direct a fracture pulse toward its stiffer side through delayed interfacial slip.","prediction":"A layered beam could direct a fracture pulse toward its stiffer side through delayed interfacial slip.","test":"Map waves and slip.","contrary":"Energy follows impedance alone.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0651","hypothesis":"A layered beam could direct a fracture pulse toward its stiffer side through delayed interfacial slip.","test":"Map waves and slip.","contrary_result":"Energy follows impedance alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0652","id":"S8-0652","volume":"900v8","title":"A compacted powder could reveal a buried hard inclusion through negative correlations in surface strain noise.","prediction":"A compacted powder could reveal a buried hard inclusion through negative correlations in surface strain noise.","test":"Measure inclusion and strain.","contrary":"Correlations reflect load fluctuations only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0652","hypothesis":"A compacted powder could reveal a buried hard inclusion through negative correlations in surface strain noise.","test":"Measure inclusion and strain.","contrary_result":"Correlations reflect load fluctuations only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0653","id":"S8-0653","volume":"900v8","title":"A crystal plate could undergo a reversible bending sign change during defect redistribution at constant temperature.","prediction":"A crystal plate could undergo a reversible bending sign change during defect redistribution at constant temperature.","test":"Measure defects and curvature.","contrary":"Bending changes require temperature drift.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0653","hypothesis":"A crystal plate could undergo a reversible bending sign change during defect redistribution at constant temperature.","test":"Measure defects and curvature.","contrary_result":"Bending changes require temperature drift.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0654","id":"S8-0654","volume":"900v8","title":"A hollow granular shell could support a larger load after slight internal depressurization than at equal external pressure.","prediction":"A hollow granular shell could support a larger load after slight internal depressurization than at equal external pressure.","test":"Measure contacts and failure.","contrary":"Depressurization always destabilizes it.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0654","hypothesis":"A hollow granular shell could support a larger load after slight internal depressurization than at equal external pressure.","test":"Measure contacts and failure.","contrary_result":"Depressurization always destabilizes it.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0655","id":"S8-0655","volume":"900v8","title":"A thin film could distinguish elastic recovery from adsorbate release through opposite spectral-noise phase.","prediction":"A thin film could distinguish elastic recovery from adsorbate release through opposite spectral-noise phase.","test":"Calibrate mechanisms.","contrary":"Phases coincide.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0655","hypothesis":"A thin film could distinguish elastic recovery from adsorbate release through opposite spectral-noise phase.","test":"Calibrate mechanisms.","contrary_result":"Phases coincide.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0656","id":"S8-0656","volume":"900v8","title":"A porous laminate could suppress crack branching after a short humidity pulse without reducing total crack length.","prediction":"A porous laminate could suppress crack branching after a short humidity pulse without reducing total crack length.","test":"Map cracks and water.","contrary":"Branching follows crack length only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0656","hypothesis":"A porous laminate could suppress crack branching after a short humidity pulse without reducing total crack length.","test":"Map cracks and water.","contrary_result":"Branching follows crack length only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0657","id":"S8-0657","volume":"900v8","title":"A frictional contact could develop lower restart noise after slow rather than rapid unloading at equal final force.","prediction":"A frictional contact could develop lower restart noise after slow rather than rapid unloading at equal final force.","test":"Measure packing and noise.","contrary":"Only final force matters.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0657","hypothesis":"A frictional contact could develop lower restart noise after slow rather than rapid unloading at equal final force.","test":"Measure packing and noise.","contrary_result":"Only final force matters.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0658","id":"S8-0658","volume":"900v8","title":"A dry crystal interface could temporarily strengthen during weak illumination below detectable heating.","prediction":"A dry crystal interface could temporarily strengthen during weak illumination below detectable heating.","test":"Measure temperature and shear strength.","contrary":"Strength follows temperature only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0658","hypothesis":"A dry crystal interface could temporarily strengthen during weak illumination below detectable heating.","test":"Measure temperature and shear strength.","contrary_result":"Strength follows temperature only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0659","id":"S8-0659","volume":"900v8","title":"A compliant network could redirect a load around a damaged node through reversible geometric frustration.","prediction":"A compliant network could redirect a load around a damaged node through reversible geometric frustration.","test":"Map loads and geometry.","contrary":"Damage simply reduces all load capacity.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0659","hypothesis":"A compliant network could redirect a load around a damaged node through reversible geometric frustration.","test":"Map loads and geometry.","contrary_result":"Damage simply reduces all load capacity.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0660","id":"S8-0660","volume":"900v8","title":"A brittle particle could reveal its weakest plane through acoustic polarization before any nonlinear amplitude response.","prediction":"A brittle particle could reveal its weakest plane through acoustic polarization before any nonlinear amplitude response.","test":"Measure modes and later fracture.","contrary":"Nonlinearity always detects weakness first.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0660","hypothesis":"A brittle particle could reveal its weakest plane through acoustic polarization before any nonlinear amplitude response.","test":"Measure modes and later fracture.","contrary_result":"Nonlinearity always detects weakness first.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0661","id":"S8-0661","volume":"900v8","title":"A thin metal strip could show a reversible minimum in creep rate during cyclic inert-gas adsorption.","prediction":"A thin metal strip could show a reversible minimum in creep rate during cyclic inert-gas adsorption.","test":"Measure uptake and creep.","contrary":"Creep follows average stress only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0661","hypothesis":"A thin metal strip could show a reversible minimum in creep rate during cyclic inert-gas adsorption.","test":"Measure uptake and creep.","contrary_result":"Creep follows average stress only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0662","id":"S8-0662","volume":"900v8","title":"A granular contact could retain the chirality of a weak torsional pulse in its later thermal expansion.","prediction":"A granular contact could retain the chirality of a weak torsional pulse in its later thermal expansion.","test":"Reverse pulse rotation.","contrary":"Expansion is insensitive to chirality.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0662","hypothesis":"A granular contact could retain the chirality of a weak torsional pulse in its later thermal expansion.","test":"Reverse pulse rotation.","contrary_result":"Expansion is insensitive to chirality.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0663","id":"S8-0663","volume":"900v8","title":"A porous shell could localize gas pressure away from a growing crack through deformation-induced pore closure.","prediction":"A porous shell could localize gas pressure away from a growing crack through deformation-induced pore closure.","test":"Map pressure and pores.","contrary":"Pressure stays uniform until failure.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0663","hypothesis":"A porous shell could localize gas pressure away from a growing crack through deformation-induced pore closure.","test":"Map pressure and pores.","contrary_result":"Pressure stays uniform until failure.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0664","id":"S8-0664","volume":"900v8","title":"A crystalline inclusion could deflect a shear band before its elastic field is visible at the surface.","prediction":"A crystalline inclusion could deflect a shear band before its elastic field is visible at the surface.","test":"Measure internal strain and bands.","contrary":"Deflection begins only at contact.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0664","hypothesis":"A crystalline inclusion could deflect a shear band before its elastic field is visible at the surface.","test":"Measure internal strain and bands.","contrary_result":"Deflection begins only at contact.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0665","id":"S8-0665","volume":"900v8","title":"A rough solid interface could have a finite loading-rate interval of lower electrical noise despite rising friction.","prediction":"A rough solid interface could have a finite loading-rate interval of lower electrical noise despite rising friction.","test":"Measure both channels.","contrary":"Noise tracks friction monotonically.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0665","hypothesis":"A rough solid interface could have a finite loading-rate interval of lower electrical noise despite rising friction.","test":"Measure both channels.","contrary_result":"Noise tracks friction monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0666","id":"S8-0666","volume":"900v8","title":"A thin ceramic membrane could detect one-sided chemical adsorption through a reversible avoided mode crossing.","prediction":"A thin ceramic membrane could detect one-sided chemical adsorption through a reversible avoided mode crossing.","test":"Measure uptake and modes.","contrary":"Crossing changes require structural damage.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0666","hypothesis":"A thin ceramic membrane could detect one-sided chemical adsorption through a reversible avoided mode crossing.","test":"Measure uptake and modes.","contrary_result":"Crossing changes require structural damage.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0667","id":"S8-0667","volume":"900v8","title":"A layered elastic solid could preserve acoustic pulse order in a delayed interfacial slip event.","prediction":"A layered elastic solid could preserve acoustic pulse order in a delayed interfacial slip event.","test":"Reverse pulse order.","contrary":"Events depend only on total energy.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0667","hypothesis":"A layered elastic solid could preserve acoustic pulse order in a delayed interfacial slip event.","test":"Reverse pulse order.","contrary_result":"Events depend only on total energy.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0668","id":"S8-0668","volume":"900v8","title":"A dry mineral powder could gain tensile strength after a weak thermal gradient with no net heating.","prediction":"A dry mineral powder could gain tensile strength after a weak thermal gradient with no net heating.","test":"Measure contacts and strength.","contrary":"Only mean temperature matters.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0668","hypothesis":"A dry mineral powder could gain tensile strength after a weak thermal gradient with no net heating.","test":"Measure contacts and strength.","contrary_result":"Only mean temperature matters.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0669","id":"S8-0669","volume":"900v8","title":"A hollow beam could recover acoustic reciprocity before static shape after asymmetric loading.","prediction":"A hollow beam could recover acoustic reciprocity before static shape after asymmetric loading.","test":"Measure direction-dependent transfer and geometry.","contrary":"Both recover together.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0669","hypothesis":"A hollow beam could recover acoustic reciprocity before static shape after asymmetric loading.","test":"Measure direction-dependent transfer and geometry.","contrary_result":"Both recover together.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0670","id":"S8-0670","volume":"900v8","title":"A soft particle inclusion could lower crack speed most at intermediate permeability.","prediction":"A soft particle inclusion could lower crack speed most at intermediate permeability.","test":"Sweep permeability at matched stiffness.","contrary":"Slowing changes monotonically.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0670","hypothesis":"A soft particle inclusion could lower crack speed most at intermediate permeability.","test":"Sweep permeability at matched stiffness.","contrary_result":"Slowing changes monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0671","id":"S8-0671","volume":"900v8","title":"A strained dielectric could show a reversible charge-noise minimum before mechanical instability.","prediction":"A strained dielectric could show a reversible charge-noise minimum before mechanical instability.","test":"Measure strain and noise.","contrary":"Noise rises continuously toward failure.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0671","hypothesis":"A strained dielectric could show a reversible charge-noise minimum before mechanical instability.","test":"Measure strain and noise.","contrary_result":"Noise rises continuously toward failure.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0672","id":"S8-0672","volume":"900v8","title":"A granular bed could distinguish compressive and shear damage through opposite changes in heat-flow anisotropy.","prediction":"A granular bed could distinguish compressive and shear damage through opposite changes in heat-flow anisotropy.","test":"Apply calibrated histories.","contrary":"Both histories produce the same tensor change.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0672","hypothesis":"A granular bed could distinguish compressive and shear damage through opposite changes in heat-flow anisotropy.","test":"Apply calibrated histories.","contrary_result":"Both histories produce the same tensor change.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0673","id":"S8-0673","volume":"900v8","title":"A brittle coating could remain intact over a substrate fold through delayed interfacial drainage.","prediction":"A brittle coating could remain intact over a substrate fold through delayed interfacial drainage.","test":"Measure fluid and strain.","contrary":"Protection requires permanent delamination.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0673","hypothesis":"A brittle coating could remain intact over a substrate fold through delayed interfacial drainage.","test":"Measure fluid and strain.","contrary_result":"Protection requires permanent delamination.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0674","id":"S8-0674","volume":"900v8","title":"A porous crystal could recover its initial resonance frequency while retaining reduced fracture strength.","prediction":"A porous crystal could recover its initial resonance frequency while retaining reduced fracture strength.","test":"Measure resonance and failure.","contrary":"Frequency recovery implies strength recovery.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0674","hypothesis":"A porous crystal could recover its initial resonance frequency while retaining reduced fracture strength.","test":"Measure resonance and failure.","contrary_result":"Frequency recovery implies strength recovery.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0675","id":"S8-0675","volume":"900v8","title":"A thin ring could transmit a torsional impulse around a cut through temporary face contact.","prediction":"A thin ring could transmit a torsional impulse around a cut through temporary face contact.","test":"Measure contact and waves.","contrary":"Transmission requires permanent reconnection.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0675","hypothesis":"A thin ring could transmit a torsional impulse around a cut through temporary face contact.","test":"Measure contact and waves.","contrary_result":"Transmission requires permanent reconnection.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0676","id":"S8-0676","volume":"900v8","title":"A compressed mineral layer could develop a stable internal low-stress corridor before a shear band forms.","prediction":"A compressed mineral layer could develop a stable internal low-stress corridor before a shear band forms.","test":"Map stress and later deformation.","contrary":"Corridor appears only after localization.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0676","hypothesis":"A compressed mineral layer could develop a stable internal low-stress corridor before a shear band forms.","test":"Map stress and later deformation.","contrary_result":"Corridor appears only after localization.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0677","id":"S8-0677","volume":"900v8","title":"A friction pad could distinguish lubricant adsorption from simple temperature change through opposite recovery of force-noise skewness.","prediction":"A friction pad could distinguish lubricant adsorption from simple temperature change through opposite recovery of force-noise skewness.","test":"Calibrate inputs.","contrary":"Skewness follows friction level only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0677","hypothesis":"A friction pad could distinguish lubricant adsorption from simple temperature change through opposite recovery of force-noise skewness.","test":"Calibrate inputs.","contrary_result":"Skewness follows friction level only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0678","id":"S8-0678","volume":"900v8","title":"A hollow ceramic sphere could have maximum fracture resistance at a finite internal gas conductance.","prediction":"A hollow ceramic sphere could have maximum fracture resistance at a finite internal gas conductance.","test":"Measure venting and strength.","contrary":"Resistance follows static pressure only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0678","hypothesis":"A hollow ceramic sphere could have maximum fracture resistance at a finite internal gas conductance.","test":"Measure venting and strength.","contrary_result":"Resistance follows static pressure only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0679","id":"S8-0679","volume":"900v8","title":"A fibrous sheet could preserve a load's orientation in vapor diffusion after mechanical anisotropy recovers.","prediction":"A fibrous sheet could preserve a load's orientation in vapor diffusion after mechanical anisotropy recovers.","test":"Measure both tensors.","contrary":"Both anisotropies recover simultaneously.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0679","hypothesis":"A fibrous sheet could preserve a load's orientation in vapor diffusion after mechanical anisotropy recovers.","test":"Measure both tensors.","contrary_result":"Both anisotropies recover simultaneously.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0680","id":"S8-0680","volume":"900v8","title":"A dry grain junction could become thermally stronger during microslip while its shear strength falls.","prediction":"A dry grain junction could become thermally stronger during microslip while its shear strength falls.","test":"Measure heat transfer and force.","contrary":"Both channels change together.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0680","hypothesis":"A dry grain junction could become thermally stronger during microslip while its shear strength falls.","test":"Measure heat transfer and force.","contrary_result":"Both channels change together.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0681","id":"S8-0681","volume":"900v8","title":"A soft inclusion could repel a crack only when its internal fluid relaxation time matches crack passage time.","prediction":"A soft inclusion could repel a crack only when its internal fluid relaxation time matches crack passage time.","test":"Measure rate dependence.","contrary":"Deflection is independent of relaxation.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0681","hypothesis":"A soft inclusion could repel a crack only when its internal fluid relaxation time matches crack passage time.","test":"Measure rate dependence.","contrary_result":"Deflection is independent of relaxation.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0681","hypothesis":"A soft inclusion could repel a crack only when its internal fluid relaxation time matches crack passage time.","test":"Measure rate dependence.","contrary_result":"Deflection is independent of relaxation.","status":"Untested; novelty unverified","selection_rationale":"Independent relaxation measurements predict a crack-deflection rate window.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0682","id":"S8-0682","volume":"900v8","title":"A crystalline membrane could show a mechanical relaxation echo after two unequal subcritical stress pulses.","prediction":"A crystalline membrane could show a mechanical relaxation echo after two unequal subcritical stress pulses.","test":"Measure delayed strain.","contrary":"Echoes are ordinary support reflections.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0682","hypothesis":"A crystalline membrane could show a mechanical relaxation echo after two unequal subcritical stress pulses.","test":"Measure delayed strain.","contrary_result":"Echoes are ordinary support reflections.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0683","id":"S8-0683","volume":"900v8","title":"A granular structure could reduce peak stress after a small preexisting void is added off-axis.","prediction":"A granular structure could reduce peak stress after a small preexisting void is added off-axis.","test":"Map forces and failure.","contrary":"Any void increases peak stress.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0683","hypothesis":"A granular structure could reduce peak stress after a small preexisting void is added off-axis.","test":"Map forces and failure.","contrary_result":"Any void increases peak stress.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0684","id":"S8-0684","volume":"900v8","title":"A thin solid film could distinguish subsurface gas blistering from surface contamination through opposite mode-parity shifts.","prediction":"A thin solid film could distinguish subsurface gas blistering from surface contamination through opposite mode-parity shifts.","test":"Create calibrated conditions.","contrary":"Both shifts coincide.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0684","hypothesis":"A thin solid film could distinguish subsurface gas blistering from surface contamination through opposite mode-parity shifts.","test":"Create calibrated conditions.","contrary_result":"Both shifts coincide.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0685","id":"S8-0685","volume":"900v8","title":"A porous composite could lose acoustic anisotropy before losing mechanical anisotropy during hydration.","prediction":"A porous composite could lose acoustic anisotropy before losing mechanical anisotropy during hydration.","test":"Measure both tensors.","contrary":"Anisotropies vanish together.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0685","hypothesis":"A porous composite could lose acoustic anisotropy before losing mechanical anisotropy during hydration.","test":"Measure both tensors.","contrary_result":"Anisotropies vanish together.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0686","id":"S8-0686","volume":"900v8","title":"A flexible crystal mount could preserve optical alignment during thermal cycling by controlled intermittent slip.","prediction":"A flexible crystal mount could preserve optical alignment during thermal cycling by controlled intermittent slip.","test":"Measure alignment and slip.","contrary":"Slip always worsens alignment.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0686","hypothesis":"A flexible crystal mount could preserve optical alignment during thermal cycling by controlled intermittent slip.","test":"Measure alignment and slip.","contrary_result":"Slip always worsens alignment.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0687","id":"S8-0687","volume":"900v8","title":"A metal-particle bed could show a transient decrease in thermal conductivity during initial compression before contact multiplication.","prediction":"A metal-particle bed could show a transient decrease in thermal conductivity during initial compression before contact multiplication.","test":"Measure contacts and heat.","contrary":"Conductivity increases from the outset.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0687","hypothesis":"A metal-particle bed could show a transient decrease in thermal conductivity during initial compression before contact multiplication.","test":"Measure contacts and heat.","contrary_result":"Conductivity increases from the outset.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0688","id":"S8-0688","volume":"900v8","title":"A rough mineral interface could retain pressure-pulse duration in its later capillary adhesion threshold.","prediction":"A rough mineral interface could retain pressure-pulse duration in its later capillary adhesion threshold.","test":"Match peak pressure.","contrary":"Threshold depends only on peak pressure.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0688","hypothesis":"A rough mineral interface could retain pressure-pulse duration in its later capillary adhesion threshold.","test":"Match peak pressure.","contrary_result":"Threshold depends only on peak pressure.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0689","id":"S8-0689","volume":"900v8","title":"A brittle sheet could emit a polarization-rotating acoustic precursor to crack coalescence.","prediction":"A brittle sheet could emit a polarization-rotating acoustic precursor to crack coalescence.","test":"Map cracks and acoustic vector.","contrary":"Polarization changes follow coalescence.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0689","hypothesis":"A brittle sheet could emit a polarization-rotating acoustic precursor to crack coalescence.","test":"Map cracks and acoustic vector.","contrary_result":"Polarization changes follow coalescence.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0690","id":"S8-0690","volume":"900v8","title":"A hollow lattice could absorb more energy from two separated impacts than one equal-energy impact through delayed fluid reset.","prediction":"A hollow lattice could absorb more energy from two separated impacts than one equal-energy impact through delayed fluid reset.","test":"Measure work and fluid.","contrary":"Absorption depends only on total energy.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0690","hypothesis":"A hollow lattice could absorb more energy from two separated impacts than one equal-energy impact through delayed fluid reset.","test":"Measure work and fluid.","contrary_result":"Absorption depends only on total energy.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0691","id":"S8-0691","volume":"900v8","title":"A compressed film could recover electrical insulation before mechanical thickness after unloading.","prediction":"A compressed film could recover electrical insulation before mechanical thickness after unloading.","test":"Measure both during recovery.","contrary":"Thickness recovery always leads.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0691","hypothesis":"A compressed film could recover electrical insulation before mechanical thickness after unloading.","test":"Measure both during recovery.","contrary_result":"Thickness recovery always leads.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0692","id":"S8-0692","volume":"900v8","title":"A granular shear layer could redirect heat away from its hottest region through contact rotation before bulk flow.","prediction":"A granular shear layer could redirect heat away from its hottest region through contact rotation before bulk flow.","test":"Measure contacts and heat.","contrary":"Diversion requires macroscopic convection.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0692","hypothesis":"A granular shear layer could redirect heat away from its hottest region through contact rotation before bulk flow.","test":"Measure contacts and heat.","contrary_result":"Diversion requires macroscopic convection.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0693","id":"S8-0693","volume":"900v8","title":"A porous solid could reveal a hidden weak interface through a narrow minimum in nonlinear acoustic loss.","prediction":"A porous solid could reveal a hidden weak interface through a narrow minimum in nonlinear acoustic loss.","test":"Map loss and interface.","contrary":"Loss follows average porosity only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0693","hypothesis":"A porous solid could reveal a hidden weak interface through a narrow minimum in nonlinear acoustic loss.","test":"Map loss and interface.","contrary_result":"Loss follows average porosity only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0694","id":"S8-0694","volume":"900v8","title":"A twisted mineral fiber could separate reversible lattice strain from irreversible surface damage through different relaxation harmonics.","prediction":"A twisted mineral fiber could separate reversible lattice strain from irreversible surface damage through different relaxation harmonics.","test":"Measure structure and modes.","contrary":"Harmonics are indistinguishable.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0694","hypothesis":"A twisted mineral fiber could separate reversible lattice strain from irreversible surface damage through different relaxation harmonics.","test":"Measure structure and modes.","contrary_result":"Harmonics are indistinguishable.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0695","id":"S8-0695","volume":"900v8","title":"A thin shell could resist puncture more after partial rather than full internal wetting.","prediction":"A thin shell could resist puncture more after partial rather than full internal wetting.","test":"Measure wetting and force.","contrary":"Resistance varies monotonically.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0695","hypothesis":"A thin shell could resist puncture more after partial rather than full internal wetting.","test":"Measure wetting and force.","contrary_result":"Resistance varies monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0696","id":"S8-0696","volume":"900v8","title":"A dry friction junction could show a waiting-time interval of opposite thermal and mechanical recovery trends.","prediction":"A dry friction junction could show a waiting-time interval of opposite thermal and mechanical recovery trends.","test":"Measure both channels.","contrary":"Recoveries remain correlated.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0696","hypothesis":"A dry friction junction could show a waiting-time interval of opposite thermal and mechanical recovery trends.","test":"Measure both channels.","contrary_result":"Recoveries remain correlated.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0697","id":"S8-0697","volume":"900v8","title":"A layered crystal could retain the order of two weak thermal shocks in its later shear-wave splitting.","prediction":"A layered crystal could retain the order of two weak thermal shocks in its later shear-wave splitting.","test":"Reverse shock order.","contrary":"Splitting depends only on total energy.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0697","hypothesis":"A layered crystal could retain the order of two weak thermal shocks in its later shear-wave splitting.","test":"Reverse shock order.","contrary_result":"Splitting depends only on total energy.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0698","id":"S8-0698","volume":"900v8","title":"A granular cavity could localize an acoustic pulse on its unloaded side through asymmetric contact relaxation.","prediction":"A granular cavity could localize an acoustic pulse on its unloaded side through asymmetric contact relaxation.","test":"Map contact forces and waves.","contrary":"Energy follows instantaneous stiffness only.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0698","hypothesis":"A granular cavity could localize an acoustic pulse on its unloaded side through asymmetric contact relaxation.","test":"Map contact forces and waves.","contrary_result":"Energy follows instantaneous stiffness only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0699","id":"S8-0699","volume":"900v8","title":"A brittle coating could arrest a crack temporarily through reversible surface-charge screening at unchanged humidity.","prediction":"A brittle coating could arrest a crack temporarily through reversible surface-charge screening at unchanged humidity.","test":"Measure charge and crack.","contrary":"Arrest requires a humidity change.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0699","hypothesis":"A brittle coating could arrest a crack temporarily through reversible surface-charge screening at unchanged humidity.","test":"Measure charge and crack.","contrary_result":"Arrest requires a humidity change.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0700","id":"S8-0700","volume":"900v8","title":"A porous beam could develop a reversible negative incremental bending compliance through fluid redistribution before buckling.","prediction":"A porous beam could develop a reversible negative incremental bending compliance through fluid redistribution before buckling.","test":"Measure force and fluid.","contrary":"Negative response occurs only after instability.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0700","hypothesis":"A porous beam could develop a reversible negative incremental bending compliance through fluid redistribution before buckling.","test":"Measure force and fluid.","contrary_result":"Negative response occurs only after instability.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0701","id":"S8-0701","volume":"900v8","title":"A weakly absorbing optical surface could reveal subsurface thermal boundaries through delayed polarization noise.","prediction":"A weakly absorbing optical surface could reveal subsurface thermal boundaries through delayed polarization noise.","test":"Map boundaries and spectra.","contrary":"Noise follows surface temperature only.","layers":[1,2],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0701","hypothesis":"A weakly absorbing optical surface could reveal subsurface thermal boundaries through delayed polarization noise.","test":"Map boundaries and spectra.","contrary_result":"Noise follows surface temperature only.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0701","hypothesis":"A weakly absorbing optical surface could reveal subsurface thermal boundaries through delayed polarization noise.","test":"Map boundaries and spectra.","contrary_result":"Noise follows surface temperature only.","status":"Untested; novelty unverified","selection_rationale":"Thermal-boundary phantoms test polarization-noise specificity.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0702","id":"S8-0702","volume":"900v8","title":"A coupled resonator pair could distinguish a moving mass from a changing stiffness through mode-phase winding.","prediction":"A coupled resonator pair could distinguish a moving mass from a changing stiffness through mode-phase winding.","test":"Calibrate perturbations.","contrary":"Winding trajectories are identical.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0702","hypothesis":"A coupled resonator pair could distinguish a moving mass from a changing stiffness through mode-phase winding.","test":"Calibrate perturbations.","contrary_result":"Winding trajectories are identical.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0703","id":"S8-0703","volume":"900v8","title":"A thin crystal could rotate an acoustic vortex's core during reversible adsorption.","prediction":"A thin crystal could rotate an acoustic vortex's core during reversible adsorption.","test":"Measure core phase and uptake.","contrary":"Rotation requires geometric deformation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0703","hypothesis":"A thin crystal could rotate an acoustic vortex's core during reversible adsorption.","test":"Measure core phase and uptake.","contrary_result":"Rotation requires geometric deformation.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0704","id":"S8-0704","volume":"900v8","title":"A vapor-loaded photonic cavity could show maximum phase sensitivity at intermediate optical loss.","prediction":"A vapor-loaded photonic cavity could show maximum phase sensitivity at intermediate optical loss.","test":"Measure full response.","contrary":"Sensitivity changes monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0704","hypothesis":"A vapor-loaded photonic cavity could show maximum phase sensitivity at intermediate optical loss.","test":"Measure full response.","contrary_result":"Sensitivity changes monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0705","id":"S8-0705","volume":"900v8","title":"A thermal wave could split at a moving liquid-solid interface without a conductivity discontinuity.","prediction":"A thermal wave could split at a moving liquid-solid interface without a conductivity discontinuity.","test":"Match conductivities and map heat.","contrary":"Splitting requires conductivity contrast.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0705","hypothesis":"A thermal wave could split at a moving liquid-solid interface without a conductivity discontinuity.","test":"Match conductivities and map heat.","contrary_result":"Splitting requires conductivity contrast.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0706","id":"S8-0706","volume":"900v8","title":"A magnetic domain pattern could guide light indirectly through reversible surface strain below optical magnetic sensitivity.","prediction":"A magnetic domain pattern could guide light indirectly through reversible surface strain below optical magnetic sensitivity.","test":"Measure strain and optical fields.","contrary":"Guidance follows direct magnetic effects only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0706","hypothesis":"A magnetic domain pattern could guide light indirectly through reversible surface strain below optical magnetic sensitivity.","test":"Measure strain and optical fields.","contrary_result":"Guidance follows direct magnetic effects only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0707","id":"S8-0707","volume":"900v8","title":"A porous dielectric could exhibit anti-correlated electrical and optical noise when gas clusters rearrange.","prediction":"A porous dielectric could exhibit anti-correlated electrical and optical noise when gas clusters rearrange.","test":"Measure gas and both channels.","contrary":"Correlations reflect temperature only.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0707","hypothesis":"A porous dielectric could exhibit anti-correlated electrical and optical noise when gas clusters rearrange.","test":"Measure gas and both channels.","contrary_result":"Correlations reflect temperature only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0708","id":"S8-0708","volume":"900v8","title":"A thin liquid layer could convert an acoustic vortex into a directional temperature pattern.","prediction":"A thin liquid layer could convert an acoustic vortex into a directional temperature pattern.","test":"Measure vector sound and heat.","contrary":"Heating remains rotationally symmetric.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0708","hypothesis":"A thin liquid layer could convert an acoustic vortex into a directional temperature pattern.","test":"Measure vector sound and heat.","contrary_result":"Heating remains rotationally symmetric.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0709","id":"S8-0709","volume":"900v8","title":"A weakly disordered wave cavity could recover phase coherence after selective rather than uniform damping.","prediction":"A weakly disordered wave cavity could recover phase coherence after selective rather than uniform damping.","test":"Measure coherence and losses.","contrary":"Damping always reduces coherence.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0709","hypothesis":"A weakly disordered wave cavity could recover phase coherence after selective rather than uniform damping.","test":"Measure coherence and losses.","contrary_result":"Damping always reduces coherence.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0710","id":"S8-0710","volume":"900v8","title":"A crystalline shell could distinguish internal pressure location through opposite signs of mode-coupling phase.","prediction":"A crystalline shell could distinguish internal pressure location through opposite signs of mode-coupling phase.","test":"Apply mapped internal loads.","contrary":"Signals reveal total pressure only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0710","hypothesis":"A crystalline shell could distinguish internal pressure location through opposite signs of mode-coupling phase.","test":"Apply mapped internal loads.","contrary_result":"Signals reveal total pressure only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0711","id":"S8-0711","volume":"900v8","title":"A patterned adsorption front could create a temporary optical bandgap without changing surface height.","prediction":"A patterned adsorption front could create a temporary optical bandgap without changing surface height.","test":"Map coverage and spectra.","contrary":"Bandgap requires measurable topography.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0711","hypothesis":"A patterned adsorption front could create a temporary optical bandgap without changing surface height.","test":"Map coverage and spectra.","contrary_result":"Bandgap requires measurable topography.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0712","id":"S8-0712","volume":"900v8","title":"A suspended metal loop could reveal a local oxidation event through a traveling torsional-noise correlation.","prediction":"A suspended metal loop could reveal a local oxidation event through a traveling torsional-noise correlation.","test":"Measure oxide and motion.","contrary":"Correlations change uniformly.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0712","hypothesis":"A suspended metal loop could reveal a local oxidation event through a traveling torsional-noise correlation.","test":"Measure oxide and motion.","contrary_result":"Correlations change uniformly.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0713","id":"S8-0713","volume":"900v8","title":"A liquid-filled acoustic lattice could swap its dominant transport axis during drainage before porosity changes.","prediction":"A liquid-filled acoustic lattice could swap its dominant transport axis during drainage before porosity changes.","test":"Measure liquid paths and waves.","contrary":"Axis follows fixed geometry.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0713","hypothesis":"A liquid-filled acoustic lattice could swap its dominant transport axis during drainage before porosity changes.","test":"Measure liquid paths and waves.","contrary_result":"Axis follows fixed geometry.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0714","id":"S8-0714","volume":"900v8","title":"A phase-changing particle could have a transient optical chirality at its moving internal boundary.","prediction":"A phase-changing particle could have a transient optical chirality at its moving internal boundary.","test":"Image phase and circular response.","contrary":"Chirality requires a chiral exterior.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0714","hypothesis":"A phase-changing particle could have a transient optical chirality at its moving internal boundary.","test":"Image phase and circular response.","contrary_result":"Chirality requires a chiral exterior.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0715","id":"S8-0715","volume":"900v8","title":"A dielectric interface could show a delayed force-noise maximum after external voltage returns to zero.","prediction":"A dielectric interface could show a delayed force-noise maximum after external voltage returns to zero.","test":"Measure charge and force.","contrary":"Noise follows voltage immediately.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0715","hypothesis":"A dielectric interface could show a delayed force-noise maximum after external voltage returns to zero.","test":"Measure charge and force.","contrary_result":"Noise follows voltage immediately.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0716","id":"S8-0716","volume":"900v8","title":"A strain-graded crystal could redirect fluorescence energy away from a hotter excitation site.","prediction":"A strain-graded crystal could redirect fluorescence energy away from a hotter excitation site.","test":"Map emission and strain.","contrary":"Energy follows ordinary diffusion only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0716","hypothesis":"A strain-graded crystal could redirect fluorescence energy away from a hotter excitation site.","test":"Map emission and strain.","contrary_result":"Energy follows ordinary diffusion only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0717","id":"S8-0717","volume":"900v8","title":"A gas-filled resonator could distinguish a wall leak from a membrane leak through opposite phase-noise gradients.","prediction":"A gas-filled resonator could distinguish a wall leak from a membrane leak through opposite phase-noise gradients.","test":"Open controlled leaks.","contrary":"Gradients depend only on leak rate.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0717","hypothesis":"A gas-filled resonator could distinguish a wall leak from a membrane leak through opposite phase-noise gradients.","test":"Open controlled leaks.","contrary_result":"Gradients depend only on leak rate.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0718","id":"S8-0718","volume":"900v8","title":"A thin crystal could transmit acoustic energy differently during increasing and decreasing defect mobility at identical temperature.","prediction":"A thin crystal could transmit acoustic energy differently during increasing and decreasing defect mobility at identical temperature.","test":"Measure defects and waves.","contrary":"Temperature fixes transmission uniquely.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0718","hypothesis":"A thin crystal could transmit acoustic energy differently during increasing and decreasing defect mobility at identical temperature.","test":"Measure defects and waves.","contrary_result":"Temperature fixes transmission uniquely.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0719","id":"S8-0719","volume":"900v8","title":"A soft photonic grating could suppress a mechanical resonance through selective radiative cooling of one mode shape.","prediction":"A soft photonic grating could suppress a mechanical resonance through selective radiative cooling of one mode shape.","test":"Measure thermal fields and modes.","contrary":"Cooling changes all modes proportionally.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0719","hypothesis":"A soft photonic grating could suppress a mechanical resonance through selective radiative cooling of one mode shape.","test":"Measure thermal fields and modes.","contrary_result":"Cooling changes all modes proportionally.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0720","id":"S8-0720","volume":"900v8","title":"A porous ring could retain a traveling heat pulse's direction in its late-time optical scattering.","prediction":"A porous ring could retain a traveling heat pulse's direction in its late-time optical scattering.","test":"Reverse source travel.","contrary":"Scattering records energy only.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0720","hypothesis":"A porous ring could retain a traveling heat pulse's direction in its late-time optical scattering.","test":"Reverse source travel.","contrary_result":"Scattering records energy only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0721","id":"S8-0721","volume":"900v8","title":"A magnetic ribbon could develop a narrow acoustic transparency band after a weak torsional preparation pulse.","prediction":"A magnetic ribbon could develop a narrow acoustic transparency band after a weak torsional preparation pulse.","test":"Measure domains and transmission.","contrary":"Preparation only broadens attenuation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0721","hypothesis":"A magnetic ribbon could develop a narrow acoustic transparency band after a weak torsional preparation pulse.","test":"Measure domains and transmission.","contrary_result":"Preparation only broadens attenuation.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0722","id":"S8-0722","volume":"900v8","title":"A dielectric microcavity could distinguish surface-charge diffusion from adsorbate diffusion through different mode-correlation speeds.","prediction":"A dielectric microcavity could distinguish surface-charge diffusion from adsorbate diffusion through different mode-correlation speeds.","test":"Measure independent surface maps.","contrary":"Speeds are indistinguishable.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0722","hypothesis":"A dielectric microcavity could distinguish surface-charge diffusion from adsorbate diffusion through different mode-correlation speeds.","test":"Measure independent surface maps.","contrary_result":"Speeds are indistinguishable.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0723","id":"S8-0723","volume":"900v8","title":"A liquid interface could shift a nearby elastic mode's nodal position without changing its frequency appreciably.","prediction":"A liquid interface could shift a nearby elastic mode's nodal position without changing its frequency appreciably.","test":"Measure shapes and frequencies.","contrary":"Nodes move only with frequency.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0723","hypothesis":"A liquid interface could shift a nearby elastic mode's nodal position without changing its frequency appreciably.","test":"Measure shapes and frequencies.","contrary_result":"Nodes move only with frequency.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0724","id":"S8-0724","volume":"900v8","title":"A layered crystal could reveal interfacial slip through a transient reversal of acoustic polarization rotation.","prediction":"A layered crystal could reveal interfacial slip through a transient reversal of acoustic polarization rotation.","test":"Measure slip and waves.","contrary":"Rotation retains one sign.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0724","hypothesis":"A layered crystal could reveal interfacial slip through a transient reversal of acoustic polarization rotation.","test":"Measure slip and waves.","contrary_result":"Rotation retains one sign.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0725","id":"S8-0725","volume":"900v8","title":"A weakly coupled optical pair could show a longer pulse delay after slight thermal detuning.","prediction":"A weakly coupled optical pair could show a longer pulse delay after slight thermal detuning.","test":"Measure phase and transmission.","contrary":"Delay is maximal at zero detuning.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0725","hypothesis":"A weakly coupled optical pair could show a longer pulse delay after slight thermal detuning.","test":"Measure phase and transmission.","contrary_result":"Delay is maximal at zero detuning.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0726","id":"S8-0726","volume":"900v8","title":"A nanoporous film could show a reflectance-noise minimum when isolated liquid clusters first connect.","prediction":"A nanoporous film could show a reflectance-noise minimum when isolated liquid clusters first connect.","test":"Measure topology and spectra.","contrary":"Noise varies monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0726","hypothesis":"A nanoporous film could show a reflectance-noise minimum when isolated liquid clusters first connect.","test":"Measure topology and spectra.","contrary_result":"Noise varies monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0727","id":"S8-0727","volume":"900v8","title":"A mechanically oscillating crystal could emit delayed polarized light after force removal through reversible trap release.","prediction":"A mechanically oscillating crystal could emit delayed polarized light after force removal through reversible trap release.","test":"Measure force and emission.","contrary":"Emission requires continuing force.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0727","hypothesis":"A mechanically oscillating crystal could emit delayed polarized light after force removal through reversible trap release.","test":"Measure force and emission.","contrary_result":"Emission requires continuing force.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0728","id":"S8-0728","volume":"900v8","title":"A thin gas layer could amplify the frequency splitting caused by one hidden asperity.","prediction":"A thin gas layer could amplify the frequency splitting caused by one hidden asperity.","test":"Measure gap and modes.","contrary":"Splitting follows solid contact only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0728","hypothesis":"A thin gas layer could amplify the frequency splitting caused by one hidden asperity.","test":"Measure gap and modes.","contrary_result":"Splitting follows solid contact only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0729","id":"S8-0729","volume":"900v8","title":"A magnetic ceramic could reveal adsorbed water through a change in domain-noise propagation speed.","prediction":"A magnetic ceramic could reveal adsorbed water through a change in domain-noise propagation speed.","test":"Measure water and correlations.","contrary":"Noise speed follows temperature alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0729","hypothesis":"A magnetic ceramic could reveal adsorbed water through a change in domain-noise propagation speed.","test":"Measure water and correlations.","contrary_result":"Noise speed follows temperature alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0730","id":"S8-0730","volume":"900v8","title":"A thermal cavity could reject uniform heating drift while preserving sensitivity to heat-source depth.","prediction":"A thermal cavity could reject uniform heating drift while preserving sensitivity to heat-source depth.","test":"Apply calibrated sources.","contrary":"Depth sensitivity vanishes with drift rejection.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0730","hypothesis":"A thermal cavity could reject uniform heating drift while preserving sensitivity to heat-source depth.","test":"Apply calibrated sources.","contrary_result":"Depth sensitivity vanishes with drift rejection.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0731","id":"S8-0731","volume":"900v8","title":"A charged particle array could support a localized acoustic mode controlled by gas adsorption without particle movement.","prediction":"A charged particle array could support a localized acoustic mode controlled by gas adsorption without particle movement.","test":"Map positions and modes.","contrary":"Localization requires rearrangement.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0731","hypothesis":"A charged particle array could support a localized acoustic mode controlled by gas adsorption without particle movement.","test":"Map positions and modes.","contrary_result":"Localization requires rearrangement.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0732","id":"S8-0732","volume":"900v8","title":"A transparent solid could encode a pressure pulse's shape in its delayed scattered-light phase.","prediction":"A transparent solid could encode a pressure pulse's shape in its delayed scattered-light phase.","test":"Compare equal-impulse pulses.","contrary":"Phase depends only on impulse.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0732","hypothesis":"A transparent solid could encode a pressure pulse's shape in its delayed scattered-light phase.","test":"Compare equal-impulse pulses.","contrary_result":"Phase depends only on impulse.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0733","id":"S8-0733","volume":"900v8","title":"A fluid-filled resonator could exhibit decreasing damping during initial bubble formation through mode redistribution.","prediction":"A fluid-filled resonator could exhibit decreasing damping during initial bubble formation through mode redistribution.","test":"Measure bubbles and modes.","contrary":"Bubbles always increase damping.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0733","hypothesis":"A fluid-filled resonator could exhibit decreasing damping during initial bubble formation through mode redistribution.","test":"Measure bubbles and modes.","contrary_result":"Bubbles always increase damping.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0734","id":"S8-0734","volume":"900v8","title":"A crystalline interface could temporarily guide acoustic energy along a dissolving boundary.","prediction":"A crystalline interface could temporarily guide acoustic energy along a dissolving boundary.","test":"Map composition and waves.","contrary":"Guidance requires a permanent structural seam.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0734","hypothesis":"A crystalline interface could temporarily guide acoustic energy along a dissolving boundary.","test":"Map composition and waves.","contrary_result":"Guidance requires a permanent structural seam.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0735","id":"S8-0735","volume":"900v8","title":"A soft optical cavity could distinguish local drying from global cooling through opposite mode-localization motion.","prediction":"A soft optical cavity could distinguish local drying from global cooling through opposite mode-localization motion.","test":"Calibrate inputs.","contrary":"Both move localization identically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0735","hypothesis":"A soft optical cavity could distinguish local drying from global cooling through opposite mode-localization motion.","test":"Calibrate inputs.","contrary_result":"Both move localization identically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0736","id":"S8-0736","volume":"900v8","title":"A mineral-coated acoustic waveguide could retain vapor-composition order in its nonlinear harmonic phases.","prediction":"A mineral-coated acoustic waveguide could retain vapor-composition order in its nonlinear harmonic phases.","test":"Reverse exposure sequence.","contrary":"Phases depend only on final uptake.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0736","hypothesis":"A mineral-coated acoustic waveguide could retain vapor-composition order in its nonlinear harmonic phases.","test":"Reverse exposure sequence.","contrary_result":"Phases depend only on final uptake.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0737","id":"S8-0737","volume":"900v8","title":"A dielectric membrane could show a finite pressure interval of reduced electrical noise while mechanical noise increases.","prediction":"A dielectric membrane could show a finite pressure interval of reduced electrical noise while mechanical noise increases.","test":"Measure both channels.","contrary":"Noise trends stay correlated.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0737","hypothesis":"A dielectric membrane could show a finite pressure interval of reduced electrical noise while mechanical noise increases.","test":"Measure both channels.","contrary_result":"Noise trends stay correlated.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0738","id":"S8-0738","volume":"900v8","title":"A thin magnetic disk could transfer an optical heating pulse into a delayed torsional echo through domain relaxation.","prediction":"A thin magnetic disk could transfer an optical heating pulse into a delayed torsional echo through domain relaxation.","test":"Measure domains and motion.","contrary":"Echo follows ordinary thermal contraction only.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0738","hypothesis":"A thin magnetic disk could transfer an optical heating pulse into a delayed torsional echo through domain relaxation.","test":"Measure domains and motion.","contrary_result":"Echo follows ordinary thermal contraction only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0739","id":"S8-0739","volume":"900v8","title":"A porous crystal could reveal disconnected liquid pockets through an additional optical relaxation timescale before mass change.","prediction":"A porous crystal could reveal disconnected liquid pockets through an additional optical relaxation timescale before mass change.","test":"Measure topology and spectra.","contrary":"Extra timescale follows total mass only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0739","hypothesis":"A porous crystal could reveal disconnected liquid pockets through an additional optical relaxation timescale before mass change.","test":"Measure topology and spectra.","contrary_result":"Extra timescale follows total mass only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0740","id":"S8-0740","volume":"900v8","title":"A moving adsorption boundary could focus a surface wave onto a region with lower adsorption.","prediction":"A moving adsorption boundary could focus a surface wave onto a region with lower adsorption.","test":"Map coverage and displacement.","contrary":"Focusing follows higher coverage only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0740","hypothesis":"A moving adsorption boundary could focus a surface wave onto a region with lower adsorption.","test":"Map coverage and displacement.","contrary_result":"Focusing follows higher coverage only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0741","id":"S8-0741","volume":"900v8","title":"A thermal grating could suppress a competing optical mode more efficiently when slightly misaligned.","prediction":"A thermal grating could suppress a competing optical mode more efficiently when slightly misaligned.","test":"Measure mode energies and thermal pattern.","contrary":"Alignment always maximizes suppression.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0741","hypothesis":"A thermal grating could suppress a competing optical mode more efficiently when slightly misaligned.","test":"Measure mode energies and thermal pattern.","contrary_result":"Alignment always maximizes suppression.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0742","id":"S8-0742","volume":"900v8","title":"A hollow dielectric sphere could distinguish a moving internal bubble from external vibration through sideband handedness.","prediction":"A hollow dielectric sphere could distinguish a moving internal bubble from external vibration through sideband handedness.","test":"Calibrate separately.","contrary":"Handedness is identical.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0742","hypothesis":"A hollow dielectric sphere could distinguish a moving internal bubble from external vibration through sideband handedness.","test":"Calibrate separately.","contrary_result":"Handedness is identical.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0743","id":"S8-0743","volume":"900v8","title":"A strained semiconductor could display a transient absorption minimum while its defect emission increases.","prediction":"A strained semiconductor could display a transient absorption minimum while its defect emission increases.","test":"Measure absorption and luminescence.","contrary":"Both track one population monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0743","hypothesis":"A strained semiconductor could display a transient absorption minimum while its defect emission increases.","test":"Measure absorption and luminescence.","contrary_result":"Both track one population monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0744","id":"S8-0744","volume":"900v8","title":"A liquid-loaded crystal could rotate its acoustic principal axes during gas exchange at constant mass.","prediction":"A liquid-loaded crystal could rotate its acoustic principal axes during gas exchange at constant mass.","test":"Measure composition and tensor.","contrary":"Axes remain fixed at constant mass.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0744","hypothesis":"A liquid-loaded crystal could rotate its acoustic principal axes during gas exchange at constant mass.","test":"Measure composition and tensor.","contrary_result":"Axes remain fixed at constant mass.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0745","id":"S8-0745","volume":"900v8","title":"A weakly rough interface could transmit a short pulse more faithfully than a smooth interface through mode dephasing suppression.","prediction":"A weakly rough interface could transmit a short pulse more faithfully than a smooth interface through mode dephasing suppression.","test":"Measure waveform overlap.","contrary":"Roughness always reduces fidelity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0745","hypothesis":"A weakly rough interface could transmit a short pulse more faithfully than a smooth interface through mode dephasing suppression.","test":"Measure waveform overlap.","contrary_result":"Roughness always reduces fidelity.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0746","id":"S8-0746","volume":"900v8","title":"A photonic powder could retain a temperature-ramp direction in its speckle recovery after thermal equilibration.","prediction":"A photonic powder could retain a temperature-ramp direction in its speckle recovery after thermal equilibration.","test":"Reverse ramps.","contrary":"Recovery depends only on final temperature.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0746","hypothesis":"A photonic powder could retain a temperature-ramp direction in its speckle recovery after thermal equilibration.","test":"Reverse ramps.","contrary_result":"Recovery depends only on final temperature.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0747","id":"S8-0747","volume":"900v8","title":"A magnetic inclusion could reveal internal cracking through torque-noise intermittency before resonance shifts.","prediction":"A magnetic inclusion could reveal internal cracking through torque-noise intermittency before resonance shifts.","test":"Measure cracks and spectra.","contrary":"Resonance detection leads.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0747","hypothesis":"A magnetic inclusion could reveal internal cracking through torque-noise intermittency before resonance shifts.","test":"Measure cracks and spectra.","contrary_result":"Resonance detection leads.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0748","id":"S8-0748","volume":"900v8","title":"A thin liquid film could create a reversible optical focus at its acoustic pressure node.","prediction":"A thin liquid film could create a reversible optical focus at its acoustic pressure node.","test":"Measure thickness and light.","contrary":"Focus remains at antinodes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0748","hypothesis":"A thin liquid film could create a reversible optical focus at its acoustic pressure node.","test":"Measure thickness and light.","contrary_result":"Focus remains at antinodes.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0749","id":"S8-0749","volume":"900v8","title":"A crystalline plate could distinguish uniform defect removal from defect relocation through opposite acoustic coda skewness.","prediction":"A crystalline plate could distinguish uniform defect removal from defect relocation through opposite acoustic coda skewness.","test":"Calibrate states.","contrary":"Skewness follows total defect density only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0749","hypothesis":"A crystalline plate could distinguish uniform defect removal from defect relocation through opposite acoustic coda skewness.","test":"Calibrate states.","contrary_result":"Skewness follows total defect density only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0750","id":"S8-0750","volume":"900v8","title":"A vapor-filled cavity could show an acoustic gain window from delayed adsorption heat without a net chemical reaction.","prediction":"A vapor-filled cavity could show an acoustic gain window from delayed adsorption heat without a net chemical reaction.","test":"Measure acoustic work and heat.","contrary":"Adsorption always increases loss.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0750","hypothesis":"A vapor-filled cavity could show an acoustic gain window from delayed adsorption heat without a net chemical reaction.","test":"Measure acoustic work and heat.","contrary_result":"Adsorption always increases loss.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0751","id":"S8-0751","volume":"900v8","title":"A porous elastic film could develop a narrow mechanical stopband during partial liquid exchange between equal-density liquids.","prediction":"A porous elastic film could develop a narrow mechanical stopband during partial liquid exchange between equal-density liquids.","test":"Measure composition and waves.","contrary":"Density matching removes the stopband.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0751","hypothesis":"A porous elastic film could develop a narrow mechanical stopband during partial liquid exchange between equal-density liquids.","test":"Measure composition and waves.","contrary_result":"Density matching removes the stopband.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0752","id":"S8-0752","volume":"900v8","title":"A charged crystal surface could preserve an acoustic pulse's polarization in its later charge-relaxation pattern.","prediction":"A charged crystal surface could preserve an acoustic pulse's polarization in its later charge-relaxation pattern.","test":"Reverse polarization.","contrary":"Pattern depends only on pulse energy.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0752","hypothesis":"A charged crystal surface could preserve an acoustic pulse's polarization in its later charge-relaxation pattern.","test":"Reverse polarization.","contrary_result":"Pattern depends only on pulse energy.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0753","id":"S8-0753","volume":"900v8","title":"A low-loss optical membrane could distinguish reversible gas adsorption from permanent contamination through mode-phase loop closure.","prediction":"A low-loss optical membrane could distinguish reversible gas adsorption from permanent contamination through mode-phase loop closure.","test":"Cycle exposure and measure modes.","contrary":"Both processes close loops equally.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0753","hypothesis":"A low-loss optical membrane could distinguish reversible gas adsorption from permanent contamination through mode-phase loop closure.","test":"Cycle exposure and measure modes.","contrary_result":"Both processes close loops equally.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0754","id":"S8-0754","volume":"900v8","title":"A thermal pulse could temporarily reduce magnetic-field noise by aligning strain-sensitive defects.","prediction":"A thermal pulse could temporarily reduce magnetic-field noise by aligning strain-sensitive defects.","test":"Measure strain and magnetic noise.","contrary":"Noise follows temperature monotonically.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0754","hypothesis":"A thermal pulse could temporarily reduce magnetic-field noise by aligning strain-sensitive defects.","test":"Measure strain and magnetic noise.","contrary_result":"Noise follows temperature monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0755","id":"S8-0755","volume":"900v8","title":"A granular photonic layer could show a spectral linewidth minimum during controlled micro-sliding without density change.","prediction":"A granular photonic layer could show a spectral linewidth minimum during controlled micro-sliding without density change.","test":"Measure contacts and optics.","contrary":"Linewidth follows density only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0755","hypothesis":"A granular photonic layer could show a spectral linewidth minimum during controlled micro-sliding without density change.","test":"Measure contacts and optics.","contrary_result":"Linewidth follows density only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0756","id":"S8-0756","volume":"900v8","title":"A weakly bent acoustic waveguide could separate two equal-frequency modes by humidity-dependent adsorption stress.","prediction":"A weakly bent acoustic waveguide could separate two equal-frequency modes by humidity-dependent adsorption stress.","test":"Measure stress and modes.","contrary":"Separation requires geometric asymmetry changes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0756","hypothesis":"A weakly bent acoustic waveguide could separate two equal-frequency modes by humidity-dependent adsorption stress.","test":"Measure stress and modes.","contrary_result":"Separation requires geometric asymmetry changes.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0757","id":"S8-0757","volume":"900v8","title":"A fluid-loaded shell could reveal a hidden thermal boundary through a phase reversal in its torsional response.","prediction":"A fluid-loaded shell could reveal a hidden thermal boundary through a phase reversal in its torsional response.","test":"Measure temperature and modes.","contrary":"Only total heat matters.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0757","hypothesis":"A fluid-loaded shell could reveal a hidden thermal boundary through a phase reversal in its torsional response.","test":"Measure temperature and modes.","contrary_result":"Only total heat matters.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0758","id":"S8-0758","volume":"900v8","title":"A dielectric cavity could show a temporary increase in photon residence time during partial charge neutralization.","prediction":"A dielectric cavity could show a temporary increase in photon residence time during partial charge neutralization.","test":"Measure charge and ringdown.","contrary":"Residence time varies monotonically.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0758","hypothesis":"A dielectric cavity could show a temporary increase in photon residence time during partial charge neutralization.","test":"Measure charge and ringdown.","contrary_result":"Residence time varies monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0759","id":"S8-0759","volume":"900v8","title":"A magnetic crystal could distinguish compressive pulse duration from amplitude through delayed acoustic polarization.","prediction":"A magnetic crystal could distinguish compressive pulse duration from amplitude through delayed acoustic polarization.","test":"Vary inputs independently.","contrary":"Polarization follows peak strain only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0759","hypothesis":"A magnetic crystal could distinguish compressive pulse duration from amplitude through delayed acoustic polarization.","test":"Vary inputs independently.","contrary_result":"Polarization follows peak strain only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0760","id":"S8-0760","volume":"900v8","title":"A moving melt boundary could convert a standing elastic wave into a traveling wave without external directional forcing.","prediction":"A moving melt boundary could convert a standing elastic wave into a traveling wave without external directional forcing.","test":"Map phase and boundary.","contrary":"Waves remain standing.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0760","hypothesis":"A moving melt boundary could convert a standing elastic wave into a traveling wave without external directional forcing.","test":"Map phase and boundary.","contrary_result":"Waves remain standing.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0761","id":"S8-0761","volume":"900v8","title":"A porous optical resonator could detect salt hydration state through noise-correlation sign before average wavelength shift.","prediction":"A porous optical resonator could detect salt hydration state through noise-correlation sign before average wavelength shift.","test":"Measure state and spectra.","contrary":"Wavelength detection leads.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0761","hypothesis":"A porous optical resonator could detect salt hydration state through noise-correlation sign before average wavelength shift.","test":"Measure state and spectra.","contrary_result":"Wavelength detection leads.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0761","hypothesis":"A porous optical resonator could detect salt hydration state through noise-correlation sign before average wavelength shift.","test":"Measure state and spectra.","contrary_result":"Wavelength detection leads.","status":"Untested; novelty unverified","selection_rationale":"Hydration-state assays provide an independent optical-noise benchmark.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0762","id":"S8-0762","volume":"900v8","title":"A suspended crystal could exhibit a delayed mechanical recoil after luminescence emission ends.","prediction":"A suspended crystal could exhibit a delayed mechanical recoil after luminescence emission ends.","test":"Measure emitted light and motion.","contrary":"Motion follows heating only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0762","hypothesis":"A suspended crystal could exhibit a delayed mechanical recoil after luminescence emission ends.","test":"Measure emitted light and motion.","contrary_result":"Motion follows heating only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0763","id":"S8-0763","volume":"900v8","title":"A thin liquid lens could reveal interfacial slip through a temporary rotation of optical astigmatism.","prediction":"A thin liquid lens could reveal interfacial slip through a temporary rotation of optical astigmatism.","test":"Measure slip and optics.","contrary":"Rotation follows external tilt.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0763","hypothesis":"A thin liquid lens could reveal interfacial slip through a temporary rotation of optical astigmatism.","test":"Measure slip and optics.","contrary_result":"Rotation follows external tilt.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0764","id":"S8-0764","volume":"900v8","title":"A coupled thermal pair could identify a hidden contact change from fluctuation lag before mean temperatures diverge.","prediction":"A coupled thermal pair could identify a hidden contact change from fluctuation lag before mean temperatures diverge.","test":"Measure contact and temperatures.","contrary":"Mean divergence appears first.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0764","hypothesis":"A coupled thermal pair could identify a hidden contact change from fluctuation lag before mean temperatures diverge.","test":"Measure contact and temperatures.","contrary_result":"Mean divergence appears first.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0765","id":"S8-0765","volume":"900v8","title":"A disordered dielectric could transfer optical energy between distant hotspots after a weak local strain pulse.","prediction":"A disordered dielectric could transfer optical energy between distant hotspots after a weak local strain pulse.","test":"Map fields and strain.","contrary":"Energy remains localized near the pulse.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0765","hypothesis":"A disordered dielectric could transfer optical energy between distant hotspots after a weak local strain pulse.","test":"Map fields and strain.","contrary_result":"Energy remains localized near the pulse.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0766","id":"S8-0766","volume":"900v8","title":"A gas-sensitive magnetic film could show different acoustic relaxation after isotope exchange at equal gas coverage.","prediction":"A gas-sensitive magnetic film could show different acoustic relaxation after isotope exchange at equal gas coverage.","test":"Measure isotope and modes.","contrary":"Coverage fully predicts relaxation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0766","hypothesis":"A gas-sensitive magnetic film could show different acoustic relaxation after isotope exchange at equal gas coverage.","test":"Measure isotope and modes.","contrary_result":"Coverage fully predicts relaxation.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0767","id":"S8-0767","volume":"900v8","title":"A crystalline powder could distinguish rotational from translational grain motion through cross-polarized acoustic scattering.","prediction":"A crystalline powder could distinguish rotational from translational grain motion through cross-polarized acoustic scattering.","test":"Track grains and waves.","contrary":"Scattering reflects displacement magnitude only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0767","hypothesis":"A crystalline powder could distinguish rotational from translational grain motion through cross-polarized acoustic scattering.","test":"Track grains and waves.","contrary_result":"Scattering reflects displacement magnitude only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0768","id":"S8-0768","volume":"900v8","title":"A thin optical film could retain the ordering of drying and loading in its recovered spectral linewidth.","prediction":"A thin optical film could retain the ordering of drying and loading in its recovered spectral linewidth.","test":"Reverse preparation order.","contrary":"Linewidth depends only on final state.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0768","hypothesis":"A thin optical film could retain the ordering of drying and loading in its recovered spectral linewidth.","test":"Reverse preparation order.","contrary_result":"Linewidth depends only on final state.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0769","id":"S8-0769","volume":"900v8","title":"A bubble-loaded membrane could reject one acoustic direction through time-dependent bubble adsorption at zero mean flow.","prediction":"A bubble-loaded membrane could reject one acoustic direction through time-dependent bubble adsorption at zero mean flow.","test":"Measure directional transfer.","contrary":"Transmission remains reciprocal under modulation.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0769","hypothesis":"A bubble-loaded membrane could reject one acoustic direction through time-dependent bubble adsorption at zero mean flow.","test":"Measure directional transfer.","contrary_result":"Transmission remains reciprocal under modulation.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0770","id":"S8-0770","volume":"900v8","title":"A weakly strained mineral could develop a thermal-noise node aligned with its defect orientation.","prediction":"A weakly strained mineral could develop a thermal-noise node aligned with its defect orientation.","test":"Map defects and thermal fluctuations.","contrary":"Noise remains isotropic.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0770","hypothesis":"A weakly strained mineral could develop a thermal-noise node aligned with its defect orientation.","test":"Map defects and thermal fluctuations.","contrary_result":"Noise remains isotropic.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0771","id":"S8-0771","volume":"900v8","title":"A porous waveguide could distinguish surface-connected from isolated gas using the phase of nonlinear harmonics.","prediction":"A porous waveguide could distinguish surface-connected from isolated gas using the phase of nonlinear harmonics.","test":"Measure topology and harmonics.","contrary":"Harmonics follow gas fraction only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0771","hypothesis":"A porous waveguide could distinguish surface-connected from isolated gas using the phase of nonlinear harmonics.","test":"Measure topology and harmonics.","contrary_result":"Harmonics follow gas fraction only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0772","id":"S8-0772","volume":"900v8","title":"A liquid-film resonator could have maximum mechanical coherence before maximum optical transparency during drying.","prediction":"A liquid-film resonator could have maximum mechanical coherence before maximum optical transparency during drying.","test":"Measure both recovery curves.","contrary":"Maxima coincide.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0772","hypothesis":"A liquid-film resonator could have maximum mechanical coherence before maximum optical transparency during drying.","test":"Measure both recovery curves.","contrary_result":"Maxima coincide.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0773","id":"S8-0773","volume":"900v8","title":"A magnetic interface could retain a pressure-ramp curvature in the waiting-time distribution of later domain jumps.","prediction":"A magnetic interface could retain a pressure-ramp curvature in the waiting-time distribution of later domain jumps.","test":"Match endpoints and duration.","contrary":"Distribution depends only on final pressure.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0773","hypothesis":"A magnetic interface could retain a pressure-ramp curvature in the waiting-time distribution of later domain jumps.","test":"Match endpoints and duration.","contrary_result":"Distribution depends only on final pressure.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0774","id":"S8-0774","volume":"900v8","title":"A dielectric shell could detect an internal concentration gradient from unequal rotational sideband decay.","prediction":"A dielectric shell could detect an internal concentration gradient from unequal rotational sideband decay.","test":"Measure gradients and spectra.","contrary":"Decay follows mean composition.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0774","hypothesis":"A dielectric shell could detect an internal concentration gradient from unequal rotational sideband decay.","test":"Measure gradients and spectra.","contrary_result":"Decay follows mean composition.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0775","id":"S8-0775","volume":"900v8","title":"A transient surface-charge stripe could guide a thermal wave indirectly through reversible contact deformation.","prediction":"A transient surface-charge stripe could guide a thermal wave indirectly through reversible contact deformation.","test":"Map charge, contact and heat.","contrary":"Guidance persists without deformation.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0775","hypothesis":"A transient surface-charge stripe could guide a thermal wave indirectly through reversible contact deformation.","test":"Map charge, contact and heat.","contrary_result":"Guidance persists without deformation.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0776","id":"S8-0776","volume":"900v8","title":"A thin crystal could reveal defect pairing through a reduction in fluorescence-noise skewness before mean intensity changes.","prediction":"A thin crystal could reveal defect pairing through a reduction in fluorescence-noise skewness before mean intensity changes.","test":"Measure defects and noise.","contrary":"Intensity changes first.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0776","hypothesis":"A thin crystal could reveal defect pairing through a reduction in fluorescence-noise skewness before mean intensity changes.","test":"Measure defects and noise.","contrary_result":"Intensity changes first.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0777","id":"S8-0777","volume":"900v8","title":"A suspended porous ring could distinguish inward from outward drying through opposite acoustic mode-crossing order.","prediction":"A suspended porous ring could distinguish inward from outward drying through opposite acoustic mode-crossing order.","test":"Map fronts and spectra.","contrary":"Crossings depend only on water mass.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0777","hypothesis":"A suspended porous ring could distinguish inward from outward drying through opposite acoustic mode-crossing order.","test":"Map fronts and spectra.","contrary_result":"Crossings depend only on water mass.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0778","id":"S8-0778","volume":"900v8","title":"A phase-modulated light field could stabilize an acoustic mode against adsorption-induced frequency drift.","prediction":"A phase-modulated light field could stabilize an acoustic mode against adsorption-induced frequency drift.","test":"Measure drift and phase.","contrary":"Stabilization requires lower adsorption.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0778","hypothesis":"A phase-modulated light field could stabilize an acoustic mode against adsorption-induced frequency drift.","test":"Measure drift and phase.","contrary_result":"Stabilization requires lower adsorption.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0779","id":"S8-0779","volume":"900v8","title":"A layered dielectric could show a pressure-sensitive optical phase echo after two unequal adsorption pulses.","prediction":"A layered dielectric could show a pressure-sensitive optical phase echo after two unequal adsorption pulses.","test":"Measure phase and uptake.","contrary":"Echo is ordinary mass relaxation.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0779","hypothesis":"A layered dielectric could show a pressure-sensitive optical phase echo after two unequal adsorption pulses.","test":"Measure phase and uptake.","contrary_result":"Echo is ordinary mass relaxation.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0780","id":"S8-0780","volume":"900v8","title":"A liquid-filled crystal cavity could exhibit a finite viscosity interval of enhanced thermal-noise coherence.","prediction":"A liquid-filled crystal cavity could exhibit a finite viscosity interval of enhanced thermal-noise coherence.","test":"Measure viscosity and correlations.","contrary":"Coherence varies monotonically.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0780","hypothesis":"A liquid-filled crystal cavity could exhibit a finite viscosity interval of enhanced thermal-noise coherence.","test":"Measure viscosity and correlations.","contrary_result":"Coherence varies monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0781","id":"S8-0781","volume":"900v8","title":"A magnetic grain boundary could redirect mechanical energy before its magnetization changes measurably.","prediction":"A magnetic grain boundary could redirect mechanical energy before its magnetization changes measurably.","test":"Measure waves and domains.","contrary":"Magnetic change always leads.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0781","hypothesis":"A magnetic grain boundary could redirect mechanical energy before its magnetization changes measurably.","test":"Measure waves and domains.","contrary_result":"Magnetic change always leads.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0782","id":"S8-0782","volume":"900v8","title":"A weakly curved membrane could focus a vapor-induced strain wave away from its geometric center.","prediction":"A weakly curved membrane could focus a vapor-induced strain wave away from its geometric center.","test":"Map uptake and strain.","contrary":"Focus follows curvature alone.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0782","hypothesis":"A weakly curved membrane could focus a vapor-induced strain wave away from its geometric center.","test":"Map uptake and strain.","contrary_result":"Focus follows curvature alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0783","id":"S8-0783","volume":"900v8","title":"A porous luminescent film could reveal internal condensation through a wavelength-dependent emission-delay splitting.","prediction":"A porous luminescent film could reveal internal condensation through a wavelength-dependent emission-delay splitting.","test":"Measure water state and timing.","contrary":"Delay follows total water only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0783","hypothesis":"A porous luminescent film could reveal internal condensation through a wavelength-dependent emission-delay splitting.","test":"Measure water state and timing.","contrary_result":"Delay follows total water only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0784","id":"S8-0784","volume":"900v8","title":"A thermal contact could distinguish reversible micro-slip from permanent wear through opposite acoustic phase hysteresis.","prediction":"A thermal contact could distinguish reversible micro-slip from permanent wear through opposite acoustic phase hysteresis.","test":"Calibrate histories.","contrary":"Hysteresis signatures coincide.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0784","hypothesis":"A thermal contact could distinguish reversible micro-slip from permanent wear through opposite acoustic phase hysteresis.","test":"Calibrate histories.","contrary_result":"Hysteresis signatures coincide.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0785","id":"S8-0785","volume":"900v8","title":"A crystalline wave cavity could preserve pulse duration in its late-time spatial energy pattern at equal total energy.","prediction":"A crystalline wave cavity could preserve pulse duration in its late-time spatial energy pattern at equal total energy.","test":"Vary duration.","contrary":"Pattern depends only on energy.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0785","hypothesis":"A crystalline wave cavity could preserve pulse duration in its late-time spatial energy pattern at equal total energy.","test":"Vary duration.","contrary_result":"Pattern depends only on energy.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0786","id":"S8-0786","volume":"900v8","title":"A gas-loaded optical particle could change rotation-noise chirality during desorption without reversing mean rotation.","prediction":"A gas-loaded optical particle could change rotation-noise chirality during desorption without reversing mean rotation.","test":"Measure uptake and angular fluctuations.","contrary":"Chirality follows mean rotation sign only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0786","hypothesis":"A gas-loaded optical particle could change rotation-noise chirality during desorption without reversing mean rotation.","test":"Measure uptake and angular fluctuations.","contrary_result":"Chirality follows mean rotation sign only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0787","id":"S8-0787","volume":"900v8","title":"A thin semiconductor layer could show a reversible thermopower plateau during strain-gradient relaxation.","prediction":"A thin semiconductor layer could show a reversible thermopower plateau during strain-gradient relaxation.","test":"Measure strain and voltage.","contrary":"Voltage decays monotonically without a plateau.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0787","hypothesis":"A thin semiconductor layer could show a reversible thermopower plateau during strain-gradient relaxation.","test":"Measure strain and voltage.","contrary_result":"Voltage decays monotonically without a plateau.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0788","id":"S8-0788","volume":"900v8","title":"A compliant photonic lattice could shift a localized mode away from an approaching liquid front.","prediction":"A compliant photonic lattice could shift a localized mode away from an approaching liquid front.","test":"Map liquid and optical fields.","contrary":"Localization follows the front only after contact.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0788","hypothesis":"A compliant photonic lattice could shift a localized mode away from an approaching liquid front.","test":"Map liquid and optical fields.","contrary_result":"Localization follows the front only after contact.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0789","id":"S8-0789","volume":"900v8","title":"A dielectric interface could suppress one noise band while enhancing another during neutral gas adsorption.","prediction":"A dielectric interface could suppress one noise band while enhancing another during neutral gas adsorption.","test":"Measure spectra and uptake.","contrary":"All bands change proportionally.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0789","hypothesis":"A dielectric interface could suppress one noise band while enhancing another during neutral gas adsorption.","test":"Measure spectra and uptake.","contrary_result":"All bands change proportionally.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0790","id":"S8-0790","volume":"900v8","title":"A liquid-shell resonator could distinguish a trapped solid inclusion from a trapped gas inclusion through opposite nonlinear frequency shifts.","prediction":"A liquid-shell resonator could distinguish a trapped solid inclusion from a trapped gas inclusion through opposite nonlinear frequency shifts.","test":"Calibrate inclusions.","contrary":"Shifts follow displaced volume only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0790","hypothesis":"A liquid-shell resonator could distinguish a trapped solid inclusion from a trapped gas inclusion through opposite nonlinear frequency shifts.","test":"Calibrate inclusions.","contrary_result":"Shifts follow displaced volume only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0791","id":"S8-0791","volume":"900v8","title":"A weakly disordered magnetic array could show increased coherence after removing one selected grain.","prediction":"A weakly disordered magnetic array could show increased coherence after removing one selected grain.","test":"Measure correlations before removal.","contrary":"Any removal lowers coherence.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0791","hypothesis":"A weakly disordered magnetic array could show increased coherence after removing one selected grain.","test":"Measure correlations before removal.","contrary_result":"Any removal lowers coherence.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0792","id":"S8-0792","volume":"900v8","title":"A thermal boundary could produce a delayed optical speckle echo after a mechanically silent heat pulse.","prediction":"A thermal boundary could produce a delayed optical speckle echo after a mechanically silent heat pulse.","test":"Measure heat, strain and optics.","contrary":"Echo requires acoustic reflection.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0792","hypothesis":"A thermal boundary could produce a delayed optical speckle echo after a mechanically silent heat pulse.","test":"Measure heat, strain and optics.","contrary_result":"Echo requires acoustic reflection.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0793","id":"S8-0793","volume":"900v8","title":"A porous crystal could retain the handedness of a traveling humidity pattern in its later acoustic polarization.","prediction":"A porous crystal could retain the handedness of a traveling humidity pattern in its later acoustic polarization.","test":"Reverse pattern travel.","contrary":"Polarization becomes independent of history.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0793","hypothesis":"A porous crystal could retain the handedness of a traveling humidity pattern in its later acoustic polarization.","test":"Reverse pattern travel.","contrary_result":"Polarization becomes independent of history.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0794","id":"S8-0794","volume":"900v8","title":"A thin conducting film could detect local delamination through thermal-noise anticorrelation before resistance changes.","prediction":"A thin conducting film could detect local delamination through thermal-noise anticorrelation before resistance changes.","test":"Measure interface and signals.","contrary":"Resistance detection leads.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0794","hypothesis":"A thin conducting film could detect local delamination through thermal-noise anticorrelation before resistance changes.","test":"Measure interface and signals.","contrary_result":"Resistance detection leads.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0795","id":"S8-0795","volume":"900v8","title":"A coupled liquid-acoustic cavity could have a stable oscillation amplitude selected by adsorption saturation.","prediction":"A coupled liquid-acoustic cavity could have a stable oscillation amplitude selected by adsorption saturation.","test":"Measure amplitude and coverage.","contrary":"Oscillation requires external amplitude control.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0795","hypothesis":"A coupled liquid-acoustic cavity could have a stable oscillation amplitude selected by adsorption saturation.","test":"Measure amplitude and coverage.","contrary_result":"Oscillation requires external amplitude control.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0796","id":"S8-0796","volume":"900v8","title":"A crystalline surface could distinguish two equal-energy light pulses by their order through delayed mechanical recoil.","prediction":"A crystalline surface could distinguish two equal-energy light pulses by their order through delayed mechanical recoil.","test":"Reverse wavelength order.","contrary":"Recoil depends only on total absorbed energy.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0796","hypothesis":"A crystalline surface could distinguish two equal-energy light pulses by their order through delayed mechanical recoil.","test":"Reverse wavelength order.","contrary_result":"Recoil depends only on total absorbed energy.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0797","id":"S8-0797","volume":"900v8","title":"A suspended dielectric could reveal buried stress through polarization-dependent force fluctuations at zero applied field.","prediction":"A suspended dielectric could reveal buried stress through polarization-dependent force fluctuations at zero applied field.","test":"Map stress and noise.","contrary":"Fluctuations are polarization independent.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0797","hypothesis":"A suspended dielectric could reveal buried stress through polarization-dependent force fluctuations at zero applied field.","test":"Map stress and noise.","contrary_result":"Fluctuations are polarization independent.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0798","id":"S8-0798","volume":"900v8","title":"A thin granular coating could guide a surface wave through a path selected by its last gentle compression.","prediction":"A thin granular coating could guide a surface wave through a path selected by its last gentle compression.","test":"Map contacts and waves.","contrary":"Paths follow permanent geometry only.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0798","hypothesis":"A thin granular coating could guide a surface wave through a path selected by its last gentle compression.","test":"Map contacts and waves.","contrary_result":"Paths follow permanent geometry only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0799","id":"S8-0799","volume":"900v8","title":"A vapor-sensitive resonator could separate adsorption enthalpy from mass loading through early and late phase differences.","prediction":"A vapor-sensitive resonator could separate adsorption enthalpy from mass loading through early and late phase differences.","test":"Measure heat and uptake.","contrary":"One mass-loading response explains both.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0799","hypothesis":"A vapor-sensitive resonator could separate adsorption enthalpy from mass loading through early and late phase differences.","test":"Measure heat and uptake.","contrary_result":"One mass-loading response explains both.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0800","id":"S8-0800","volume":"900v8","title":"A liquid-filled interface could recover optical reciprocity before acoustic reciprocity after flow cessation.","prediction":"A liquid-filled interface could recover optical reciprocity before acoustic reciprocity after flow cessation.","test":"Measure both transfer channels.","contrary":"Both recover simultaneously.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0800","hypothesis":"A liquid-filled interface could recover optical reciprocity before acoustic reciprocity after flow cessation.","test":"Measure both transfer channels.","contrary_result":"Both recover simultaneously.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0801","id":"S8-0801","volume":"900v8","title":"A thin syrup-free aqueous film could dry more uniformly over a shallow spiral groove than a radial groove of equal length.","prediction":"A thin syrup-free aqueous film could dry more uniformly over a shallow spiral groove than a radial groove of equal length.","test":"Map thickness and drying.","contrary":"Geometry changes only total drying time.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0801","hypothesis":"A thin syrup-free aqueous film could dry more uniformly over a shallow spiral groove than a radial groove of equal length.","test":"Map thickness and drying.","contrary_result":"Geometry changes only total drying time.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0801","hypothesis":"A thin syrup-free aqueous film could dry more uniformly over a shallow spiral groove than a radial groove of equal length.","test":"Map thickness and drying.","contrary_result":"Geometry changes only total drying time.","status":"Untested; novelty unverified","selection_rationale":"Groove geometries can be matched for length and wetted area.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0802","id":"S8-0802","volume":"900v8","title":"A partially wetted chalk cylinder could roll uphill on a slight slope through asymmetric drying contraction.","prediction":"A partially wetted chalk cylinder could roll uphill on a slight slope through asymmetric drying contraction.","test":"Measure mass, shape and motion.","contrary":"Motion requires external vibration.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0802","hypothesis":"A partially wetted chalk cylinder could roll uphill on a slight slope through asymmetric drying contraction.","test":"Measure mass, shape and motion.","contrary_result":"Motion requires external vibration.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0803","id":"S8-0803","volume":"900v8","title":"A perforated floating foil could damp waves most at intermediate immersion depth.","prediction":"A perforated floating foil could damp waves most at intermediate immersion depth.","test":"Measure wave transmission versus depth.","contrary":"Damping changes monotonically.","layers":[1,2,3],"categories":["physical","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0803","hypothesis":"A perforated floating foil could damp waves most at intermediate immersion depth.","test":"Measure wave transmission versus depth.","contrary_result":"Damping changes monotonically.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0803","hypothesis":"A perforated floating foil could damp waves most at intermediate immersion depth.","test":"Measure wave transmission versus depth.","contrary_result":"Damping changes monotonically.","status":"Untested; novelty unverified","selection_rationale":"Immersion depth is readily controlled while measuring wave transmission.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":{"id":"S8-0803","hypothesis":"A perforated floating foil could damp waves most at intermediate immersion depth.","test":"Measure wave transmission versus depth.","contrary_result":"Damping changes monotonically.","status":"Untested; novelty unverified"},"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0804","id":"S8-0804","volume":"900v8","title":"A glass bead on a flexible strip could move toward a cooling region through contact-radius changes.","prediction":"A glass bead on a flexible strip could move toward a cooling region through contact-radius changes.","test":"Measure temperature and bead motion.","contrary":"Motion follows strip tilt only.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0804","hypothesis":"A glass bead on a flexible strip could move toward a cooling region through contact-radius changes.","test":"Measure temperature and bead motion.","contrary_result":"Motion follows strip tilt only.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0804","hypothesis":"A glass bead on a flexible strip could move toward a cooling region through contact-radius changes.","test":"Measure temperature and bead motion.","contrary_result":"Motion follows strip tilt only.","status":"Untested; novelty unverified","selection_rationale":"Tilt controls challenge thermal-contact-induced bead motion.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0805","id":"S8-0805","volume":"900v8","title":"A shallow water tray could reveal a buried insulating patch through droplet-condensation timing above it.","prediction":"A shallow water tray could reveal a buried insulating patch through droplet-condensation timing above it.","test":"Map heat and droplets.","contrary":"Timing follows surface temperature alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0805","hypothesis":"A shallow water tray could reveal a buried insulating patch through droplet-condensation timing above it.","test":"Map heat and droplets.","contrary_result":"Timing follows surface temperature alone.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0806","id":"S8-0806","volume":"900v8","title":"A dry paper arch could recover more load capacity after partial rewetting than complete rewetting at equal final water.","prediction":"A dry paper arch could recover more load capacity after partial rewetting than complete rewetting at equal final water.","test":"Measure strain and failure.","contrary":"Capacity follows final water only.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0806","hypothesis":"A dry paper arch could recover more load capacity after partial rewetting than complete rewetting at equal final water.","test":"Measure strain and failure.","contrary_result":"Capacity follows final water only.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0806","hypothesis":"A dry paper arch could recover more load capacity after partial rewetting than complete rewetting at equal final water.","test":"Measure strain and failure.","contrary_result":"Capacity follows final water only.","status":"Untested; novelty unverified","selection_rationale":"Partial and full wetting paths can end at matched water mass.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0807","id":"S8-0807","volume":"900v8","title":"A suspended salt grain could show a rotation-frequency precursor to its first visible dissolution pit.","prediction":"A suspended salt grain could show a rotation-frequency precursor to its first visible dissolution pit.","test":"Measure motion and microscopy.","contrary":"Pits appear before rotation changes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0807","hypothesis":"A suspended salt grain could show a rotation-frequency precursor to its first visible dissolution pit.","test":"Measure motion and microscopy.","contrary_result":"Pits appear before rotation changes.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0808","id":"S8-0808","volume":"900v8","title":"A stack of thin metal disks could conduct heat better after weak torsional alignment without increased clamping force.","prediction":"A stack of thin metal disks could conduct heat better after weak torsional alignment without increased clamping force.","test":"Measure contacts and heat.","contrary":"Force alone predicts conductance.","layers":[1,2,3],"categories":["physical","energy","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0808","hypothesis":"A stack of thin metal disks could conduct heat better after weak torsional alignment without increased clamping force.","test":"Measure contacts and heat.","contrary_result":"Force alone predicts conductance.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0808","hypothesis":"A stack of thin metal disks could conduct heat better after weak torsional alignment without increased clamping force.","test":"Measure contacts and heat.","contrary_result":"Force alone predicts conductance.","status":"Untested; novelty unverified","selection_rationale":"Heat flux and contact mapping test torsional contact improvement.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":{"id":"S8-0808","hypothesis":"A stack of thin metal disks could conduct heat better after weak torsional alignment without increased clamping force.","test":"Measure contacts and heat.","contrary_result":"Force alone predicts conductance.","status":"Untested; novelty unverified"},"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0809","id":"S8-0809","volume":"900v8","title":"A soft-walled air bottle could distinguish a short tap from a pressure puff through different late acoustic modes.","prediction":"A soft-walled air bottle could distinguish a short tap from a pressure puff through different late acoustic modes.","test":"Apply calibrated inputs.","contrary":"Late modes depend only on energy.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0809","hypothesis":"A soft-walled air bottle could distinguish a short tap from a pressure puff through different late acoustic modes.","test":"Apply calibrated inputs.","contrary_result":"Late modes depend only on energy.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0809","hypothesis":"A soft-walled air bottle could distinguish a short tap from a pressure puff through different late acoustic modes.","test":"Apply calibrated inputs.","contrary_result":"Late modes depend only on energy.","status":"Untested; novelty unverified","selection_rationale":"Calibrated taps and puffs provide distinct input controls.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0810","id":"S8-0810","volume":"900v8","title":"A thin water bridge between glass rods could retain rod-rotation direction in its breakup side.","prediction":"A thin water bridge between glass rods could retain rod-rotation direction in its breakup side.","test":"Reverse rotation histories.","contrary":"Breakup follows final geometry only.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0810","hypothesis":"A thin water bridge between glass rods could retain rod-rotation direction in its breakup side.","test":"Reverse rotation histories.","contrary_result":"Breakup follows final geometry only.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0810","hypothesis":"A thin water bridge between glass rods could retain rod-rotation direction in its breakup side.","test":"Reverse rotation histories.","contrary_result":"Breakup follows final geometry only.","status":"Untested; novelty unverified","selection_rationale":"Reversed rotation histories test bridge breakup memory.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0811","id":"S8-0811","volume":"900v8","title":"A granular funnel could reduce discharge intermittency after a brief counter-rotation at unchanged aperture.","prediction":"A granular funnel could reduce discharge intermittency after a brief counter-rotation at unchanged aperture.","test":"Measure contacts and flow.","contrary":"Counter-rotation only increases clogging.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0811","hypothesis":"A granular funnel could reduce discharge intermittency after a brief counter-rotation at unchanged aperture.","test":"Measure contacts and flow.","contrary_result":"Counter-rotation only increases clogging.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0811","hypothesis":"A granular funnel could reduce discharge intermittency after a brief counter-rotation at unchanged aperture.","test":"Measure contacts and flow.","contrary_result":"Counter-rotation only increases clogging.","status":"Untested; novelty unverified","selection_rationale":"Aperture-fixed preparation isolates contact rearrangement in discharge.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0812","id":"S8-0812","volume":"900v8","title":"A wet cellulose ribbon could develop a stable helical segment under uniform axial tension.","prediction":"A wet cellulose ribbon could develop a stable helical segment under uniform axial tension.","test":"Map water and twist.","contrary":"Helix requires an imposed torsion.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0812","hypothesis":"A wet cellulose ribbon could develop a stable helical segment under uniform axial tension.","test":"Map water and twist.","contrary_result":"Helix requires an imposed torsion.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0813","id":"S8-0813","volume":"900v8","title":"A small ceramic tile could reveal internal water redistribution through a delayed thermal rebound after airflow stops.","prediction":"A small ceramic tile could reveal internal water redistribution through a delayed thermal rebound after airflow stops.","test":"Measure mass and temperature.","contrary":"Temperature rises monotonically.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0813","hypothesis":"A small ceramic tile could reveal internal water redistribution through a delayed thermal rebound after airflow stops.","test":"Measure mass and temperature.","contrary_result":"Temperature rises monotonically.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0813","hypothesis":"A small ceramic tile could reveal internal water redistribution through a delayed thermal rebound after airflow stops.","test":"Measure mass and temperature.","contrary_result":"Temperature rises monotonically.","status":"Untested; novelty unverified","selection_rationale":"Mass and temperature can distinguish redistribution from net drying.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0814","id":"S8-0814","volume":"900v8","title":"A floating ice disk could rotate toward a warm boundary before measurable asymmetric melting.","prediction":"A floating ice disk could rotate toward a warm boundary before measurable asymmetric melting.","test":"Measure heat and motion.","contrary":"Rotation follows visible shape asymmetry only.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0814","hypothesis":"A floating ice disk could rotate toward a warm boundary before measurable asymmetric melting.","test":"Measure heat and motion.","contrary_result":"Rotation follows visible shape asymmetry only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0815","id":"S8-0815","volume":"900v8","title":"A bent drinking-straw-scale tube could trap dissolved-gas release preferentially at its cooler bend wall.","prediction":"A bent drinking-straw-scale tube could trap dissolved-gas release preferentially at its cooler bend wall.","test":"Image bubbles and temperature.","contrary":"Trapping follows geometry alone.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0815","hypothesis":"A bent drinking-straw-scale tube could trap dissolved-gas release preferentially at its cooler bend wall.","test":"Image bubbles and temperature.","contrary_result":"Trapping follows geometry alone.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0815","hypothesis":"A bent drinking-straw-scale tube could trap dissolved-gas release preferentially at its cooler bend wall.","test":"Image bubbles and temperature.","contrary_result":"Trapping follows geometry alone.","status":"Untested; novelty unverified","selection_rationale":"Bubble position and local temperature can be imaged together.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0816","id":"S8-0816","volume":"900v8","title":"A dry sand ring could carry load more evenly after a weak central cooling pulse.","prediction":"A dry sand ring could carry load more evenly after a weak central cooling pulse.","test":"Map temperature and contact forces.","contrary":"Redistribution requires vibration.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0816","hypothesis":"A dry sand ring could carry load more evenly after a weak central cooling pulse.","test":"Map temperature and contact forces.","contrary_result":"Redistribution requires vibration.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0817","id":"S8-0817","volume":"900v8","title":"A folded aluminum strip could switch its dominant cooling surface through reversible self-contact.","prediction":"A folded aluminum strip could switch its dominant cooling surface through reversible self-contact.","test":"Measure contacts and heat.","contrary":"Both surfaces cool proportionally.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0817","hypothesis":"A folded aluminum strip could switch its dominant cooling surface through reversible self-contact.","test":"Measure contacts and heat.","contrary_result":"Both surfaces cool proportionally.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0817","hypothesis":"A folded aluminum strip could switch its dominant cooling surface through reversible self-contact.","test":"Measure contacts and heat.","contrary_result":"Both surfaces cool proportionally.","status":"Untested; novelty unverified","selection_rationale":"Reversible self-contact provides a direct heat-routing intervention.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0818","id":"S8-0818","volume":"900v8","title":"A thin water film could clean a dusty groove better after a short pause than continuous equal-volume flow.","prediction":"A thin water film could clean a dusty groove better after a short pause than continuous equal-volume flow.","test":"Measure retained dust.","contrary":"Cleaning follows total liquid volume only.","layers":[1,2,3],"categories":["physical","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0818","hypothesis":"A thin water film could clean a dusty groove better after a short pause than continuous equal-volume flow.","test":"Measure retained dust.","contrary_result":"Cleaning follows total liquid volume only.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0818","hypothesis":"A thin water film could clean a dusty groove better after a short pause than continuous equal-volume flow.","test":"Measure retained dust.","contrary_result":"Cleaning follows total liquid volume only.","status":"Untested; novelty unverified","selection_rationale":"Equal liquid volume challenges a pause-specific cleaning advantage.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":{"id":"S8-0818","hypothesis":"A thin water film could clean a dusty groove better after a short pause than continuous equal-volume flow.","test":"Measure retained dust.","contrary_result":"Cleaning follows total liquid volume only.","status":"Untested; novelty unverified"},"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0819","id":"S8-0819","volume":"900v8","title":"A suspended wooden sliver could reveal vapor direction through a transient torsion before net mass uptake.","prediction":"A suspended wooden sliver could reveal vapor direction through a transient torsion before net mass uptake.","test":"Measure angle and mass.","contrary":"Motion follows uniform expansion.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0819","hypothesis":"A suspended wooden sliver could reveal vapor direction through a transient torsion before net mass uptake.","test":"Measure angle and mass.","contrary_result":"Motion follows uniform expansion.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0819","hypothesis":"A suspended wooden sliver could reveal vapor direction through a transient torsion before net mass uptake.","test":"Measure angle and mass.","contrary_result":"Motion follows uniform expansion.","status":"Untested; novelty unverified","selection_rationale":"Torsion and mass have separable detection thresholds.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0820","id":"S8-0820","volume":"900v8","title":"A floating particle cluster could resist fragmentation better after a brief inward water pulse than an outward pulse.","prediction":"A floating particle cluster could resist fragmentation better after a brief inward water pulse than an outward pulse.","test":"Measure cluster contacts and failure.","contrary":"Only pulse energy matters.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0820","hypothesis":"A floating particle cluster could resist fragmentation better after a brief inward water pulse than an outward pulse.","test":"Measure cluster contacts and failure.","contrary_result":"Only pulse energy matters.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0820","hypothesis":"A floating particle cluster could resist fragmentation better after a brief inward water pulse than an outward pulse.","test":"Measure cluster contacts and failure.","contrary_result":"Only pulse energy matters.","status":"Untested; novelty unverified","selection_rationale":"Inward and outward pulses can be energy-matched.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0821","id":"S8-0821","volume":"900v8","title":"A pair of glass slides could release a capillary bridge at lower force after a controlled lateral microstep.","prediction":"A pair of glass slides could release a capillary bridge at lower force after a controlled lateral microstep.","test":"Measure interface and force.","contrary":"Release follows separation alone.","layers":[1,2,3],"categories":["physical","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0821","hypothesis":"A pair of glass slides could release a capillary bridge at lower force after a controlled lateral microstep.","test":"Measure interface and force.","contrary_result":"Release follows separation alone.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0821","hypothesis":"A pair of glass slides could release a capillary bridge at lower force after a controlled lateral microstep.","test":"Measure interface and force.","contrary_result":"Release follows separation alone.","status":"Untested; novelty unverified","selection_rationale":"A reversible lateral step provides a simple adhesion perturbation.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":{"id":"S8-0821","hypothesis":"A pair of glass slides could release a capillary bridge at lower force after a controlled lateral microstep.","test":"Measure interface and force.","contrary_result":"Release follows separation alone.","status":"Untested; novelty unverified"},"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0822","id":"S8-0822","volume":"900v8","title":"A wet sand plug could show a thermal-noise warning before gas breakthrough under slowly increasing pressure.","prediction":"A wet sand plug could show a thermal-noise warning before gas breakthrough under slowly increasing pressure.","test":"Measure temperature and flow.","contrary":"Gas breakthrough appears first.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0822","hypothesis":"A wet sand plug could show a thermal-noise warning before gas breakthrough under slowly increasing pressure.","test":"Measure temperature and flow.","contrary_result":"Gas breakthrough appears first.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0823","id":"S8-0823","volume":"900v8","title":"A porous clay bead could develop a temporary equatorial dry band during uniform air drying.","prediction":"A porous clay bead could develop a temporary equatorial dry band during uniform air drying.","test":"Image water distribution.","contrary":"Drying remains radially symmetric.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0823","hypothesis":"A porous clay bead could develop a temporary equatorial dry band during uniform air drying.","test":"Image water distribution.","contrary_result":"Drying remains radially symmetric.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0823","hypothesis":"A porous clay bead could develop a temporary equatorial dry band during uniform air drying.","test":"Image water distribution.","contrary_result":"Drying remains radially symmetric.","status":"Untested; novelty unverified","selection_rationale":"Water imaging can reveal a temporary nonradial drying band.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0824","id":"S8-0824","volume":"900v8","title":"A thin elastic ring could distinguish local icing from uniform cooling through opposite mode-axis rotation.","prediction":"A thin elastic ring could distinguish local icing from uniform cooling through opposite mode-axis rotation.","test":"Calibrate both conditions.","contrary":"Axes respond identically.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0824","hypothesis":"A thin elastic ring could distinguish local icing from uniform cooling through opposite mode-axis rotation.","test":"Calibrate both conditions.","contrary_result":"Axes respond identically.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0824","hypothesis":"A thin elastic ring could distinguish local icing from uniform cooling through opposite mode-axis rotation.","test":"Calibrate both conditions.","contrary_result":"Axes respond identically.","status":"Untested; novelty unverified","selection_rationale":"Cooling and icing can be calibrated as separate inputs.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0825","id":"S8-0825","volume":"900v8","title":"A small water-filled cavity could suppress an impact sound more after partial degassing than full degassing.","prediction":"A small water-filled cavity could suppress an impact sound more after partial degassing than full degassing.","test":"Measure gas and sound.","contrary":"Suppression varies monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0825","hypothesis":"A small water-filled cavity could suppress an impact sound more after partial degassing than full degassing.","test":"Measure gas and sound.","contrary_result":"Suppression varies monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0826","id":"S8-0826","volume":"900v8","title":"A dry powder heap could retain a gentle airflow's direction in its later wetting path without visible erosion.","prediction":"A dry powder heap could retain a gentle airflow's direction in its later wetting path without visible erosion.","test":"Map surface and fronts.","contrary":"Wetting is insensitive to conditioning.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0826","hypothesis":"A dry powder heap could retain a gentle airflow's direction in its later wetting path without visible erosion.","test":"Map surface and fronts.","contrary_result":"Wetting is insensitive to conditioning.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0827","id":"S8-0827","volume":"900v8","title":"A liquid bridge over a scratch could rupture later when the scratch is slightly off-center.","prediction":"A liquid bridge over a scratch could rupture later when the scratch is slightly off-center.","test":"Measure neck motion and lifetime.","contrary":"Centered placement always maximizes lifetime.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0827","hypothesis":"A liquid bridge over a scratch could rupture later when the scratch is slightly off-center.","test":"Measure neck motion and lifetime.","contrary_result":"Centered placement always maximizes lifetime.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0827","hypothesis":"A liquid bridge over a scratch could rupture later when the scratch is slightly off-center.","test":"Measure neck motion and lifetime.","contrary_result":"Centered placement always maximizes lifetime.","status":"Untested; novelty unverified","selection_rationale":"Scratch position can be varied without changing chemistry.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0828","id":"S8-0828","volume":"900v8","title":"A soft porous pad could distribute liquid more uniformly after light tapping during initial uptake.","prediction":"A soft porous pad could distribute liquid more uniformly after light tapping during initial uptake.","test":"Image liquid and pore motion.","contrary":"Uniformity requires bulk compression.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0828","hypothesis":"A soft porous pad could distribute liquid more uniformly after light tapping during initial uptake.","test":"Image liquid and pore motion.","contrary_result":"Uniformity requires bulk compression.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0828","hypothesis":"A soft porous pad could distribute liquid more uniformly after light tapping during initial uptake.","test":"Image liquid and pore motion.","contrary_result":"Uniformity requires bulk compression.","status":"Untested; novelty unverified","selection_rationale":"Tapping can be applied without sustained compression.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0829","id":"S8-0829","volume":"900v8","title":"A chilled rough tile could retain less frost after a brief warming pause despite equal total heat removal.","prediction":"A chilled rough tile could retain less frost after a brief warming pause despite equal total heat removal.","test":"Measure heat and ice mass.","contrary":"Only final temperature matters.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0829","hypothesis":"A chilled rough tile could retain less frost after a brief warming pause despite equal total heat removal.","test":"Measure heat and ice mass.","contrary_result":"Only final temperature matters.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0830","id":"S8-0830","volume":"900v8","title":"A hollow plant stalk could indicate internal droplet position through a pair of audible mode shifts.","prediction":"A hollow plant stalk could indicate internal droplet position through a pair of audible mode shifts.","test":"Move known droplets.","contrary":"Modes reveal total mass only.","layers":[1,2],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0830","hypothesis":"A hollow plant stalk could indicate internal droplet position through a pair of audible mode shifts.","test":"Move known droplets.","contrary_result":"Modes reveal total mass only.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0830","hypothesis":"A hollow plant stalk could indicate internal droplet position through a pair of audible mode shifts.","test":"Move known droplets.","contrary_result":"Modes reveal total mass only.","status":"Untested; novelty unverified","selection_rationale":"Known droplet placement makes mode identifiability testable.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0831","id":"S8-0831","volume":"900v8","title":"A thin ceramic plate could have a maximum bending recovery after a finite humidity hold.","prediction":"A thin ceramic plate could have a maximum bending recovery after a finite humidity hold.","test":"Measure curvature across holds.","contrary":"Recovery increases monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0831","hypothesis":"A thin ceramic plate could have a maximum bending recovery after a finite humidity hold.","test":"Measure curvature across holds.","contrary_result":"Recovery increases monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0832","id":"S8-0832","volume":"900v8","title":"A bead-filled flexible pouch could absorb more rebound energy when one corner is slightly vented.","prediction":"A bead-filled flexible pouch could absorb more rebound energy when one corner is slightly vented.","test":"Measure pressure and rebound.","contrary":"Full sealing always maximizes absorption.","layers":[1,2,3],"categories":["physical","energy","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0832","hypothesis":"A bead-filled flexible pouch could absorb more rebound energy when one corner is slightly vented.","test":"Measure pressure and rebound.","contrary_result":"Full sealing always maximizes absorption.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0832","hypothesis":"A bead-filled flexible pouch could absorb more rebound energy when one corner is slightly vented.","test":"Measure pressure and rebound.","contrary_result":"Full sealing always maximizes absorption.","status":"Untested; novelty unverified","selection_rationale":"A reversible vent isolates pneumatic contribution to rebound.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":{"id":"S8-0832","hypothesis":"A bead-filled flexible pouch could absorb more rebound energy when one corner is slightly vented.","test":"Measure pressure and rebound.","contrary_result":"Full sealing always maximizes absorption.","status":"Untested; novelty unverified"},"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0833","id":"S8-0833","volume":"900v8","title":"A wet string knot could tighten more under alternating temperature than constant mean temperature at equal water mass.","prediction":"A wet string knot could tighten more under alternating temperature than constant mean temperature at equal water mass.","test":"Measure contacts and tension.","contrary":"Tightness follows water content only.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0833","hypothesis":"A wet string knot could tighten more under alternating temperature than constant mean temperature at equal water mass.","test":"Measure contacts and tension.","contrary_result":"Tightness follows water content only.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0833","hypothesis":"A wet string knot could tighten more under alternating temperature than constant mean temperature at equal water mass.","test":"Measure contacts and tension.","contrary_result":"Tightness follows water content only.","status":"Untested; novelty unverified","selection_rationale":"Water mass can be controlled during thermal knot cycling.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0834","id":"S8-0834","volume":"900v8","title":"A shallow liquid layer could retain a moving light spot's direction in its subsequent evaporation stripes.","prediction":"A shallow liquid layer could retain a moving light spot's direction in its subsequent evaporation stripes.","test":"Reverse spot motion.","contrary":"Stripes follow final temperature only.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0834","hypothesis":"A shallow liquid layer could retain a moving light spot's direction in its subsequent evaporation stripes.","test":"Reverse spot motion.","contrary_result":"Stripes follow final temperature only.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0834","hypothesis":"A shallow liquid layer could retain a moving light spot's direction in its subsequent evaporation stripes.","test":"Reverse spot motion.","contrary_result":"Stripes follow final temperature only.","status":"Untested; novelty unverified","selection_rationale":"Reversed moving-light paths test retained evaporation direction.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0835","id":"S8-0835","volume":"900v8","title":"A granular lid could reject a single gas bubble but pass repeated smaller bubbles through reversible rearrangement.","prediction":"A granular lid could reject a single gas bubble but pass repeated smaller bubbles through reversible rearrangement.","test":"Measure bubble passage and grains.","contrary":"Only total gas volume matters.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0835","hypothesis":"A granular lid could reject a single gas bubble but pass repeated smaller bubbles through reversible rearrangement.","test":"Measure bubble passage and grains.","contrary_result":"Only total gas volume matters.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0836","id":"S8-0836","volume":"900v8","title":"A flexible glass-fiber bundle could show lower acoustic loss after a weak humidity pulse without greater average stiffness.","prediction":"A flexible glass-fiber bundle could show lower acoustic loss after a weak humidity pulse without greater average stiffness.","test":"Measure both channels.","contrary":"Loss changes require stiffness changes.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0836","hypothesis":"A flexible glass-fiber bundle could show lower acoustic loss after a weak humidity pulse without greater average stiffness.","test":"Measure both channels.","contrary_result":"Loss changes require stiffness changes.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0836","hypothesis":"A flexible glass-fiber bundle could show lower acoustic loss after a weak humidity pulse without greater average stiffness.","test":"Measure both channels.","contrary_result":"Loss changes require stiffness changes.","status":"Untested; novelty unverified","selection_rationale":"Acoustic loss and stiffness can be measured independently.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0837","id":"S8-0837","volume":"900v8","title":"A salt-coated metal strip could reverse its thermal curvature during drying before salt crystallizes visibly.","prediction":"A salt-coated metal strip could reverse its thermal curvature during drying before salt crystallizes visibly.","test":"Measure composition and bending.","contrary":"Curvature retains one sign.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0837","hypothesis":"A salt-coated metal strip could reverse its thermal curvature during drying before salt crystallizes visibly.","test":"Measure composition and bending.","contrary_result":"Curvature retains one sign.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0838","id":"S8-0838","volume":"900v8","title":"A porous stone resting on three supports could redistribute water toward its least loaded support.","prediction":"A porous stone resting on three supports could redistribute water toward its least loaded support.","test":"Measure load and water maps.","contrary":"Water follows gravity only.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0838","hypothesis":"A porous stone resting on three supports could redistribute water toward its least loaded support.","test":"Measure load and water maps.","contrary_result":"Water follows gravity only.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0838","hypothesis":"A porous stone resting on three supports could redistribute water toward its least loaded support.","test":"Measure load and water maps.","contrary_result":"Water follows gravity only.","status":"Untested; novelty unverified","selection_rationale":"Support forces permit a spatial hydraulic-load comparison.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0839","id":"S8-0839","volume":"900v8","title":"A thin droplet train could regularize its spacing after crossing a shallow surface-wettability discontinuity.","prediction":"A thin droplet train could regularize its spacing after crossing a shallow surface-wettability discontinuity.","test":"Track intervals.","contrary":"Spacing variance remains unchanged.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0839","hypothesis":"A thin droplet train could regularize its spacing after crossing a shallow surface-wettability discontinuity.","test":"Track intervals.","contrary_result":"Spacing variance remains unchanged.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0839","hypothesis":"A thin droplet train could regularize its spacing after crossing a shallow surface-wettability discontinuity.","test":"Track intervals.","contrary_result":"Spacing variance remains unchanged.","status":"Untested; novelty unverified","selection_rationale":"Trajectory timing directly quantifies droplet-spacing variance.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0840","id":"S8-0840","volume":"900v8","title":"A lightly compressed sponge could release a dissolved harmless tracer in a sharper pulse after partial unloading.","prediction":"A lightly compressed sponge could release a dissolved harmless tracer in a sharper pulse after partial unloading.","test":"Measure flow and concentration.","contrary":"Unloading only broadens release.","layers":[1,2,3],"categories":["physical","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0840","hypothesis":"A lightly compressed sponge could release a dissolved harmless tracer in a sharper pulse after partial unloading.","test":"Measure flow and concentration.","contrary_result":"Unloading only broadens release.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0840","hypothesis":"A lightly compressed sponge could release a dissolved harmless tracer in a sharper pulse after partial unloading.","test":"Measure flow and concentration.","contrary_result":"Unloading only broadens release.","status":"Untested; novelty unverified","selection_rationale":"Outlet flow and concentration separate pulse sharpening from volume release.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":{"id":"S8-0840","hypothesis":"A lightly compressed sponge could release a dissolved harmless tracer in a sharper pulse after partial unloading.","test":"Measure flow and concentration.","contrary_result":"Unloading only broadens release.","status":"Untested; novelty unverified"},"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0841","id":"S8-0841","volume":"900v8","title":"A sand-filled narrow channel could reduce drag after a brief flow stop through contact relaxation.","prediction":"A sand-filled narrow channel could reduce drag after a brief flow stop through contact relaxation.","test":"Measure pressure and contacts.","contrary":"Restart drag always increases.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0841","hypothesis":"A sand-filled narrow channel could reduce drag after a brief flow stop through contact relaxation.","test":"Measure pressure and contacts.","contrary_result":"Restart drag always increases.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0841","hypothesis":"A sand-filled narrow channel could reduce drag after a brief flow stop through contact relaxation.","test":"Measure pressure and contacts.","contrary_result":"Restart drag always increases.","status":"Untested; novelty unverified","selection_rationale":"Restart pressure can be compared with direct contact imaging.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0842","id":"S8-0842","volume":"900v8","title":"A small frost bridge could carry a larger load after a short dry-air pulse despite losing mass.","prediction":"A small frost bridge could carry a larger load after a short dry-air pulse despite losing mass.","test":"Measure neck and strength.","contrary":"Strength follows mass monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0842","hypothesis":"A small frost bridge could carry a larger load after a short dry-air pulse despite losing mass.","test":"Measure neck and strength.","contrary_result":"Strength follows mass monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0843","id":"S8-0843","volume":"900v8","title":"A liquid-coated foil could reveal a hidden crease through phase-shifted evaporation cooling.","prediction":"A liquid-coated foil could reveal a hidden crease through phase-shifted evaporation cooling.","test":"Map crease and thermal response.","contrary":"Only steady thickness matters.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0843","hypothesis":"A liquid-coated foil could reveal a hidden crease through phase-shifted evaporation cooling.","test":"Map crease and thermal response.","contrary_result":"Only steady thickness matters.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0843","hypothesis":"A liquid-coated foil could reveal a hidden crease through phase-shifted evaporation cooling.","test":"Map crease and thermal response.","contrary_result":"Only steady thickness matters.","status":"Untested; novelty unverified","selection_rationale":"Thermal phase mapping tests a hidden crease readout.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0844","id":"S8-0844","volume":"900v8","title":"A dry clay disk could show lower friction after a subfreezing excursion without water condensation.","prediction":"A dry clay disk could show lower friction after a subfreezing excursion without water condensation.","test":"Measure humidity and force.","contrary":"Changes require condensed water.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0844","hypothesis":"A dry clay disk could show lower friction after a subfreezing excursion without water condensation.","test":"Measure humidity and force.","contrary_result":"Changes require condensed water.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0845","id":"S8-0845","volume":"900v8","title":"A glass capillary pair could synchronize filling pauses through a shared flexible support.","prediction":"A glass capillary pair could synchronize filling pauses through a shared flexible support.","test":"Measure fronts and support motion.","contrary":"Pauses remain independent.","layers":[1,2,3],"categories":["physical","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0845","hypothesis":"A glass capillary pair could synchronize filling pauses through a shared flexible support.","test":"Measure fronts and support motion.","contrary_result":"Pauses remain independent.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0845","hypothesis":"A glass capillary pair could synchronize filling pauses through a shared flexible support.","test":"Measure fronts and support motion.","contrary_result":"Pauses remain independent.","status":"Untested; novelty unverified","selection_rationale":"Support compliance can be blocked while preserving common fluid conditions.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":{"id":"S8-0845","hypothesis":"A glass capillary pair could synchronize filling pauses through a shared flexible support.","test":"Measure fronts and support motion.","contrary_result":"Pauses remain independent.","status":"Untested; novelty unverified"},"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0846","id":"S8-0846","volume":"900v8","title":"A thin ice shell could signal interior thawing through a change in rotational ringdown before leakage.","prediction":"A thin ice shell could signal interior thawing through a change in rotational ringdown before leakage.","test":"Measure modes and water.","contrary":"Leakage detection leads.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0846","hypothesis":"A thin ice shell could signal interior thawing through a change in rotational ringdown before leakage.","test":"Measure modes and water.","contrary_result":"Leakage detection leads.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0846","hypothesis":"A thin ice shell could signal interior thawing through a change in rotational ringdown before leakage.","test":"Measure modes and water.","contrary_result":"Leakage detection leads.","status":"Untested; novelty unverified","selection_rationale":"Ringdown and leakage offer independent thaw-detection benchmarks.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0847","id":"S8-0847","volume":"900v8","title":"A floating wet fiber could align against surface flow through asymmetric evaporation drag.","prediction":"A floating wet fiber could align against surface flow through asymmetric evaporation drag.","test":"Measure evaporation and orientation.","contrary":"Alignment follows flow only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0847","hypothesis":"A floating wet fiber could align against surface flow through asymmetric evaporation drag.","test":"Measure evaporation and orientation.","contrary_result":"Alignment follows flow only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0848","id":"S8-0848","volume":"900v8","title":"A granular bed could suppress one vibration polarization after selective wetting of a narrow strip.","prediction":"A granular bed could suppress one vibration polarization after selective wetting of a narrow strip.","test":"Measure both polarizations.","contrary":"Both attenuate equally.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0848","hypothesis":"A granular bed could suppress one vibration polarization after selective wetting of a narrow strip.","test":"Measure both polarizations.","contrary_result":"Both attenuate equally.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0848","hypothesis":"A granular bed could suppress one vibration polarization after selective wetting of a narrow strip.","test":"Measure both polarizations.","contrary_result":"Both attenuate equally.","status":"Untested; novelty unverified","selection_rationale":"Two polarization channels test selective wave attenuation.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0849","id":"S8-0849","volume":"900v8","title":"A shallow salt solution could crystallize farther from a warm edge after a brief cooling interruption.","prediction":"A shallow salt solution could crystallize farther from a warm edge after a brief cooling interruption.","test":"Map temperature and nucleation.","contrary":"Only final supersaturation matters.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0849","hypothesis":"A shallow salt solution could crystallize farther from a warm edge after a brief cooling interruption.","test":"Map temperature and nucleation.","contrary_result":"Only final supersaturation matters.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0850","id":"S8-0850","volume":"900v8","title":"A compressed leaf skeleton could restore capillary connectivity before restoring its original shape.","prediction":"A compressed leaf skeleton could restore capillary connectivity before restoring its original shape.","test":"Image paths and geometry.","contrary":"Shape recovery comes first.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0850","hypothesis":"A compressed leaf skeleton could restore capillary connectivity before restoring its original shape.","test":"Image paths and geometry.","contrary_result":"Shape recovery comes first.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0850","hypothesis":"A compressed leaf skeleton could restore capillary connectivity before restoring its original shape.","test":"Image paths and geometry.","contrary_result":"Shape recovery comes first.","status":"Untested; novelty unverified","selection_rationale":"Connectivity and shape recovery can be timed separately.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0851","id":"S8-0851","volume":"900v8","title":"A hollow ceramic cylinder could distinguish internal humidity from external humidity through opposite thermal phase shifts.","prediction":"A hollow ceramic cylinder could distinguish internal humidity from external humidity through opposite thermal phase shifts.","test":"Control compartments separately.","contrary":"Signals depend only on mean humidity.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0851","hypothesis":"A hollow ceramic cylinder could distinguish internal humidity from external humidity through opposite thermal phase shifts.","test":"Control compartments separately.","contrary_result":"Signals depend only on mean humidity.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0851","hypothesis":"A hollow ceramic cylinder could distinguish internal humidity from external humidity through opposite thermal phase shifts.","test":"Control compartments separately.","contrary_result":"Signals depend only on mean humidity.","status":"Untested; novelty unverified","selection_rationale":"Independent inside and outside humidity permit an identifiability test.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0852","id":"S8-0852","volume":"900v8","title":"A wet paper spiral could transport a droplet inward against its centrifugal tendency during slow rotation.","prediction":"A wet paper spiral could transport a droplet inward against its centrifugal tendency during slow rotation.","test":"Track droplet and swelling.","contrary":"Motion follows centrifugal force only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0852","hypothesis":"A wet paper spiral could transport a droplet inward against its centrifugal tendency during slow rotation.","test":"Track droplet and swelling.","contrary_result":"Motion follows centrifugal force only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0853","id":"S8-0853","volume":"900v8","title":"A pile of smooth beads could develop directional heat transfer after gentle rocking without visible layering.","prediction":"A pile of smooth beads could develop directional heat transfer after gentle rocking without visible layering.","test":"Measure contacts and thermal tensor.","contrary":"Anisotropy requires segregation.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0853","hypothesis":"A pile of smooth beads could develop directional heat transfer after gentle rocking without visible layering.","test":"Measure contacts and thermal tensor.","contrary_result":"Anisotropy requires segregation.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0853","hypothesis":"A pile of smooth beads could develop directional heat transfer after gentle rocking without visible layering.","test":"Measure contacts and thermal tensor.","contrary_result":"Anisotropy requires segregation.","status":"Untested; novelty unverified","selection_rationale":"Contact maps challenge anisotropy without particle sorting.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0854","id":"S8-0854","volume":"900v8","title":"A thin water meniscus could detect surface oil contamination through a change in its response to a brief acoustic pulse.","prediction":"A thin water meniscus could detect surface oil contamination through a change in its response to a brief acoustic pulse.","test":"Measure chemistry and ringdown.","contrary":"Response follows viscosity only.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0854","hypothesis":"A thin water meniscus could detect surface oil contamination through a change in its response to a brief acoustic pulse.","test":"Measure chemistry and ringdown.","contrary_result":"Response follows viscosity only.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0854","hypothesis":"A thin water meniscus could detect surface oil contamination through a change in its response to a brief acoustic pulse.","test":"Measure chemistry and ringdown.","contrary_result":"Response follows viscosity only.","status":"Untested; novelty unverified","selection_rationale":"Chemistry and viscosity controls challenge contamination-sensitive acoustics.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0855","id":"S8-0855","volume":"900v8","title":"A cooled metal mesh could shed condensate more uniformly when its wires have unequal tension.","prediction":"A cooled metal mesh could shed condensate more uniformly when its wires have unequal tension.","test":"Measure motion and release.","contrary":"Equal tension always gives best uniformity.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0855","hypothesis":"A cooled metal mesh could shed condensate more uniformly when its wires have unequal tension.","test":"Measure motion and release.","contrary_result":"Equal tension always gives best uniformity.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0855","hypothesis":"A cooled metal mesh could shed condensate more uniformly when its wires have unequal tension.","test":"Measure motion and release.","contrary_result":"Equal tension always gives best uniformity.","status":"Untested; novelty unverified","selection_rationale":"Wire tension can be measured before condensate shedding.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0856","id":"S8-0856","volume":"900v8","title":"A dry porous tile could preserve a tap location in its later condensation pattern.","prediction":"A dry porous tile could preserve a tap location in its later condensation pattern.","test":"Compare mapped taps.","contrary":"Pattern follows pore structure only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0856","hypothesis":"A dry porous tile could preserve a tap location in its later condensation pattern.","test":"Compare mapped taps.","contrary_result":"Pattern follows pore structure only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0857","id":"S8-0857","volume":"900v8","title":"A liquid bridge could convert axial compression into a short rotational jet when one support is compliant.","prediction":"A liquid bridge could convert axial compression into a short rotational jet when one support is compliant.","test":"Image flow and support.","contrary":"Jets remain axisymmetric.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0857","hypothesis":"A liquid bridge could convert axial compression into a short rotational jet when one support is compliant.","test":"Image flow and support.","contrary_result":"Jets remain axisymmetric.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0857","hypothesis":"A liquid bridge could convert axial compression into a short rotational jet when one support is compliant.","test":"Image flow and support.","contrary_result":"Jets remain axisymmetric.","status":"Untested; novelty unverified","selection_rationale":"High-speed flow imaging resolves a proposed rotational jet.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0858","id":"S8-0858","volume":"900v8","title":"A triangular floating mesh could concentrate wave energy at its inner opening only after one side partially wets.","prediction":"A triangular floating mesh could concentrate wave energy at its inner opening only after one side partially wets.","test":"Map wetting and wave amplitude.","contrary":"Focusing depends only on immersion depth.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0858","hypothesis":"A triangular floating mesh could concentrate wave energy at its inner opening only after one side partially wets.","test":"Map wetting and wave amplitude.","contrary_result":"Focusing depends only on immersion depth.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0859","id":"S8-0859","volume":"900v8","title":"A thin salt layer could show a temporary conductivity plateau during monotonic water uptake.","prediction":"A thin salt layer could show a temporary conductivity plateau during monotonic water uptake.","test":"Measure composition and conductivity.","contrary":"Conductivity changes continuously without a plateau.","layers":[1,2,3],"categories":["measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0859","hypothesis":"A thin salt layer could show a temporary conductivity plateau during monotonic water uptake.","test":"Measure composition and conductivity.","contrary_result":"Conductivity changes continuously without a plateau.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0859","hypothesis":"A thin salt layer could show a temporary conductivity plateau during monotonic water uptake.","test":"Measure composition and conductivity.","contrary_result":"Conductivity changes continuously without a plateau.","status":"Untested; novelty unverified","selection_rationale":"Conductivity can be compared with independently measured water uptake.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":{"id":"S8-0859","hypothesis":"A thin salt layer could show a temporary conductivity plateau during monotonic water uptake.","test":"Measure composition and conductivity.","contrary_result":"Conductivity changes continuously without a plateau.","status":"Untested; novelty unverified"},"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0860","id":"S8-0860","volume":"900v8","title":"A foam strip could recover a hidden bend when only its edges are rewetted.","prediction":"A foam strip could recover a hidden bend when only its edges are rewetted.","test":"Map water and curvature.","contrary":"Recovery requires uniform wetting.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0860","hypothesis":"A foam strip could recover a hidden bend when only its edges are rewetted.","test":"Map water and curvature.","contrary_result":"Recovery requires uniform wetting.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0860","hypothesis":"A foam strip could recover a hidden bend when only its edges are rewetted.","test":"Map water and curvature.","contrary_result":"Recovery requires uniform wetting.","status":"Untested; novelty unverified","selection_rationale":"Edge-only wetting directly tests localized bend recovery.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0861","id":"S8-0861","volume":"900v8","title":"A glass bead cluster could release trapped air more efficiently under slow rotation than vibration at equal work.","prediction":"A glass bead cluster could release trapped air more efficiently under slow rotation than vibration at equal work.","test":"Measure gas escape.","contrary":"Only total work matters.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0861","hypothesis":"A glass bead cluster could release trapped air more efficiently under slow rotation than vibration at equal work.","test":"Measure gas escape.","contrary_result":"Only total work matters.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0861","hypothesis":"A glass bead cluster could release trapped air more efficiently under slow rotation than vibration at equal work.","test":"Measure gas escape.","contrary_result":"Only total work matters.","status":"Untested; novelty unverified","selection_rationale":"Input work can be measured for rotation and vibration.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0862","id":"S8-0862","volume":"900v8","title":"A shallow water cavity could show a pressure-noise minimum immediately before condensation begins on its lid.","prediction":"A shallow water cavity could show a pressure-noise minimum immediately before condensation begins on its lid.","test":"Measure humidity and noise.","contrary":"Noise changes only after condensation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0862","hypothesis":"A shallow water cavity could show a pressure-noise minimum immediately before condensation begins on its lid.","test":"Measure humidity and noise.","contrary_result":"Noise changes only after condensation.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0863","id":"S8-0863","volume":"900v8","title":"A suspended paper vane could distinguish vapor diffusion from a weak air current through phase of its torsion.","prediction":"A suspended paper vane could distinguish vapor diffusion from a weak air current through phase of its torsion.","test":"Calibrate inputs.","contrary":"Responses are indistinguishable.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0863","hypothesis":"A suspended paper vane could distinguish vapor diffusion from a weak air current through phase of its torsion.","test":"Calibrate inputs.","contrary_result":"Responses are indistinguishable.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0863","hypothesis":"A suspended paper vane could distinguish vapor diffusion from a weak air current through phase of its torsion.","test":"Calibrate inputs.","contrary_result":"Responses are indistinguishable.","status":"Untested; novelty unverified","selection_rationale":"A vapor barrier can separate diffusion from weak airflow.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0864","id":"S8-0864","volume":"900v8","title":"A porous stone could cool more quickly after a small reverse water pulse despite retaining less water.","prediction":"A porous stone could cool more quickly after a small reverse water pulse despite retaining less water.","test":"Measure heat and water.","contrary":"Cooling follows retained mass only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0864","hypothesis":"A porous stone could cool more quickly after a small reverse water pulse despite retaining less water.","test":"Measure heat and water.","contrary_result":"Cooling follows retained mass only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0865","id":"S8-0865","volume":"900v8","title":"A thin elastic diaphragm could measure droplet placement from the order of two resonance shifts.","prediction":"A thin elastic diaphragm could measure droplet placement from the order of two resonance shifts.","test":"Deposit at known positions.","contrary":"Order reveals total mass only.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0865","hypothesis":"A thin elastic diaphragm could measure droplet placement from the order of two resonance shifts.","test":"Deposit at known positions.","contrary_result":"Order reveals total mass only.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0865","hypothesis":"A thin elastic diaphragm could measure droplet placement from the order of two resonance shifts.","test":"Deposit at known positions.","contrary_result":"Order reveals total mass only.","status":"Untested; novelty unverified","selection_rationale":"Known droplet positions test resonance-order localization.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0866","id":"S8-0866","volume":"900v8","title":"A heated granular layer could eject fine dust less readily after a brief cooling pulse without cohesion change.","prediction":"A heated granular layer could eject fine dust less readily after a brief cooling pulse without cohesion change.","test":"Measure flow, charge and dust.","contrary":"Suppression requires increased cohesion.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0866","hypothesis":"A heated granular layer could eject fine dust less readily after a brief cooling pulse without cohesion change.","test":"Measure flow, charge and dust.","contrary_result":"Suppression requires increased cohesion.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0867","id":"S8-0867","volume":"900v8","title":"A partially frozen capillary could route dissolved salt around an ice plug through thin wall films.","prediction":"A partially frozen capillary could route dissolved salt around an ice plug through thin wall films.","test":"Map species and ice.","contrary":"Transport stops with bulk blockage.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0867","hypothesis":"A partially frozen capillary could route dissolved salt around an ice plug through thin wall films.","test":"Map species and ice.","contrary_result":"Transport stops with bulk blockage.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0867","hypothesis":"A partially frozen capillary could route dissolved salt around an ice plug through thin wall films.","test":"Map species and ice.","contrary_result":"Transport stops with bulk blockage.","status":"Untested; novelty unverified","selection_rationale":"Salt mapping can test transport despite bulk ice blockage.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0868","id":"S8-0868","volume":"900v8","title":"A rough floating disk could reject droplets from its warm edge while retaining equal droplets at its cool edge.","prediction":"A rough floating disk could reject droplets from its warm edge while retaining equal droplets at its cool edge.","test":"Measure surface flow and release.","contrary":"Retention follows tilt only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0868","hypothesis":"A rough floating disk could reject droplets from its warm edge while retaining equal droplets at its cool edge.","test":"Measure surface flow and release.","contrary_result":"Retention follows tilt only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0869","id":"S8-0869","volume":"900v8","title":"A wet chalk seam could become mechanically stronger while its electrical conductance decreases during slow drying.","prediction":"A wet chalk seam could become mechanically stronger while its electrical conductance decreases during slow drying.","test":"Measure both quantities.","contrary":"They always change together.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0869","hypothesis":"A wet chalk seam could become mechanically stronger while its electrical conductance decreases during slow drying.","test":"Measure both quantities.","contrary_result":"They always change together.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0869","hypothesis":"A wet chalk seam could become mechanically stronger while its electrical conductance decreases during slow drying.","test":"Measure both quantities.","contrary_result":"They always change together.","status":"Untested; novelty unverified","selection_rationale":"Simultaneous mechanical and electrical measures challenge coupled drying assumptions.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0870","id":"S8-0870","volume":"900v8","title":"A liquid-coated thread could suppress torsional vibration more after partial than complete drainage.","prediction":"A liquid-coated thread could suppress torsional vibration more after partial than complete drainage.","test":"Measure water distribution and damping.","contrary":"Damping follows total mass monotonically.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0870","hypothesis":"A liquid-coated thread could suppress torsional vibration more after partial than complete drainage.","test":"Measure water distribution and damping.","contrary_result":"Damping follows total mass monotonically.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0870","hypothesis":"A liquid-coated thread could suppress torsional vibration more after partial than complete drainage.","test":"Measure water distribution and damping.","contrary_result":"Damping follows total mass monotonically.","status":"Untested; novelty unverified","selection_rationale":"Water topology tests nonmonotonic torsional damping.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0871","id":"S8-0871","volume":"900v8","title":"A pair of porous tiles could exchange water cyclically under a steady unequal thermal contact.","prediction":"A pair of porous tiles could exchange water cyclically under a steady unequal thermal contact.","test":"Measure each mass.","contrary":"Exchange decays monotonically.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0871","hypothesis":"A pair of porous tiles could exchange water cyclically under a steady unequal thermal contact.","test":"Measure each mass.","contrary_result":"Exchange decays monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0872","id":"S8-0872","volume":"900v8","title":"A dry seed shell could reveal one hidden puncture through the phase of humidity-induced bending.","prediction":"A dry seed shell could reveal one hidden puncture through the phase of humidity-induced bending.","test":"Map defect and motion.","contrary":"Phase depends only on shell thickness.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0872","hypothesis":"A dry seed shell could reveal one hidden puncture through the phase of humidity-induced bending.","test":"Map defect and motion.","contrary_result":"Phase depends only on shell thickness.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0872","hypothesis":"A dry seed shell could reveal one hidden puncture through the phase of humidity-induced bending.","test":"Map defect and motion.","contrary_result":"Phase depends only on shell thickness.","status":"Untested; novelty unverified","selection_rationale":"Known punctures permit blinded humidity-bending detection.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0873","id":"S8-0873","volume":"900v8","title":"A small granular funnel could have lower acoustic noise after adding one oversized grain near its wall.","prediction":"A small granular funnel could have lower acoustic noise after adding one oversized grain near its wall.","test":"Measure grain and sound.","contrary":"Any obstruction increases noise.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0873","hypothesis":"A small granular funnel could have lower acoustic noise after adding one oversized grain near its wall.","test":"Measure grain and sound.","contrary_result":"Any obstruction increases noise.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0874","id":"S8-0874","volume":"900v8","title":"A thin oil lens could amplify a substrate's weak thermal anisotropy into an easily resolved shape rotation.","prediction":"A thin oil lens could amplify a substrate's weak thermal anisotropy into an easily resolved shape rotation.","test":"Measure thermal tensor and shape.","contrary":"Rotation follows external flow only.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0874","hypothesis":"A thin oil lens could amplify a substrate's weak thermal anisotropy into an easily resolved shape rotation.","test":"Measure thermal tensor and shape.","contrary_result":"Rotation follows external flow only.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0874","hypothesis":"A thin oil lens could amplify a substrate's weak thermal anisotropy into an easily resolved shape rotation.","test":"Measure thermal tensor and shape.","contrary_result":"Rotation follows external flow only.","status":"Untested; novelty unverified","selection_rationale":"Independent thermal tensors test amplification into lens rotation.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0875","id":"S8-0875","volume":"900v8","title":"A flexible capillary loop could retain a pressure maximum through a reversible kink after pressure returns to baseline.","prediction":"A flexible capillary loop could retain a pressure maximum through a reversible kink after pressure returns to baseline.","test":"Measure kink and flow.","contrary":"Kink resets immediately.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0875","hypothesis":"A flexible capillary loop could retain a pressure maximum through a reversible kink after pressure returns to baseline.","test":"Measure kink and flow.","contrary_result":"Kink resets immediately.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0875","hypothesis":"A flexible capillary loop could retain a pressure maximum through a reversible kink after pressure returns to baseline.","test":"Measure kink and flow.","contrary_result":"Kink resets immediately.","status":"Untested; novelty unverified","selection_rationale":"A baseline-pressure readout tests retained capillary-kink memory.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0876","id":"S8-0876","volume":"900v8","title":"A frost-coated wire could change torsional damping before its ice mass changes measurably.","prediction":"A frost-coated wire could change torsional damping before its ice mass changes measurably.","test":"Measure modes and mass.","contrary":"Mass detection always leads.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0876","hypothesis":"A frost-coated wire could change torsional damping before its ice mass changes measurably.","test":"Measure modes and mass.","contrary_result":"Mass detection always leads.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0877","id":"S8-0877","volume":"900v8","title":"A shallow wet sand layer could distribute heat more evenly after one weak shear reversal.","prediction":"A shallow wet sand layer could distribute heat more evenly after one weak shear reversal.","test":"Map contacts and temperature.","contrary":"Uniformity depends only on density.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0877","hypothesis":"A shallow wet sand layer could distribute heat more evenly after one weak shear reversal.","test":"Map contacts and temperature.","contrary_result":"Uniformity depends only on density.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0878","id":"S8-0878","volume":"900v8","title":"A liquid bridge between unlike roughnesses could switch its favored rupture side during one evaporation cycle.","prediction":"A liquid bridge between unlike roughnesses could switch its favored rupture side during one evaporation cycle.","test":"Track neck and contact lines.","contrary":"One side always fails first.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0878","hypothesis":"A liquid bridge between unlike roughnesses could switch its favored rupture side during one evaporation cycle.","test":"Track neck and contact lines.","contrary_result":"One side always fails first.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0878","hypothesis":"A liquid bridge between unlike roughnesses could switch its favored rupture side during one evaporation cycle.","test":"Track neck and contact lines.","contrary_result":"One side always fails first.","status":"Untested; novelty unverified","selection_rationale":"Time-resolved neck imaging tests rupture-side reversal.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0879","id":"S8-0879","volume":"900v8","title":"A ceramic powder bed could show reduced evaporation intermittency under weak static compression.","prediction":"A ceramic powder bed could show reduced evaporation intermittency under weak static compression.","test":"Measure water loss and pores.","contrary":"Compression increases intermittency.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0879","hypothesis":"A ceramic powder bed could show reduced evaporation intermittency under weak static compression.","test":"Measure water loss and pores.","contrary_result":"Compression increases intermittency.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0880","id":"S8-0880","volume":"900v8","title":"A thin aluminum ring could reveal localized condensation through an avoided crossing of two audible modes.","prediction":"A thin aluminum ring could reveal localized condensation through an avoided crossing of two audible modes.","test":"Map droplets and spectra.","contrary":"Only average mass affects modes.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0880","hypothesis":"A thin aluminum ring could reveal localized condensation through an avoided crossing of two audible modes.","test":"Map droplets and spectra.","contrary_result":"Only average mass affects modes.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0880","hypothesis":"A thin aluminum ring could reveal localized condensation through an avoided crossing of two audible modes.","test":"Map droplets and spectra.","contrary_result":"Only average mass affects modes.","status":"Untested; novelty unverified","selection_rationale":"Localized condensation can be registered against mode crossings.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0881","id":"S8-0881","volume":"900v8","title":"A wet fibrous knot could retain a temperature pulse's duration in its later force-relaxation tail.","prediction":"A wet fibrous knot could retain a temperature pulse's duration in its later force-relaxation tail.","test":"Match peak and energy.","contrary":"Relaxation follows final temperature only.","layers":[1,2],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0881","hypothesis":"A wet fibrous knot could retain a temperature pulse's duration in its later force-relaxation tail.","test":"Match peak and energy.","contrary_result":"Relaxation follows final temperature only.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0881","hypothesis":"A wet fibrous knot could retain a temperature pulse's duration in its later force-relaxation tail.","test":"Match peak and energy.","contrary_result":"Relaxation follows final temperature only.","status":"Untested; novelty unverified","selection_rationale":"Matched peak temperature and energy challenge pulse-duration memory.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0882","id":"S8-0882","volume":"900v8","title":"A floating porous disk could move toward a humidity source through asymmetric adsorption without direct liquid pumping.","prediction":"A floating porous disk could move toward a humidity source through asymmetric adsorption without direct liquid pumping.","test":"Measure uptake and flow.","contrary":"Motion requires external airflow.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0882","hypothesis":"A floating porous disk could move toward a humidity source through asymmetric adsorption without direct liquid pumping.","test":"Measure uptake and flow.","contrary_result":"Motion requires external airflow.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0883","id":"S8-0883","volume":"900v8","title":"A shallow salt crust could channel a later drop along a previously cooled path after thermal equilibration.","prediction":"A shallow salt crust could channel a later drop along a previously cooled path after thermal equilibration.","test":"Map path and structure.","contrary":"Routing depends only on current temperature.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0883","hypothesis":"A shallow salt crust could channel a later drop along a previously cooled path after thermal equilibration.","test":"Map path and structure.","contrary_result":"Routing depends only on current temperature.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0883","hypothesis":"A shallow salt crust could channel a later drop along a previously cooled path after thermal equilibration.","test":"Map path and structure.","contrary_result":"Routing depends only on current temperature.","status":"Untested; novelty unverified","selection_rationale":"Thermal equilibration separates structural from current-temperature routing.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0884","id":"S8-0884","volume":"900v8","title":"A thin water-coated plate could reject a brief pressure shock through transient contact-line detachment.","prediction":"A thin water-coated plate could reject a brief pressure shock through transient contact-line detachment.","test":"Measure pressure and lines.","contrary":"Suppression requires permanent liquid loss.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0884","hypothesis":"A thin water-coated plate could reject a brief pressure shock through transient contact-line detachment.","test":"Measure pressure and lines.","contrary_result":"Suppression requires permanent liquid loss.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0885","id":"S8-0885","volume":"900v8","title":"A soft bead-filled tube could show a maximum pressure-wave delay at intermediate fill fraction.","prediction":"A soft bead-filled tube could show a maximum pressure-wave delay at intermediate fill fraction.","test":"Sweep fill and measure transit.","contrary":"Delay varies monotonically.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0885","hypothesis":"A soft bead-filled tube could show a maximum pressure-wave delay at intermediate fill fraction.","test":"Sweep fill and measure transit.","contrary_result":"Delay varies monotonically.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0885","hypothesis":"A soft bead-filled tube could show a maximum pressure-wave delay at intermediate fill fraction.","test":"Sweep fill and measure transit.","contrary_result":"Delay varies monotonically.","status":"Untested; novelty unverified","selection_rationale":"Fill fraction and transit delay are directly measurable.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0886","id":"S8-0886","volume":"900v8","title":"A cold glass groove could nucleate fewer droplets after a short dry-gas pressure pulse without surface cleaning.","prediction":"A cold glass groove could nucleate fewer droplets after a short dry-gas pressure pulse without surface cleaning.","test":"Measure sites and chemistry.","contrary":"Effect requires contaminant removal.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0886","hypothesis":"A cold glass groove could nucleate fewer droplets after a short dry-gas pressure pulse without surface cleaning.","test":"Measure sites and chemistry.","contrary_result":"Effect requires contaminant removal.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0887","id":"S8-0887","volume":"900v8","title":"A dry moss mat could suppress low-frequency vibration before taking up enough water to change its mass measurably.","prediction":"A dry moss mat could suppress low-frequency vibration before taking up enough water to change its mass measurably.","test":"Measure modes and calibrated mass.","contrary":"Mass changes lead.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0887","hypothesis":"A dry moss mat could suppress low-frequency vibration before taking up enough water to change its mass measurably.","test":"Measure modes and calibrated mass.","contrary_result":"Mass changes lead.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0888","id":"S8-0888","volume":"900v8","title":"A layered paper stack could retain wetting direction in its later acoustic transmission after full drying.","prediction":"A layered paper stack could retain wetting direction in its later acoustic transmission after full drying.","test":"Reverse wetting histories.","contrary":"Transmission returns identically.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0888","hypothesis":"A layered paper stack could retain wetting direction in its later acoustic transmission after full drying.","test":"Reverse wetting histories.","contrary_result":"Transmission returns identically.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0888","hypothesis":"A layered paper stack could retain wetting direction in its later acoustic transmission after full drying.","test":"Reverse wetting histories.","contrary_result":"Transmission returns identically.","status":"Untested; novelty unverified","selection_rationale":"Reversed wetting histories challenge persistent acoustic asymmetry.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0889","id":"S8-0889","volume":"900v8","title":"A liquid film could concentrate settling dust at a moving thermal boundary rather than its geometric edge.","prediction":"A liquid film could concentrate settling dust at a moving thermal boundary rather than its geometric edge.","test":"Track particles and temperature.","contrary":"Deposition follows edges only.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0889","hypothesis":"A liquid film could concentrate settling dust at a moving thermal boundary rather than its geometric edge.","test":"Track particles and temperature.","contrary_result":"Deposition follows edges only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0890","id":"S8-0890","volume":"900v8","title":"A hollow porous bead could float longer after intermittent rather than continuous immersion at equal immersed time.","prediction":"A hollow porous bead could float longer after intermittent rather than continuous immersion at equal immersed time.","test":"Measure gas and uptake.","contrary":"Only total immersion time matters.","layers":[1,2],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0890","hypothesis":"A hollow porous bead could float longer after intermittent rather than continuous immersion at equal immersed time.","test":"Measure gas and uptake.","contrary_result":"Only total immersion time matters.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0890","hypothesis":"A hollow porous bead could float longer after intermittent rather than continuous immersion at equal immersed time.","test":"Measure gas and uptake.","contrary_result":"Only total immersion time matters.","status":"Untested; novelty unverified","selection_rationale":"Matched immersed time tests interruption-dependent gas retention.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0891","id":"S8-0891","volume":"900v8","title":"A frost layer could retain an infrared pulse wavelength in later sublimation-facet spacing despite equal absorbed heat.","prediction":"A frost layer could retain an infrared pulse wavelength in later sublimation-facet spacing despite equal absorbed heat.","test":"Compare wavelengths and depth-resolved heating.","contrary":"Facet spacing follows total energy only.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0891","hypothesis":"A frost layer could retain an infrared pulse wavelength in later sublimation-facet spacing despite equal absorbed heat.","test":"Compare wavelengths and depth-resolved heating.","contrary_result":"Facet spacing follows total energy only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0892","id":"S8-0892","volume":"900v8","title":"A granular contact could exhibit a finite humidity interval where friction noise falls while mean friction rises.","prediction":"A granular contact could exhibit a finite humidity interval where friction noise falls while mean friction rises.","test":"Measure both quantities.","contrary":"Noise follows mean friction monotonically.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0892","hypothesis":"A granular contact could exhibit a finite humidity interval where friction noise falls while mean friction rises.","test":"Measure both quantities.","contrary_result":"Noise follows mean friction monotonically.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0892","hypothesis":"A granular contact could exhibit a finite humidity interval where friction noise falls while mean friction rises.","test":"Measure both quantities.","contrary_result":"Noise follows mean friction monotonically.","status":"Untested; novelty unverified","selection_rationale":"Mean friction and noise can be recorded simultaneously.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0893","id":"S8-0893","volume":"900v8","title":"A soft liquid reservoir could distinguish a leak from evaporation through opposite transient wall curvatures.","prediction":"A soft liquid reservoir could distinguish a leak from evaporation through opposite transient wall curvatures.","test":"Induce separately.","contrary":"Curvature reflects total volume only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0893","hypothesis":"A soft liquid reservoir could distinguish a leak from evaporation through opposite transient wall curvatures.","test":"Induce separately.","contrary_result":"Curvature reflects total volume only.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0894","id":"S8-0894","volume":"900v8","title":"A suspended ceramic sliver could reveal internal moisture gradients through a split in its thermal-bending recovery.","prediction":"A suspended ceramic sliver could reveal internal moisture gradients through a split in its thermal-bending recovery.","test":"Measure water and curvature.","contrary":"One relaxation time describes recovery.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0894","hypothesis":"A suspended ceramic sliver could reveal internal moisture gradients through a split in its thermal-bending recovery.","test":"Measure water and curvature.","contrary_result":"One relaxation time describes recovery.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0894","hypothesis":"A suspended ceramic sliver could reveal internal moisture gradients through a split in its thermal-bending recovery.","test":"Measure water and curvature.","contrary_result":"One relaxation time describes recovery.","status":"Untested; novelty unverified","selection_rationale":"Moisture mapping challenges a two-stage bending-recovery interpretation.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0895","id":"S8-0895","volume":"900v8","title":"A wet fiber ring could move a droplet away from its narrowest contact through strain-driven geometry change.","prediction":"A wet fiber ring could move a droplet away from its narrowest contact through strain-driven geometry change.","test":"Measure shape and motion.","contrary":"Droplets remain at the narrowest point.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0895","hypothesis":"A wet fiber ring could move a droplet away from its narrowest contact through strain-driven geometry change.","test":"Measure shape and motion.","contrary_result":"Droplets remain at the narrowest point.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0896","id":"S8-0896","volume":"900v8","title":"A dry particle raft could retain the direction of a passing capillary wave in its next fragmentation pattern.","prediction":"A dry particle raft could retain the direction of a passing capillary wave in its next fragmentation pattern.","test":"Reverse wave travel.","contrary":"Fragmentation depends only on wave energy.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0896","hypothesis":"A dry particle raft could retain the direction of a passing capillary wave in its next fragmentation pattern.","test":"Reverse wave travel.","contrary_result":"Fragmentation depends only on wave energy.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0897","id":"S8-0897","volume":"900v8","title":"A thin salt film could reduce evaporation cooling during its first hydration stage despite increased water content.","prediction":"A thin salt film could reduce evaporation cooling during its first hydration stage despite increased water content.","test":"Measure heat and uptake.","contrary":"Cooling increases monotonically.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0897","hypothesis":"A thin salt film could reduce evaporation cooling during its first hydration stage despite increased water content.","test":"Measure heat and uptake.","contrary_result":"Cooling increases monotonically.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0898","id":"S8-0898","volume":"900v8","title":"A small vented cavity could have lower pressure overshoot after a short inlet pause than uninterrupted equal-volume inflow.","prediction":"A small vented cavity could have lower pressure overshoot after a short inlet pause than uninterrupted equal-volume inflow.","test":"Measure flow histories and pressure.","contrary":"Only delivered volume matters.","layers":[1,2,3],"categories":["physical","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0898","hypothesis":"A small vented cavity could have lower pressure overshoot after a short inlet pause than uninterrupted equal-volume inflow.","test":"Measure flow histories and pressure.","contrary_result":"Only delivered volume matters.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0898","hypothesis":"A small vented cavity could have lower pressure overshoot after a short inlet pause than uninterrupted equal-volume inflow.","test":"Measure flow histories and pressure.","contrary_result":"Only delivered volume matters.","status":"Untested; novelty unverified","selection_rationale":"Equal delivered volume provides a decisive pressure-history contrast.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":{"id":"S8-0898","hypothesis":"A small vented cavity could have lower pressure overshoot after a short inlet pause than uninterrupted equal-volume inflow.","test":"Measure flow histories and pressure.","contrary_result":"Only delivered volume matters.","status":"Untested; novelty unverified"},"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0899","id":"S8-0899","volume":"900v8","title":"A porous wooden disk could reverse its principal thermal axis during one-sided drying without rotating its fibers.","prediction":"A porous wooden disk could reverse its principal thermal axis during one-sided drying without rotating its fibers.","test":"Measure moisture and thermal tensor.","contrary":"Axis follows fiber direction always.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0899","hypothesis":"A porous wooden disk could reverse its principal thermal axis during one-sided drying without rotating its fibers.","test":"Measure moisture and thermal tensor.","contrary_result":"Axis follows fiber direction always.","status":"Untested; novelty unverified"},"lead":{"id":"S8-0899","hypothesis":"A porous wooden disk could reverse its principal thermal axis during one-sided drying without rotating its fibers.","test":"Measure moisture and thermal tensor.","contrary_result":"Axis follows fiber direction always.","status":"Untested; novelty unverified","selection_rationale":"Fixed fiber orientation permits a moisture-driven thermal-axis test.","selection_basis":"subjective apparatus feasibility, observability and mechanism diversity; not a truth probability"},"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v8--S8-0900","id":"S8-0900","volume":"900v8","title":"A liquid-filled elastic ring could retain the order of two weak taps in its later droplet-release position.","prediction":"A liquid-filled elastic ring could retain the order of two weak taps in its later droplet-release position.","test":"Reverse tap order.","contrary":"Release location depends only on total energy.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v8/Hypotheses.json","original":{"id":"S8-0900","hypothesis":"A liquid-filled elastic ring could retain the order of two weak taps in its later droplet-release position.","test":"Reverse tap order.","contrary_result":"Release location depends only on total energy.","status":"Untested; novelty unverified"},"lead":null,"dossier":null,"selection_source":"sources/90v8/selected90.json","dossier_source":"sources/9v8/Selected9.json"},{"uid":"900v9--S9-0001","id":"S9-0001","volume":"900v9","title":"A buried hydrophobic ring could concentrate rather than block a later radial wetting front.","prediction":"A buried hydrophobic ring could concentrate rather than block a later radial wetting front.","test":"Image fronts across ring depths.","contrary":"Front curvature ignores the ring.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0001","hypothesis":"A buried hydrophobic ring could concentrate rather than block a later radial wetting front.","test":"Image fronts across ring depths.","contrary_result":"Front curvature ignores the ring.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0002","id":"S9-0002","volume":"900v9","title":"A freely cooling gel could develop a transient stiffness inversion between its surface and center.","prediction":"A freely cooling gel could develop a transient stiffness inversion between its surface and center.","test":"Map temperature, water, and modulus.","contrary":"Stiffness ordering never reverses.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0002","hypothesis":"A freely cooling gel could develop a transient stiffness inversion between its surface and center.","test":"Map temperature, water, and modulus.","contrary_result":"Stiffness ordering never reverses.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0003","id":"S9-0003","volume":"900v9","title":"An elastic septum could suppress bubble coalescence by absorbing contact-induced pressure spikes.","prediction":"An elastic septum could suppress bubble coalescence by absorbing contact-induced pressure spikes.","test":"Measure septum motion and mergers.","contrary":"Suppression requires changed chemistry.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0003","hypothesis":"An elastic septum could suppress bubble coalescence by absorbing contact-induced pressure spikes.","test":"Measure septum motion and mergers.","contrary_result":"Suppression requires changed chemistry.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0004","id":"S9-0004","volume":"900v9","title":"A dissolving binary crystal could emit compositionally alternating pulses without external driving.","prediction":"A dissolving binary crystal could emit compositionally alternating pulses without external driving.","test":"Resolve outlet composition and surface recession.","contrary":"Pulses follow imposed-flow noise.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0004","hypothesis":"A dissolving binary crystal could emit compositionally alternating pulses without external driving.","test":"Resolve outlet composition and surface recession.","contrary_result":"Pulses follow imposed-flow noise.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0005","id":"S9-0005","volume":"900v9","title":"A suspended porous cone could reveal flow acceleration through torque before mean drag changes.","prediction":"A suspended porous cone could reveal flow acceleration through torque before mean drag changes.","test":"Measure torque during calibrated ramps.","contrary":"Torque adds no independent sensitivity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0005","hypothesis":"A suspended porous cone could reveal flow acceleration through torque before mean drag changes.","test":"Measure torque during calibrated ramps.","contrary_result":"Torque adds no independent sensitivity.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0006","id":"S9-0006","volume":"900v9","title":"A cell-free pigment aggregate could retain illumination direction in its later dissolution front.","prediction":"A cell-free pigment aggregate could retain illumination direction in its later dissolution front.","test":"Reverse illumination and image retreat.","contrary":"Retreat follows static defects only.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0006","hypothesis":"A cell-free pigment aggregate could retain illumination direction in its later dissolution front.","test":"Reverse illumination and image retreat.","contrary_result":"Retreat follows static defects only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0007","id":"S9-0007","volume":"900v9","title":"A drying mineral shell could select one crack orientation through an initially invisible gas pathway.","prediction":"A drying mineral shell could select one crack orientation through an initially invisible gas pathway.","test":"Map gas before fracture.","contrary":"Cracks ignore gas connectivity.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0007","hypothesis":"A drying mineral shell could select one crack orientation through an initially invisible gas pathway.","test":"Map gas before fracture.","contrary_result":"Cracks ignore gas connectivity.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0008","id":"S9-0008","volume":"900v9","title":"A folded conductive paper could distinguish crease damage from contact drift through reciprocal current paths.","prediction":"A folded conductive paper could distinguish crease damage from contact drift through reciprocal current paths.","test":"Introduce known faults independently.","contrary":"Electrical signatures remain inseparable.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0008","hypothesis":"A folded conductive paper could distinguish crease damage from contact drift through reciprocal current paths.","test":"Introduce known faults independently.","contrary_result":"Electrical signatures remain inseparable.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0009","id":"S9-0009","volume":"900v9","title":"A liquid-lined pore could reject contamination through rapid interfacial renewal at zero mean flow.","prediction":"A liquid-lined pore could reject contamination through rapid interfacial renewal at zero mean flow.","test":"Track interfaces and particle attachment.","contrary":"Rejection requires net flushing.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0009","hypothesis":"A liquid-lined pore could reject contamination through rapid interfacial renewal at zero mean flow.","test":"Track interfaces and particle attachment.","contrary_result":"Rejection requires net flushing.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0010","id":"S9-0010","volume":"900v9","title":"A floating hollow disk could stabilize its spin by redistributing condensate internally.","prediction":"A floating hollow disk could stabilize its spin by redistributing condensate internally.","test":"Measure condensate and angular motion.","contrary":"Stability follows added mass alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0010","hypothesis":"A floating hollow disk could stabilize its spin by redistributing condensate internally.","test":"Measure condensate and angular motion.","contrary_result":"Stability follows added mass alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0011","id":"S9-0011","volume":"900v9","title":"A gel-supported optical array could detect the depth of a defect through propagation delay of a swelling disturbance.","prediction":"A gel-supported optical array could detect the depth of a defect through propagation delay of a swelling disturbance.","test":"Compare known defect depths.","contrary":"Delay follows defect size only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0011","hypothesis":"A gel-supported optical array could detect the depth of a defect through propagation delay of a swelling disturbance.","test":"Compare known defect depths.","contrary_result":"Delay follows defect size only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0012","id":"S9-0012","volume":"900v9","title":"A clay granule could recover mechanical integrity after rewetting through rotation of intact platelet clusters.","prediction":"A clay granule could recover mechanical integrity after rewetting through rotation of intact platelet clusters.","test":"Track clusters and strength.","contrary":"Recovery requires new cementation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0012","hypothesis":"A clay granule could recover mechanical integrity after rewetting through rotation of intact platelet clusters.","test":"Track clusters and strength.","contrary_result":"Recovery requires new cementation.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0013","id":"S9-0013","volume":"900v9","title":"A capillary fork could separate liquid-temperature pulses from concentration pulses using opposite wall affinities.","prediction":"A capillary fork could separate liquid-temperature pulses from concentration pulses using opposite wall affinities.","test":"Measure both branch histories.","contrary":"Separation follows unequal branch volume.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0013","hypothesis":"A capillary fork could separate liquid-temperature pulses from concentration pulses using opposite wall affinities.","test":"Measure both branch histories.","contrary_result":"Separation follows unequal branch volume.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0014","id":"S9-0014","volume":"900v9","title":"A porous wax film could reveal past shear through anisotropic sublimation of an embedded benign tracer.","prediction":"A porous wax film could reveal past shear through anisotropic sublimation of an embedded benign tracer.","test":"Apply known shear histories.","contrary":"Patterns reflect manufacturing texture only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0014","hypothesis":"A porous wax film could reveal past shear through anisotropic sublimation of an embedded benign tracer.","test":"Apply known shear histories.","contrary_result":"Patterns reflect manufacturing texture only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0015","id":"S9-0015","volume":"900v9","title":"A compliant coating could erase early crystal nuclei through localized recoil without changing supersaturation.","prediction":"A compliant coating could erase early crystal nuclei through localized recoil without changing supersaturation.","test":"Track nuclei and substrate displacement.","contrary":"Nucleus loss requires chemical change.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0015","hypothesis":"A compliant coating could erase early crystal nuclei through localized recoil without changing supersaturation.","test":"Track nuclei and substrate displacement.","contrary_result":"Nucleus loss requires chemical change.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0016","id":"S9-0016","volume":"900v9","title":"A fibrous cylinder could reduce torsional fatigue by transferring water between opposite quadrants.","prediction":"A fibrous cylinder could reduce torsional fatigue by transferring water between opposite quadrants.","test":"Measure water and cyclic strain.","contrary":"Protection follows mean hydration only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0016","hypothesis":"A fibrous cylinder could reduce torsional fatigue by transferring water between opposite quadrants.","test":"Measure water and cyclic strain.","contrary_result":"Protection follows mean hydration only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0017","id":"S9-0017","volume":"900v9","title":"A sealed foam cell could identify neighboring damage through asymmetric gas-pressure relaxation.","prediction":"A sealed foam cell could identify neighboring damage through asymmetric gas-pressure relaxation.","test":"Create known adjacent defects.","contrary":"Signals follow external loading alone.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0017","hypothesis":"A sealed foam cell could identify neighboring damage through asymmetric gas-pressure relaxation.","test":"Create known adjacent defects.","contrary_result":"Signals follow external loading alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0018","id":"S9-0018","volume":"900v9","title":"A brittle optical film could distinguish stress corrosion from dry fatigue through crack-tip color dynamics.","prediction":"A brittle optical film could distinguish stress corrosion from dry fatigue through crack-tip color dynamics.","test":"Compare controlled degradation routes.","contrary":"Optical trajectories remain identical.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0018","hypothesis":"A brittle optical film could distinguish stress corrosion from dry fatigue through crack-tip color dynamics.","test":"Compare controlled degradation routes.","contrary_result":"Optical trajectories remain identical.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0019","id":"S9-0019","volume":"900v9","title":"A porous membrane could sort droplets by internal osmotic relaxation after identical temporary deformation.","prediction":"A porous membrane could sort droplets by internal osmotic relaxation after identical temporary deformation.","test":"Track recovery and route choice.","contrary":"Sorting follows initial size only.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0019","hypothesis":"A porous membrane could sort droplets by internal osmotic relaxation after identical temporary deformation.","test":"Track recovery and route choice.","contrary_result":"Sorting follows initial size only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0020","id":"S9-0020","volume":"900v9","title":"A mineral powder could preserve a concentration pulse as a reversible contact-force pattern.","prediction":"A mineral powder could preserve a concentration pulse as a reversible contact-force pattern.","test":"Measure chemistry and forces.","contrary":"Pattern disappears after concentration equalizes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0020","hypothesis":"A mineral powder could preserve a concentration pulse as a reversible contact-force pattern.","test":"Measure chemistry and forces.","contrary_result":"Pattern disappears after concentration equalizes.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0021","id":"S9-0021","volume":"900v9","title":"An elastic tube could reduce particle collisions by shifting its oscillation phase with local loading.","prediction":"An elastic tube could reduce particle collisions by shifting its oscillation phase with local loading.","test":"Map wall phase and impacts.","contrary":"Protection requires reduced particle input.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0021","hypothesis":"An elastic tube could reduce particle collisions by shifting its oscillation phase with local loading.","test":"Map wall phase and impacts.","contrary_result":"Protection requires reduced particle input.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0022","id":"S9-0022","volume":"900v9","title":"A thermal cavity could reveal connected moisture before its heat capacity changes measurably.","prediction":"A thermal cavity could reveal connected moisture before its heat capacity changes measurably.","test":"Compare thermal modes and pore images.","contrary":"Signals track total uptake only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0022","hypothesis":"A thermal cavity could reveal connected moisture before its heat capacity changes measurably.","test":"Compare thermal modes and pore images.","contrary_result":"Signals track total uptake only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0023","id":"S9-0023","volume":"900v9","title":"A transparent particle raft could localize a weak bond through the direction of slow fluctuation propagation.","prediction":"A transparent particle raft could localize a weak bond through the direction of slow fluctuation propagation.","test":"Introduce blinded bond changes.","contrary":"Localization follows raft boundaries only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0023","hypothesis":"A transparent particle raft could localize a weak bond through the direction of slow fluctuation propagation.","test":"Introduce blinded bond changes.","contrary_result":"Localization follows raft boundaries only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0024","id":"S9-0024","volume":"900v9","title":"A polymer-coated spring could integrate vapor exposure through differential creep rather than swelling magnitude.","prediction":"A polymer-coated spring could integrate vapor exposure through differential creep rather than swelling magnitude.","test":"Apply equal-dose histories.","contrary":"Signal follows current concentration only.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0024","hypothesis":"A polymer-coated spring could integrate vapor exposure through differential creep rather than swelling magnitude.","test":"Apply equal-dose histories.","contrary_result":"Signal follows current concentration only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0025","id":"S9-0025","volume":"900v9","title":"A liquid bridge could protect an adhesive edge by redistributing tensile stress before peel initiation.","prediction":"A liquid bridge could protect an adhesive edge by redistributing tensile stress before peel initiation.","test":"Measure bridge pressure and edge strain.","contrary":"Protection follows reduced applied load.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0025","hypothesis":"A liquid bridge could protect an adhesive edge by redistributing tensile stress before peel initiation.","test":"Measure bridge pressure and edge strain.","contrary_result":"Protection follows reduced applied load.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0026","id":"S9-0026","volume":"900v9","title":"A porous salt layer could emit a mechanical warning when a hidden crystallization front approaches its support.","prediction":"A porous salt layer could emit a mechanical warning when a hidden crystallization front approaches its support.","test":"Measure sound and front position.","contrary":"Warning begins only after detachment.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0026","hypothesis":"A porous salt layer could emit a mechanical warning when a hidden crystallization front approaches its support.","test":"Measure sound and front position.","contrary_result":"Warning begins only after detachment.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0027","id":"S9-0027","volume":"900v9","title":"A flexible pore array could retain selectivity after partial blockage by redistributing aperture shapes.","prediction":"A flexible pore array could retain selectivity after partial blockage by redistributing aperture shapes.","test":"Image apertures and rejection.","contrary":"Recovery requires lower total flux.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0027","hypothesis":"A flexible pore array could retain selectivity after partial blockage by redistributing aperture shapes.","test":"Image apertures and rejection.","contrary_result":"Recovery requires lower total flux.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0028","id":"S9-0028","volume":"900v9","title":"A mineral aggregate could reveal whether water entered from above or below through its acoustic recovery order.","prediction":"A mineral aggregate could reveal whether water entered from above or below through its acoustic recovery order.","test":"Compare controlled infiltration directions.","contrary":"Signals follow final saturation only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0028","hypothesis":"A mineral aggregate could reveal whether water entered from above or below through its acoustic recovery order.","test":"Compare controlled infiltration directions.","contrary_result":"Signals follow final saturation only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0029","id":"S9-0029","volume":"900v9","title":"A soft-coated bead could retain collision order in the orientation of its later wetting patch.","prediction":"A soft-coated bead could retain collision order in the orientation of its later wetting patch.","test":"Reverse collision sequences.","contrary":"Patch records only final deformation.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0029","hypothesis":"A soft-coated bead could retain collision order in the orientation of its later wetting patch.","test":"Reverse collision sequences.","contrary_result":"Patch records only final deformation.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0030","id":"S9-0030","volume":"900v9","title":"A capillary sheet could isolate one leaking branch by moving an air interface toward it.","prediction":"A capillary sheet could isolate one leaking branch by moving an air interface toward it.","test":"Image gas and liquid routing.","contrary":"Isolation requires active valves.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0030","hypothesis":"A capillary sheet could isolate one leaking branch by moving an air interface toward it.","test":"Image gas and liquid routing.","contrary_result":"Isolation requires active valves.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0031","id":"S9-0031","volume":"900v9","title":"A dye-free gel could mark recent shear through directional light-scattering fluctuations before permanent whitening.","prediction":"A dye-free gel could mark recent shear through directional light-scattering fluctuations before permanent whitening.","test":"Measure optics and strain.","contrary":"Signal appears only with damage.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0031","hypothesis":"A dye-free gel could mark recent shear through directional light-scattering fluctuations before permanent whitening.","test":"Measure optics and strain.","contrary_result":"Signal appears only with damage.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0032","id":"S9-0032","volume":"900v9","title":"A porous glass ridge could reverse droplet migration when its internal humidity equilibrates.","prediction":"A porous glass ridge could reverse droplet migration when its internal humidity equilibrates.","test":"Track motion and internal moisture.","contrary":"Direction follows surface slope only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0032","hypothesis":"A porous glass ridge could reverse droplet migration when its internal humidity equilibrates.","test":"Track motion and internal moisture.","contrary_result":"Direction follows surface slope only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0033","id":"S9-0033","volume":"900v9","title":"A layered paper resonator could distinguish absorbed water from condensed surface water through phase locking.","prediction":"A layered paper resonator could distinguish absorbed water from condensed surface water through phase locking.","test":"Calibrate both uptake modes.","contrary":"Phase signatures remain confounded.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0033","hypothesis":"A layered paper resonator could distinguish absorbed water from condensed surface water through phase locking.","test":"Calibrate both uptake modes.","contrary_result":"Phase signatures remain confounded.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0034","id":"S9-0034","volume":"900v9","title":"A salt crystal could retain fewer impurities when its support undergoes a slow rotational relaxation.","prediction":"A salt crystal could retain fewer impurities when its support undergoes a slow rotational relaxation.","test":"Measure impurities and growth fields.","contrary":"Purity follows growth rate only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0034","hypothesis":"A salt crystal could retain fewer impurities when its support undergoes a slow rotational relaxation.","test":"Measure impurities and growth fields.","contrary_result":"Purity follows growth rate only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0035","id":"S9-0035","volume":"900v9","title":"A liquid-coated elastic fin could suppress resonance through reversible redistribution of film thickness.","prediction":"A liquid-coated elastic fin could suppress resonance through reversible redistribution of film thickness.","test":"Map film and vibration.","contrary":"Damping follows total liquid mass.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0035","hypothesis":"A liquid-coated elastic fin could suppress resonance through reversible redistribution of film thickness.","test":"Map film and vibration.","contrary_result":"Damping follows total liquid mass.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0036","id":"S9-0036","volume":"900v9","title":"A porous adhesive could reveal a subsurface flaw through where rinsing liquid first becomes mechanically trapped.","prediction":"A porous adhesive could reveal a subsurface flaw through where rinsing liquid first becomes mechanically trapped.","test":"Compare known flaws.","contrary":"Trapping follows surface roughness only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0036","hypothesis":"A porous adhesive could reveal a subsurface flaw through where rinsing liquid first becomes mechanically trapped.","test":"Compare known flaws.","contrary_result":"Trapping follows surface roughness only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0037","id":"S9-0037","volume":"900v9","title":"A fiber scaffold could route a benign reaction front through strain-controlled changes in liquid connectivity.","prediction":"A fiber scaffold could route a benign reaction front through strain-controlled changes in liquid connectivity.","test":"Map strain and chemistry.","contrary":"Routing follows concentration gradients alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0037","hypothesis":"A fiber scaffold could route a benign reaction front through strain-controlled changes in liquid connectivity.","test":"Map strain and chemistry.","contrary_result":"Routing follows concentration gradients alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0038","id":"S9-0038","volume":"900v9","title":"A wet granular ring could store impact direction without retaining a visible dent.","prediction":"A wet granular ring could store impact direction without retaining a visible dent.","test":"Probe contact anisotropy.","contrary":"Memory requires residual shape change.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0038","hypothesis":"A wet granular ring could store impact direction without retaining a visible dent.","test":"Probe contact anisotropy.","contrary_result":"Memory requires residual shape change.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0039","id":"S9-0039","volume":"900v9","title":"An optical cavity could detect reversible molecular clustering through changes in modal energy exchange.","prediction":"An optical cavity could detect reversible molecular clustering through changes in modal energy exchange.","test":"Measure clusters and coupled modes.","contrary":"Signals follow refractive index alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0039","hypothesis":"An optical cavity could detect reversible molecular clustering through changes in modal energy exchange.","test":"Measure clusters and coupled modes.","contrary_result":"Signals follow refractive index alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0040","id":"S9-0040","volume":"900v9","title":"A foam-backed membrane could shed droplets at a reproducible stored-energy threshold rather than fixed volume.","prediction":"A foam-backed membrane could shed droplets at a reproducible stored-energy threshold rather than fixed volume.","test":"Measure strain energy and release.","contrary":"Volume alone predicts shedding.","layers":[1],"categories":["energy","biology","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0040","hypothesis":"A foam-backed membrane could shed droplets at a reproducible stored-energy threshold rather than fixed volume.","test":"Measure strain energy and release.","contrary_result":"Volume alone predicts shedding.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0041","id":"S9-0041","volume":"900v9","title":"A narrow liquid channel could preserve pressure-pulse order in the distribution of adsorbed gas.","prediction":"A narrow liquid channel could preserve pressure-pulse order in the distribution of adsorbed gas.","test":"Map gas after reversed sequences.","contrary":"Distribution follows peak pressure only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0041","hypothesis":"A narrow liquid channel could preserve pressure-pulse order in the distribution of adsorbed gas.","test":"Map gas after reversed sequences.","contrary_result":"Distribution follows peak pressure only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0042","id":"S9-0042","volume":"900v9","title":"A porous ceramic edge could release salt preferentially after a humidity gradient reverses.","prediction":"A porous ceramic edge could release salt preferentially after a humidity gradient reverses.","test":"Measure crystal loss and humidity.","contrary":"Release follows mean humidity only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0042","hypothesis":"A porous ceramic edge could release salt preferentially after a humidity gradient reverses.","test":"Measure crystal loss and humidity.","contrary_result":"Release follows mean humidity only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0043","id":"S9-0043","volume":"900v9","title":"A freely moving gel bead could detect solvent-front direction through transient rotation of embedded markers.","prediction":"A freely moving gel bead could detect solvent-front direction through transient rotation of embedded markers.","test":"Track markers and external flow.","contrary":"Rotation follows bulk convection alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0043","hypothesis":"A freely moving gel bead could detect solvent-front direction through transient rotation of embedded markers.","test":"Track markers and external flow.","contrary_result":"Rotation follows bulk convection alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0044","id":"S9-0044","volume":"900v9","title":"A layered thermal conductor could self-identify interfacial voids through opposite cooling asymmetries from its two faces.","prediction":"A layered thermal conductor could self-identify interfacial voids through opposite cooling asymmetries from its two faces.","test":"Apply matched heat pulses.","contrary":"Asymmetry follows heater mismatch only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0044","hypothesis":"A layered thermal conductor could self-identify interfacial voids through opposite cooling asymmetries from its two faces.","test":"Apply matched heat pulses.","contrary_result":"Asymmetry follows heater mismatch only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0045","id":"S9-0045","volume":"900v9","title":"A compliant surface could reduce contaminant transfer by mechanically delaying only the last stage of droplet detachment.","prediction":"A compliant surface could reduce contaminant transfer by mechanically delaying only the last stage of droplet detachment.","test":"Measure residue and contact motion.","contrary":"Benefits follow smaller contact area.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0045","hypothesis":"A compliant surface could reduce contaminant transfer by mechanically delaying only the last stage of droplet detachment.","test":"Measure residue and contact motion.","contrary_result":"Benefits follow smaller contact area.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0046","id":"S9-0046","volume":"900v9","title":"A mineral-lined tube could show a reversible flow instability driven by dissolution-dependent wall stress.","prediction":"A mineral-lined tube could show a reversible flow instability driven by dissolution-dependent wall stress.","test":"Measure chemistry, strain, and flow.","contrary":"Instability requires irreversible blockage.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0046","hypothesis":"A mineral-lined tube could show a reversible flow instability driven by dissolution-dependent wall stress.","test":"Measure chemistry, strain, and flow.","contrary_result":"Instability requires irreversible blockage.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0047","id":"S9-0047","volume":"900v9","title":"A porous fiber knot could release concentrated solute before releasing most stored water.","prediction":"A porous fiber knot could release concentrated solute before releasing most stored water.","test":"Measure both mass histories.","contrary":"Solute release follows water proportionally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0047","hypothesis":"A porous fiber knot could release concentrated solute before releasing most stored water.","test":"Measure both mass histories.","contrary_result":"Solute release follows water proportionally.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0048","id":"S9-0048","volume":"900v9","title":"A transparent elastomer could distinguish internal gas migration from polymer relaxation through crossed optical-noise correlations.","prediction":"A transparent elastomer could distinguish internal gas migration from polymer relaxation through crossed optical-noise correlations.","test":"Calibrate processes separately.","contrary":"Correlations remain ambiguous.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0048","hypothesis":"A transparent elastomer could distinguish internal gas migration from polymer relaxation through crossed optical-noise correlations.","test":"Calibrate processes separately.","contrary_result":"Correlations remain ambiguous.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0049","id":"S9-0049","volume":"900v9","title":"A capillary membrane could retain a liquid pulse's width in a persistent dry-zone geometry.","prediction":"A capillary membrane could retain a liquid pulse's width in a persistent dry-zone geometry.","test":"Compare pulses with equal volume.","contrary":"Geometry follows total dose only.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0049","hypothesis":"A capillary membrane could retain a liquid pulse's width in a persistent dry-zone geometry.","test":"Compare pulses with equal volume.","contrary_result":"Geometry follows total dose only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0050","id":"S9-0050","volume":"900v9","title":"A stressed crystal face could recover catalytic access by rotating adsorbed solvent molecules without desorption.","prediction":"A stressed crystal face could recover catalytic access by rotating adsorbed solvent molecules without desorption.","test":"Measure orientation and probe reaction.","contrary":"Recovery requires solvent mass loss.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0050","hypothesis":"A stressed crystal face could recover catalytic access by rotating adsorbed solvent molecules without desorption.","test":"Measure orientation and probe reaction.","contrary_result":"Recovery requires solvent mass loss.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0051","id":"S9-0051","volume":"900v9","title":"A granular bridge could redirect a crack into an unloaded region through mobile liquid necks.","prediction":"A granular bridge could redirect a crack into an unloaded region through mobile liquid necks.","test":"Image necks and crack paths.","contrary":"Steering follows grain geometry only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0051","hypothesis":"A granular bridge could redirect a crack into an unloaded region through mobile liquid necks.","test":"Image necks and crack paths.","contrary_result":"Steering follows grain geometry only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0052","id":"S9-0052","volume":"900v9","title":"A floating porous strip could reveal upstream salinity changes through delayed curvature before arrival of bulk liquid.","prediction":"A floating porous strip could reveal upstream salinity changes through delayed curvature before arrival of bulk liquid.","test":"Track salinity and bending.","contrary":"Response requires direct advective arrival.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0052","hypothesis":"A floating porous strip could reveal upstream salinity changes through delayed curvature before arrival of bulk liquid.","test":"Track salinity and bending.","contrary_result":"Response requires direct advective arrival.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0053","id":"S9-0053","volume":"900v9","title":"A gel's local fracture resistance could depend on the direction of its most recent solvent exchange.","prediction":"A gel's local fracture resistance could depend on the direction of its most recent solvent exchange.","test":"Compare reversed exchanges at equal composition.","contrary":"Resistance follows final water content only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0053","hypothesis":"A gel's local fracture resistance could depend on the direction of its most recent solvent exchange.","test":"Compare reversed exchanges at equal composition.","contrary_result":"Resistance follows final water content only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0054","id":"S9-0054","volume":"900v9","title":"A porous reflector could separate particle fouling from pore wetting through the sign of polarization recovery.","prediction":"A porous reflector could separate particle fouling from pore wetting through the sign of polarization recovery.","test":"Introduce both independently.","contrary":"Recovery directions overlap.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0054","hypothesis":"A porous reflector could separate particle fouling from pore wetting through the sign of polarization recovery.","test":"Introduce both independently.","contrary_result":"Recovery directions overlap.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0055","id":"S9-0055","volume":"900v9","title":"A soft valve could become less sensitive to pressure noise as its closure time approaches the fluid's relaxation time.","prediction":"A soft valve could become less sensitive to pressure noise as its closure time approaches the fluid's relaxation time.","test":"Measure errors across timescales.","contrary":"Improvement follows lower operating speed only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0055","hypothesis":"A soft valve could become less sensitive to pressure noise as its closure time approaches the fluid's relaxation time.","test":"Measure errors across timescales.","contrary_result":"Improvement follows lower operating speed only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0056","id":"S9-0056","volume":"900v9","title":"A thin ice shell could preserve an internal chemical pattern by moving brine toward unstressed regions.","prediction":"A thin ice shell could preserve an internal chemical pattern by moving brine toward unstressed regions.","test":"Map stress and brine.","contrary":"Pattern preservation requires freezing faster.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0056","hypothesis":"A thin ice shell could preserve an internal chemical pattern by moving brine toward unstressed regions.","test":"Map stress and brine.","contrary_result":"Pattern preservation requires freezing faster.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0057","id":"S9-0057","volume":"900v9","title":"A reversible mineral coating could protect a substrate through migration toward an advancing corrosion front.","prediction":"A reversible mineral coating could protect a substrate through migration toward an advancing corrosion front.","test":"Track coating and reaction.","contrary":"Protection follows uniform coverage only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0057","hypothesis":"A reversible mineral coating could protect a substrate through migration toward an advancing corrosion front.","test":"Track coating and reaction.","contrary_result":"Protection follows uniform coverage only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0058","id":"S9-0058","volume":"900v9","title":"A capillary lattice could create a stable liquid loop around a drying defect without external replenishment.","prediction":"A capillary lattice could create a stable liquid loop around a drying defect without external replenishment.","test":"Image mass redistribution.","contrary":"Loop stability requires added water.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0058","hypothesis":"A capillary lattice could create a stable liquid loop around a drying defect without external replenishment.","test":"Image mass redistribution.","contrary_result":"Loop stability requires added water.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0059","id":"S9-0059","volume":"900v9","title":"A fibrous droplet trap could distinguish gas bubbles from solid particles by their effect on recoil phase.","prediction":"A fibrous droplet trap could distinguish gas bubbles from solid particles by their effect on recoil phase.","test":"Measure calibrated inclusions.","contrary":"Phase follows added volume only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0059","hypothesis":"A fibrous droplet trap could distinguish gas bubbles from solid particles by their effect on recoil phase.","test":"Measure calibrated inclusions.","contrary_result":"Phase follows added volume only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0060","id":"S9-0060","volume":"900v9","title":"A transparent gel could reveal a weak interface through a temporary local reversal of thermal expansion.","prediction":"A transparent gel could reveal a weak interface through a temporary local reversal of thermal expansion.","test":"Map strain and temperature.","contrary":"Reversal follows water gradients alone.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0060","hypothesis":"A transparent gel could reveal a weak interface through a temporary local reversal of thermal expansion.","test":"Map strain and temperature.","contrary_result":"Reversal follows water gradients alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0061","id":"S9-0061","volume":"900v9","title":"A porous ceramic could maintain vapor permeability after surface crystallization through stress-opened bypass pores.","prediction":"A porous ceramic could maintain vapor permeability after surface crystallization through stress-opened bypass pores.","test":"Image pores and flux.","contrary":"Transport requires visible cracks.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0061","hypothesis":"A porous ceramic could maintain vapor permeability after surface crystallization through stress-opened bypass pores.","test":"Image pores and flux.","contrary_result":"Transport requires visible cracks.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0062","id":"S9-0062","volume":"900v9","title":"A liquid-filled flexible tube could encode peak acceleration in a stable internal meniscus position.","prediction":"A liquid-filled flexible tube could encode peak acceleration in a stable internal meniscus position.","test":"Apply calibrated motion histories.","contrary":"Position follows net displacement only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0062","hypothesis":"A liquid-filled flexible tube could encode peak acceleration in a stable internal meniscus position.","test":"Apply calibrated motion histories.","contrary_result":"Position follows net displacement only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0063","id":"S9-0063","volume":"900v9","title":"A mineral grain could carry a mechanical record of its drying direction after all water leaves.","prediction":"A mineral grain could carry a mechanical record of its drying direction after all water leaves.","test":"Measure anisotropic deformation response.","contrary":"Memory follows permanent fractures only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0063","hypothesis":"A mineral grain could carry a mechanical record of its drying direction after all water leaves.","test":"Measure anisotropic deformation response.","contrary_result":"Memory follows permanent fractures only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0064","id":"S9-0064","volume":"900v9","title":"A mobile catalyst film could move active sites away from local overheating without reducing their number.","prediction":"A mobile catalyst film could move active sites away from local overheating without reducing their number.","test":"Track sites and temperature.","contrary":"Protection requires catalyst deactivation.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0064","hypothesis":"A mobile catalyst film could move active sites away from local overheating without reducing their number.","test":"Track sites and temperature.","contrary_result":"Protection requires catalyst deactivation.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0065","id":"S9-0065","volume":"900v9","title":"A soft particle cluster could reduce drag by changing contact topology before changing overall shape.","prediction":"A soft particle cluster could reduce drag by changing contact topology before changing overall shape.","test":"Image contacts and force.","contrary":"Drag changes require external shape change.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0065","hypothesis":"A soft particle cluster could reduce drag by changing contact topology before changing overall shape.","test":"Image contacts and force.","contrary_result":"Drag changes require external shape change.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0066","id":"S9-0066","volume":"900v9","title":"A capillary sensor could identify water contamination in oil through the timing of two interface arrests.","prediction":"A capillary sensor could identify water contamination in oil through the timing of two interface arrests.","test":"Calibrate mixtures.","contrary":"Timing follows viscosity alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0066","hypothesis":"A capillary sensor could identify water contamination in oil through the timing of two interface arrests.","test":"Calibrate mixtures.","contrary_result":"Timing follows viscosity alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0067","id":"S9-0067","volume":"900v9","title":"A porous polymer could suppress solvent-induced crazing by redistributing free volume toward stressed zones.","prediction":"A porous polymer could suppress solvent-induced crazing by redistributing free volume toward stressed zones.","test":"Measure free volume and cracks.","contrary":"Protection requires lower solvent uptake.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0067","hypothesis":"A porous polymer could suppress solvent-induced crazing by redistributing free volume toward stressed zones.","test":"Measure free volume and cracks.","contrary_result":"Protection requires lower solvent uptake.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0068","id":"S9-0068","volume":"900v9","title":"A thin clay bridge could retain strength during drying by releasing water preferentially from compressive contacts.","prediction":"A thin clay bridge could retain strength during drying by releasing water preferentially from compressive contacts.","test":"Map contact stress and water.","contrary":"Strength follows average moisture only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0068","hypothesis":"A thin clay bridge could retain strength during drying by releasing water preferentially from compressive contacts.","test":"Map contact stress and water.","contrary_result":"Strength follows average moisture only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0069","id":"S9-0069","volume":"900v9","title":"A suspended film could reveal weak airborne vibrations through motion of its drying boundary rather than membrane deflection.","prediction":"A suspended film could reveal weak airborne vibrations through motion of its drying boundary rather than membrane deflection.","test":"Measure both responses.","contrary":"Boundary response adds no sensitivity.","layers":[1],"categories":["biology","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0069","hypothesis":"A suspended film could reveal weak airborne vibrations through motion of its drying boundary rather than membrane deflection.","test":"Measure both responses.","contrary_result":"Boundary response adds no sensitivity.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0070","id":"S9-0070","volume":"900v9","title":"A transparent foam could distinguish overload from overheating through different sequences of internal optical connection loss.","prediction":"A transparent foam could distinguish overload from overheating through different sequences of internal optical connection loss.","test":"Apply separate exposures.","contrary":"Sequences depend only on total damage.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0070","hypothesis":"A transparent foam could distinguish overload from overheating through different sequences of internal optical connection loss.","test":"Apply separate exposures.","contrary_result":"Sequences depend only on total damage.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0071","id":"S9-0071","volume":"900v9","title":"A porous wick could keep solutes away from its hottest point through reversible local swelling.","prediction":"A porous wick could keep solutes away from its hottest point through reversible local swelling.","test":"Map water, temperature, and concentration.","contrary":"Exclusion follows evaporation rate only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0071","hypothesis":"A porous wick could keep solutes away from its hottest point through reversible local swelling.","test":"Map water, temperature, and concentration.","contrary_result":"Exclusion follows evaporation rate only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0072","id":"S9-0072","volume":"900v9","title":"A mechanically asymmetric pore could release trapped gas with less pressure after a short rest.","prediction":"A mechanically asymmetric pore could release trapped gas with less pressure after a short rest.","test":"Measure recovery and release pressure.","contrary":"Benefits follow gas dissolution only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0072","hypothesis":"A mechanically asymmetric pore could release trapped gas with less pressure after a short rest.","test":"Measure recovery and release pressure.","contrary_result":"Benefits follow gas dissolution only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0073","id":"S9-0073","volume":"900v9","title":"A salt-bearing surface could preserve the duration of prior wetness in its later frictional relaxation.","prediction":"A salt-bearing surface could preserve the duration of prior wetness in its later frictional relaxation.","test":"Apply matched peak hydration histories.","contrary":"Friction follows current moisture only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0073","hypothesis":"A salt-bearing surface could preserve the duration of prior wetness in its later frictional relaxation.","test":"Apply matched peak hydration histories.","contrary_result":"Friction follows current moisture only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0074","id":"S9-0074","volume":"900v9","title":"A flexible thermal interface could route heat differently during loading and unloading despite equal contact area.","prediction":"A flexible thermal interface could route heat differently during loading and unloading despite equal contact area.","test":"Measure pressure and heat flow.","contrary":"Difference follows temperature lag only.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0074","hypothesis":"A flexible thermal interface could route heat differently during loading and unloading despite equal contact area.","test":"Measure pressure and heat flow.","contrary_result":"Difference follows temperature lag only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0075","id":"S9-0075","volume":"900v9","title":"A porous capsule could tolerate pinhole damage by shifting its pressure-supporting meniscus inward.","prediction":"A porous capsule could tolerate pinhole damage by shifting its pressure-supporting meniscus inward.","test":"Image menisci and leakage.","contrary":"Protection requires solid closure.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0075","hypothesis":"A porous capsule could tolerate pinhole damage by shifting its pressure-supporting meniscus inward.","test":"Image menisci and leakage.","contrary_result":"Protection requires solid closure.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0076","id":"S9-0076","volume":"900v9","title":"A gel-coated acoustic tag could identify dissolved-solute binding from the direction of damping change after stretching.","prediction":"A gel-coated acoustic tag could identify dissolved-solute binding from the direction of damping change after stretching.","test":"Calibrate binding and viscosity.","contrary":"Damping follows viscosity alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0076","hypothesis":"A gel-coated acoustic tag could identify dissolved-solute binding from the direction of damping change after stretching.","test":"Calibrate binding and viscosity.","contrary_result":"Damping follows viscosity alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0077","id":"S9-0077","volume":"900v9","title":"A particle raft could suppress large rearrangements by storing local impacts as reversible out-of-plane motion.","prediction":"A particle raft could suppress large rearrangements by storing local impacts as reversible out-of-plane motion.","test":"Track energy and topology.","contrary":"Rearrangements increase with added compliance.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0077","hypothesis":"A particle raft could suppress large rearrangements by storing local impacts as reversible out-of-plane motion.","test":"Track energy and topology.","contrary_result":"Rearrangements increase with added compliance.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0078","id":"S9-0078","volume":"900v9","title":"A porous mineral film could detect transient reducing conditions through later changes in wetting-front roughness.","prediction":"A porous mineral film could detect transient reducing conditions through later changes in wetting-front roughness.","test":"Measure chemical state and fronts.","contrary":"Roughness follows contamination alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0078","hypothesis":"A porous mineral film could detect transient reducing conditions through later changes in wetting-front roughness.","test":"Measure chemical state and fronts.","contrary_result":"Roughness follows contamination alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0079","id":"S9-0079","volume":"900v9","title":"A fiber-bond network could preserve strength by shifting adhesive failure from simultaneous to sequential release.","prediction":"A fiber-bond network could preserve strength by shifting adhesive failure from simultaneous to sequential release.","test":"Measure failure timing.","contrary":"Sequencing reduces absorbed work.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0079","hypothesis":"A fiber-bond network could preserve strength by shifting adhesive failure from simultaneous to sequential release.","test":"Measure failure timing.","contrary_result":"Sequencing reduces absorbed work.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0080","id":"S9-0080","volume":"900v9","title":"A liquid-lined microcavity could report chemical exposure order through different recovery paths of its shape modes.","prediction":"A liquid-lined microcavity could report chemical exposure order through different recovery paths of its shape modes.","test":"Reverse exposures.","contrary":"Modes encode final composition only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0080","hypothesis":"A liquid-lined microcavity could report chemical exposure order through different recovery paths of its shape modes.","test":"Reverse exposures.","contrary_result":"Modes encode final composition only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0081","id":"S9-0081","volume":"900v9","title":"A capillary bridge array could reduce contact-force variability through exchange of liquid between distant contacts.","prediction":"A capillary bridge array could reduce contact-force variability through exchange of liquid between distant contacts.","test":"Map bridges and forces.","contrary":"Variability follows total liquid only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0081","hypothesis":"A capillary bridge array could reduce contact-force variability through exchange of liquid between distant contacts.","test":"Map bridges and forces.","contrary_result":"Variability follows total liquid only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0082","id":"S9-0082","volume":"900v9","title":"A thin polymer shell could dissipate a pulse by converting pressure into delayed circumferential solvent transport.","prediction":"A thin polymer shell could dissipate a pulse by converting pressure into delayed circumferential solvent transport.","test":"Measure pressure and solvent motion.","contrary":"Dissipation requires shell damage.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0082","hypothesis":"A thin polymer shell could dissipate a pulse by converting pressure into delayed circumferential solvent transport.","test":"Measure pressure and solvent motion.","contrary_result":"Dissipation requires shell damage.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0083","id":"S9-0083","volume":"900v9","title":"A porous coating could recover optical clarity through expulsion of microbubbles during gentle torsion.","prediction":"A porous coating could recover optical clarity through expulsion of microbubbles during gentle torsion.","test":"Track bubbles and transmission.","contrary":"Clarity changes require material removal.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0083","hypothesis":"A porous coating could recover optical clarity through expulsion of microbubbles during gentle torsion.","test":"Track bubbles and transmission.","contrary_result":"Clarity changes require material removal.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0084","id":"S9-0084","volume":"900v9","title":"A mineral surface could support a moving adsorption boundary whose speed reports local elastic strain.","prediction":"A mineral surface could support a moving adsorption boundary whose speed reports local elastic strain.","test":"Measure strain and coverage.","contrary":"Speed follows concentration alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0084","hypothesis":"A mineral surface could support a moving adsorption boundary whose speed reports local elastic strain.","test":"Measure strain and coverage.","contrary_result":"Speed follows concentration alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0085","id":"S9-0085","volume":"900v9","title":"A suspended gel strip could distinguish evaporation from chemical deswelling through opposite rotation of internal stress axes.","prediction":"A suspended gel strip could distinguish evaporation from chemical deswelling through opposite rotation of internal stress axes.","test":"Measure water and strain.","contrary":"Axis rotation cannot separate causes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0085","hypothesis":"A suspended gel strip could distinguish evaporation from chemical deswelling through opposite rotation of internal stress axes.","test":"Measure water and strain.","contrary_result":"Axis rotation cannot separate causes.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0086","id":"S9-0086","volume":"900v9","title":"A capillary junction could remain functional after one channel dries by transferring wetting energy through a shared flexible wall.","prediction":"A capillary junction could remain functional after one channel dries by transferring wetting energy through a shared flexible wall.","test":"Measure wall and fronts.","contrary":"Recovery requires liquid connection.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0086","hypothesis":"A capillary junction could remain functional after one channel dries by transferring wetting energy through a shared flexible wall.","test":"Measure wall and fronts.","contrary_result":"Recovery requires liquid connection.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0087","id":"S9-0087","volume":"900v9","title":"A porous fiber could identify the direction of an acoustic pulse through asymmetric gas release.","prediction":"A porous fiber could identify the direction of an acoustic pulse through asymmetric gas release.","test":"Track gas under reversed propagation.","contrary":"Release follows heating only.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0087","hypothesis":"A porous fiber could identify the direction of an acoustic pulse through asymmetric gas release.","test":"Track gas under reversed propagation.","contrary_result":"Release follows heating only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0088","id":"S9-0088","volume":"900v9","title":"A soft particulate coating could reduce salt adhesion by moving particles under the first crystals.","prediction":"A soft particulate coating could reduce salt adhesion by moving particles under the first crystals.","test":"Image particles and detachment.","contrary":"Benefit follows changed roughness only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0088","hypothesis":"A soft particulate coating could reduce salt adhesion by moving particles under the first crystals.","test":"Image particles and detachment.","contrary_result":"Benefit follows changed roughness only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0089","id":"S9-0089","volume":"900v9","title":"A liquid-filled mechanical memory could forget vibration noise while retaining a single overload through selective pore drainage.","prediction":"A liquid-filled mechanical memory could forget vibration noise while retaining a single overload through selective pore drainage.","test":"Compare histories.","contrary":"Noise erases the overload record.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0089","hypothesis":"A liquid-filled mechanical memory could forget vibration noise while retaining a single overload through selective pore drainage.","test":"Compare histories.","contrary_result":"Noise erases the overload record.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0090","id":"S9-0090","volume":"900v9","title":"A transparent mineral gel could expose hidden ion binding through anisotropic shrinkage without changing total volume.","prediction":"A transparent mineral gel could expose hidden ion binding through anisotropic shrinkage without changing total volume.","test":"Measure ions and dimensions.","contrary":"Anisotropy follows preparation texture only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0090","hypothesis":"A transparent mineral gel could expose hidden ion binding through anisotropic shrinkage without changing total volume.","test":"Measure ions and dimensions.","contrary_result":"Anisotropy follows preparation texture only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0091","id":"S9-0091","volume":"900v9","title":"A porous sheet could retain distinct wetting histories as disconnected water-state domains after equal mass equilibration.","prediction":"A porous sheet could retain distinct wetting histories as disconnected water-state domains after equal mass equilibration.","test":"Map water states.","contrary":"Domains disappear when mass matches.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0091","hypothesis":"A porous sheet could retain distinct wetting histories as disconnected water-state domains after equal mass equilibration.","test":"Map water states.","contrary_result":"Domains disappear when mass matches.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0092","id":"S9-0092","volume":"900v9","title":"A flexible pore could distinguish solute concentration from pressure through unequal opening and closing delays.","prediction":"A flexible pore could distinguish solute concentration from pressure through unequal opening and closing delays.","test":"Calibrate both variables.","contrary":"Delays remain unidentifiable.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0092","hypothesis":"A flexible pore could distinguish solute concentration from pressure through unequal opening and closing delays.","test":"Calibrate both variables.","contrary_result":"Delays remain unidentifiable.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0093","id":"S9-0093","volume":"900v9","title":"A thin adhesive could self-report cavitation through a passive change in emitted acoustic polarization.","prediction":"A thin adhesive could self-report cavitation through a passive change in emitted acoustic polarization.","test":"Measure cavities and sound.","contrary":"Signals follow bulk vibration only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0093","hypothesis":"A thin adhesive could self-report cavitation through a passive change in emitted acoustic polarization.","test":"Measure cavities and sound.","contrary_result":"Signals follow bulk vibration only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0094","id":"S9-0094","volume":"900v9","title":"A porous shell could redirect incoming droplets toward already wet regions and preserve dry insulation elsewhere.","prediction":"A porous shell could redirect incoming droplets toward already wet regions and preserve dry insulation elsewhere.","test":"Measure routing and conductivity.","contrary":"Routing causes widespread wetting.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0094","hypothesis":"A porous shell could redirect incoming droplets toward already wet regions and preserve dry insulation elsewhere.","test":"Measure routing and conductivity.","contrary_result":"Routing causes widespread wetting.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0095","id":"S9-0095","volume":"900v9","title":"A granular membrane could reduce fatigue by exchanging which contacts carry hydraulic load.","prediction":"A granular membrane could reduce fatigue by exchanging which contacts carry hydraulic load.","test":"Track contacts and pressure cycles.","contrary":"Durability follows mean stress only.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0095","hypothesis":"A granular membrane could reduce fatigue by exchanging which contacts carry hydraulic load.","test":"Track contacts and pressure cycles.","contrary_result":"Durability follows mean stress only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0096","id":"S9-0096","volume":"900v9","title":"A compliant mineral bridge could heal faster when elastic relaxation exposes fresh crystal faces.","prediction":"A compliant mineral bridge could heal faster when elastic relaxation exposes fresh crystal faces.","test":"Measure relaxation and regrowth.","contrary":"Healing follows solute supply only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0096","hypothesis":"A compliant mineral bridge could heal faster when elastic relaxation exposes fresh crystal faces.","test":"Measure relaxation and regrowth.","contrary_result":"Healing follows solute supply only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0097","id":"S9-0097","volume":"900v9","title":"A liquid-coated fiber could retain the sign of a short thermal gradient in its later torsional response.","prediction":"A liquid-coated fiber could retain the sign of a short thermal gradient in its later torsional response.","test":"Reverse gradients.","contrary":"Response follows residual temperature only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0097","hypothesis":"A liquid-coated fiber could retain the sign of a short thermal gradient in its later torsional response.","test":"Reverse gradients.","contrary_result":"Response follows residual temperature only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0098","id":"S9-0098","volume":"900v9","title":"A porous optical tag could detect mechanical tampering without retaining the applied force through a shift in pore connectivity.","prediction":"A porous optical tag could detect mechanical tampering without retaining the applied force through a shift in pore connectivity.","test":"Compare maps after unloading.","contrary":"Signals require residual deformation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0098","hypothesis":"A porous optical tag could detect mechanical tampering without retaining the applied force through a shift in pore connectivity.","test":"Compare maps after unloading.","contrary_result":"Signals require residual deformation.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0099","id":"S9-0099","volume":"900v9","title":"A soft cooling wick could suppress hotspots by bending toward wetter neighboring regions.","prediction":"A soft cooling wick could suppress hotspots by bending toward wetter neighboring regions.","test":"Measure shape and temperature.","contrary":"Cooling follows increased exposed area only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0099","hypothesis":"A soft cooling wick could suppress hotspots by bending toward wetter neighboring regions.","test":"Measure shape and temperature.","contrary_result":"Cooling follows increased exposed area only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0100","id":"S9-0100","volume":"900v9","title":"A capillary recorder could distinguish one long exposure from separated pulses through the topology of trapped gas.","prediction":"A capillary recorder could distinguish one long exposure from separated pulses through the topology of trapped gas.","test":"Compare equal-dose histories.","contrary":"Topology reflects total volume only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0100","hypothesis":"A capillary recorder could distinguish one long exposure from separated pulses through the topology of trapped gas.","test":"Compare equal-dose histories.","contrary_result":"Topology reflects total volume only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0101","id":"S9-0101","volume":"900v9","title":"A thermal contact could reveal aging through the curvature of its response to two unequal heat pulses.","prediction":"A thermal contact could reveal aging through the curvature of its response to two unequal heat pulses.","test":"Compare fresh and aged contacts.","contrary":"Curvature follows heater nonlinearity only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0101","hypothesis":"A thermal contact could reveal aging through the curvature of its response to two unequal heat pulses.","test":"Compare fresh and aged contacts.","contrary_result":"Curvature follows heater nonlinearity only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0102","id":"S9-0102","volume":"900v9","title":"A droplet's final footprint could distinguish wall absorption from evaporation through opposite perimeter-to-area trajectories.","prediction":"A droplet's final footprint could distinguish wall absorption from evaporation through opposite perimeter-to-area trajectories.","test":"Measure mass and outlines.","contrary":"Trajectories remain indistinguishable.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0102","hypothesis":"A droplet's final footprint could distinguish wall absorption from evaporation through opposite perimeter-to-area trajectories.","test":"Measure mass and outlines.","contrary_result":"Trajectories remain indistinguishable.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0103","id":"S9-0103","volume":"900v9","title":"A mineral's resonant overtones could separate crack closure from crack healing at identical stiffness.","prediction":"A mineral's resonant overtones could separate crack closure from crack healing at identical stiffness.","test":"Compare microscopy and vibration.","contrary":"Overtones track stiffness alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0103","hypothesis":"A mineral's resonant overtones could separate crack closure from crack healing at identical stiffness.","test":"Compare microscopy and vibration.","contrary_result":"Overtones track stiffness alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0104","id":"S9-0104","volume":"900v9","title":"A gel could preserve a chemical pattern by converting it temporarily into elastic strain during washing.","prediction":"A gel could preserve a chemical pattern by converting it temporarily into elastic strain during washing.","test":"Track solute and strain.","contrary":"Pattern survives only as residual solute.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0104","hypothesis":"A gel could preserve a chemical pattern by converting it temporarily into elastic strain during washing.","test":"Track solute and strain.","contrary_result":"Pattern survives only as residual solute.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0105","id":"S9-0105","volume":"900v9","title":"A floating scaffold could limit fouling through slow reorientation of its most heavily loaded branches.","prediction":"A floating scaffold could limit fouling through slow reorientation of its most heavily loaded branches.","test":"Measure branch loading and attachment.","contrary":"Protection follows altered immersion depth only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0105","hypothesis":"A floating scaffold could limit fouling through slow reorientation of its most heavily loaded branches.","test":"Measure branch loading and attachment.","contrary_result":"Protection follows altered immersion depth only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0106","id":"S9-0106","volume":"900v9","title":"A porous insulator could show less thermal drift after wetting if gas exits through only one calibrated vent.","prediction":"A porous insulator could show less thermal drift after wetting if gas exits through only one calibrated vent.","test":"Compare vent topologies.","contrary":"Drift follows total moisture alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0106","hypothesis":"A porous insulator could show less thermal drift after wetting if gas exits through only one calibrated vent.","test":"Compare vent topologies.","contrary_result":"Drift follows total moisture alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0107","id":"S9-0107","volume":"900v9","title":"A salt nucleus could become mechanically unstable before its growth rate changes under confinement.","prediction":"A salt nucleus could become mechanically unstable before its growth rate changes under confinement.","test":"Measure deformation and growth.","contrary":"Instability follows visible growth changes.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0107","hypothesis":"A salt nucleus could become mechanically unstable before its growth rate changes under confinement.","test":"Measure deformation and growth.","contrary_result":"Instability follows visible growth changes.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0108","id":"S9-0108","volume":"900v9","title":"A flexible channel could identify whether pressure was applied upstream or downstream through a retained wall fold.","prediction":"A flexible channel could identify whether pressure was applied upstream or downstream through a retained wall fold.","test":"Apply reversed pulses.","contrary":"Fold records pressure magnitude only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0108","hypothesis":"A flexible channel could identify whether pressure was applied upstream or downstream through a retained wall fold.","test":"Apply reversed pulses.","contrary_result":"Fold records pressure magnitude only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0109","id":"S9-0109","volume":"900v9","title":"A mineral coating could selectively retain dissolved oxygen at mechanically compressed patches.","prediction":"A mineral coating could selectively retain dissolved oxygen at mechanically compressed patches.","test":"Measure oxygen and stress.","contrary":"Retention follows pore-volume changes only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0109","hypothesis":"A mineral coating could selectively retain dissolved oxygen at mechanically compressed patches.","test":"Measure oxygen and stress.","contrary_result":"Retention follows pore-volume changes only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0110","id":"S9-0110","volume":"900v9","title":"A wet granular disk could reduce torque fluctuations by moving liquid bridges toward its rotational axis.","prediction":"A wet granular disk could reduce torque fluctuations by moving liquid bridges toward its rotational axis.","test":"Map bridges and torque.","contrary":"Smoothing follows slower rotation only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0110","hypothesis":"A wet granular disk could reduce torque fluctuations by moving liquid bridges toward its rotational axis.","test":"Map bridges and torque.","contrary_result":"Smoothing follows slower rotation only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0111","id":"S9-0111","volume":"900v9","title":"A porous optical grating could distinguish condensation inside pores from condensation between grains through angular scattering order.","prediction":"A porous optical grating could distinguish condensation inside pores from condensation between grains through angular scattering order.","test":"Image phases and spectra.","contrary":"Signals depend on total water only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0111","hypothesis":"A porous optical grating could distinguish condensation inside pores from condensation between grains through angular scattering order.","test":"Image phases and spectra.","contrary_result":"Signals depend on total water only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0112","id":"S9-0112","volume":"900v9","title":"A polymer membrane could reject short pressure shocks through temporary solvent redistribution across its thickness.","prediction":"A polymer membrane could reject short pressure shocks through temporary solvent redistribution across its thickness.","test":"Measure pressure and solvent.","contrary":"Rejection requires lower steady permeability.","layers":[1],"categories":["physical","energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0112","hypothesis":"A polymer membrane could reject short pressure shocks through temporary solvent redistribution across its thickness.","test":"Measure pressure and solvent.","contrary_result":"Rejection requires lower steady permeability.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0113","id":"S9-0113","volume":"900v9","title":"A closed liquid loop could retain chemical asymmetry after mixing if its wall stores strain nonuniformly.","prediction":"A closed liquid loop could retain chemical asymmetry after mixing if its wall stores strain nonuniformly.","test":"Measure wall strain and concentration.","contrary":"Asymmetry follows incomplete bulk mixing only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0113","hypothesis":"A closed liquid loop could retain chemical asymmetry after mixing if its wall stores strain nonuniformly.","test":"Measure wall strain and concentration.","contrary_result":"Asymmetry follows incomplete bulk mixing only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0114","id":"S9-0114","volume":"900v9","title":"A compressed fiber could emit a humidity pulse before buckling as bound water relocates.","prediction":"A compressed fiber could emit a humidity pulse before buckling as bound water relocates.","test":"Measure vapor and shape.","contrary":"Pulse follows frictional heating only.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0114","hypothesis":"A compressed fiber could emit a humidity pulse before buckling as bound water relocates.","test":"Measure vapor and shape.","contrary_result":"Pulse follows frictional heating only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0115","id":"S9-0115","volume":"900v9","title":"A salt bed could reveal contaminant location through the order of mechanically triggered crystal release.","prediction":"A salt bed could reveal contaminant location through the order of mechanically triggered crystal release.","test":"Introduce known contamination.","contrary":"Release follows grain size only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0115","hypothesis":"A salt bed could reveal contaminant location through the order of mechanically triggered crystal release.","test":"Introduce known contamination.","contrary_result":"Release follows grain size only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0116","id":"S9-0116","volume":"900v9","title":"A flexible surface could preserve a controlled droplet trajectory by compensating for changing contact-line friction.","prediction":"A flexible surface could preserve a controlled droplet trajectory by compensating for changing contact-line friction.","test":"Measure deformation and path errors.","contrary":"Compensation requires active feedback.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0116","hypothesis":"A flexible surface could preserve a controlled droplet trajectory by compensating for changing contact-line friction.","test":"Measure deformation and path errors.","contrary_result":"Compensation requires active feedback.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0117","id":"S9-0117","volume":"900v9","title":"A transparent gel could signal local oxygen depletion through changing bubble-nucleation statistics at fixed pressure.","prediction":"A transparent gel could signal local oxygen depletion through changing bubble-nucleation statistics at fixed pressure.","test":"Measure oxygen independently.","contrary":"Statistics follow surface defects only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0117","hypothesis":"A transparent gel could signal local oxygen depletion through changing bubble-nucleation statistics at fixed pressure.","test":"Measure oxygen independently.","contrary_result":"Statistics follow surface defects only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0118","id":"S9-0118","volume":"900v9","title":"A porous catalyst could reduce reaction variability by allowing only overloaded active regions to buckle.","prediction":"A porous catalyst could reduce reaction variability by allowing only overloaded active regions to buckle.","test":"Map strain and reaction.","contrary":"Variance reduction follows lower conversion only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0118","hypothesis":"A porous catalyst could reduce reaction variability by allowing only overloaded active regions to buckle.","test":"Map strain and reaction.","contrary_result":"Variance reduction follows lower conversion only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0119","id":"S9-0119","volume":"900v9","title":"A shallow liquid layer could encode an acoustic pulse's angle in a persistent particle-free line.","prediction":"A shallow liquid layer could encode an acoustic pulse's angle in a persistent particle-free line.","test":"Reverse propagation angles.","contrary":"Lines follow background circulation only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0119","hypothesis":"A shallow liquid layer could encode an acoustic pulse's angle in a persistent particle-free line.","test":"Reverse propagation angles.","contrary_result":"Lines follow background circulation only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0120","id":"S9-0120","volume":"900v9","title":"A mineral bridge could distinguish repeated small temperature shocks from one larger shock through its failure-mode distribution.","prediction":"A mineral bridge could distinguish repeated small temperature shocks from one larger shock through its failure-mode distribution.","test":"Compare equal-energy histories.","contrary":"Failures depend only on peak temperature.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0120","hypothesis":"A mineral bridge could distinguish repeated small temperature shocks from one larger shock through its failure-mode distribution.","test":"Compare equal-energy histories.","contrary_result":"Failures depend only on peak temperature.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0121","id":"S9-0121","volume":"900v9","title":"A woven membrane could isolate electrical faults by mechanically opening contacts around an overheated strand.","prediction":"A woven membrane could isolate electrical faults by mechanically opening contacts around an overheated strand.","test":"Measure contact and current maps.","contrary":"Isolation requires destructive melting.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0121","hypothesis":"A woven membrane could isolate electrical faults by mechanically opening contacts around an overheated strand.","test":"Measure contact and current maps.","contrary_result":"Isolation requires destructive melting.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0122","id":"S9-0122","volume":"900v9","title":"A soft capsule could reveal internal phase separation through the directional recovery of its center of mass.","prediction":"A soft capsule could reveal internal phase separation through the directional recovery of its center of mass.","test":"Map phases and motion.","contrary":"Recovery follows external geometry only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0122","hypothesis":"A soft capsule could reveal internal phase separation through the directional recovery of its center of mass.","test":"Map phases and motion.","contrary_result":"Recovery follows external geometry only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0123","id":"S9-0123","volume":"900v9","title":"A porous reflector could retain an optical reference despite changing surface roughness through a protected subsurface scattering layer.","prediction":"A porous reflector could retain an optical reference despite changing surface roughness through a protected subsurface scattering layer.","test":"Measure reference stability.","contrary":"Signal drifts with surface changes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0123","hypothesis":"A porous reflector could retain an optical reference despite changing surface roughness through a protected subsurface scattering layer.","test":"Measure reference stability.","contrary_result":"Signal drifts with surface changes.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0124","id":"S9-0124","volume":"900v9","title":"A gel-lined cavity could separate osmotic pressure from hydrostatic pressure through opposite boundary-motion sequences.","prediction":"A gel-lined cavity could separate osmotic pressure from hydrostatic pressure through opposite boundary-motion sequences.","test":"Apply independent inputs.","contrary":"Sequences remain confounded.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0124","hypothesis":"A gel-lined cavity could separate osmotic pressure from hydrostatic pressure through opposite boundary-motion sequences.","test":"Apply independent inputs.","contrary_result":"Sequences remain confounded.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0125","id":"S9-0125","volume":"900v9","title":"A freely dissolving granule could reduce its rotation rate when it enters a stagnant region despite unchanged translational speed.","prediction":"A freely dissolving granule could reduce its rotation rate when it enters a stagnant region despite unchanged translational speed.","test":"Measure rotation and flow.","contrary":"Rotation follows shape alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0125","hypothesis":"A freely dissolving granule could reduce its rotation rate when it enters a stagnant region despite unchanged translational speed.","test":"Measure rotation and flow.","contrary_result":"Rotation follows shape alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0126","id":"S9-0126","volume":"900v9","title":"A liquid-lined contact could dissipate more shear noise without increasing average friction if bridges exchange mass asynchronously.","prediction":"A liquid-lined contact could dissipate more shear noise without increasing average friction if bridges exchange mass asynchronously.","test":"Track bridges and force.","contrary":"Noise reduction requires higher friction.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0126","hypothesis":"A liquid-lined contact could dissipate more shear noise without increasing average friction if bridges exchange mass asynchronously.","test":"Track bridges and force.","contrary_result":"Noise reduction requires higher friction.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0127","id":"S9-0127","volume":"900v9","title":"A thin clay membrane could maintain ionic selectivity after bending by redistributing counterions along its neutral axis.","prediction":"A thin clay membrane could maintain ionic selectivity after bending by redistributing counterions along its neutral axis.","test":"Map ions and flux.","contrary":"Selectivity follows cracks alone.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0127","hypothesis":"A thin clay membrane could maintain ionic selectivity after bending by redistributing counterions along its neutral axis.","test":"Map ions and flux.","contrary_result":"Selectivity follows cracks alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0128","id":"S9-0128","volume":"900v9","title":"A porous support could stabilize an enzyme reaction by moving heat into regions with lower local turnover.","prediction":"A porous support could stabilize an enzyme reaction by moving heat into regions with lower local turnover.","test":"Measure temperature and activity.","contrary":"Stability follows reduced substrate supply only.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0128","hypothesis":"A porous support could stabilize an enzyme reaction by moving heat into regions with lower local turnover.","test":"Measure temperature and activity.","contrary_result":"Stability follows reduced substrate supply only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0129","id":"S9-0129","volume":"900v9","title":"A capillary shutter could reopen only after a trapped gas pocket has chemically equilibrated.","prediction":"A capillary shutter could reopen only after a trapped gas pocket has chemically equilibrated.","test":"Measure gas and opening.","contrary":"Timing follows mechanical pressure alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0129","hypothesis":"A capillary shutter could reopen only after a trapped gas pocket has chemically equilibrated.","test":"Measure gas and opening.","contrary_result":"Timing follows mechanical pressure alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0130","id":"S9-0130","volume":"900v9","title":"A flexible optical cavity could distinguish impact direction from impact strength through the order of mode splitting.","prediction":"A flexible optical cavity could distinguish impact direction from impact strength through the order of mode splitting.","test":"Apply calibrated impacts.","contrary":"Mode order cannot separate inputs.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0130","hypothesis":"A flexible optical cavity could distinguish impact direction from impact strength through the order of mode splitting.","test":"Apply calibrated impacts.","contrary_result":"Mode order cannot separate inputs.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0131","id":"S9-0131","volume":"900v9","title":"A hydrated powder could retain less dissolved gas after torsional relaxation than after equal-time rest.","prediction":"A hydrated powder could retain less dissolved gas after torsional relaxation than after equal-time rest.","test":"Measure gas content.","contrary":"Difference follows exposed surface area only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0131","hypothesis":"A hydrated powder could retain less dissolved gas after torsional relaxation than after equal-time rest.","test":"Measure gas content.","contrary_result":"Difference follows exposed surface area only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0132","id":"S9-0132","volume":"900v9","title":"A porous thermal switch could operate at a reproducible energy dose rather than temperature through progressive contact release.","prediction":"A porous thermal switch could operate at a reproducible energy dose rather than temperature through progressive contact release.","test":"Compare heating histories.","contrary":"Switching follows peak temperature only.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0132","hypothesis":"A porous thermal switch could operate at a reproducible energy dose rather than temperature through progressive contact release.","test":"Compare heating histories.","contrary_result":"Switching follows peak temperature only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0133","id":"S9-0133","volume":"900v9","title":"A liquid boundary could identify polymer-chain length through the spatial spectrum of recoil waves after withdrawal.","prediction":"A liquid boundary could identify polymer-chain length through the spatial spectrum of recoil waves after withdrawal.","test":"Calibrate chain distributions.","contrary":"Spectrum follows viscosity alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0133","hypothesis":"A liquid boundary could identify polymer-chain length through the spatial spectrum of recoil waves after withdrawal.","test":"Calibrate chain distributions.","contrary_result":"Spectrum follows viscosity alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0134","id":"S9-0134","volume":"900v9","title":"A mineral film could reject an impurity through reversible electrical polarization induced by elastic strain.","prediction":"A mineral film could reject an impurity through reversible electrical polarization induced by elastic strain.","test":"Measure strain and impurity uptake.","contrary":"Rejection requires changed chemical composition.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0134","hypothesis":"A mineral film could reject an impurity through reversible electrical polarization induced by elastic strain.","test":"Measure strain and impurity uptake.","contrary_result":"Rejection requires changed chemical composition.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0135","id":"S9-0135","volume":"900v9","title":"A soft bead could reveal whether its interior is drained or undrained through a single paired indentation.","prediction":"A soft bead could reveal whether its interior is drained or undrained through a single paired indentation.","test":"Measure force and solvent motion.","contrary":"Responses cannot classify drainage state.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0135","hypothesis":"A soft bead could reveal whether its interior is drained or undrained through a single paired indentation.","test":"Measure force and solvent motion.","contrary_result":"Responses cannot classify drainage state.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0136","id":"S9-0136","volume":"900v9","title":"A porous channel could reduce contaminant retention by turning weak flow noise into wall motion only near deposits.","prediction":"A porous channel could reduce contaminant retention by turning weak flow noise into wall motion only near deposits.","test":"Map motion and cleaning.","contrary":"Cleaning requires greater mean flow.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0136","hypothesis":"A porous channel could reduce contaminant retention by turning weak flow noise into wall motion only near deposits.","test":"Map motion and cleaning.","contrary_result":"Cleaning requires greater mean flow.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0137","id":"S9-0137","volume":"900v9","title":"A thin crystal could preserve cooling-rate information in acoustic attenuation after its visible texture recovers.","prediction":"A thin crystal could preserve cooling-rate information in acoustic attenuation after its visible texture recovers.","test":"Measure attenuation and texture.","contrary":"Memory follows remaining grain-size differences.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0137","hypothesis":"A thin crystal could preserve cooling-rate information in acoustic attenuation after its visible texture recovers.","test":"Measure attenuation and texture.","contrary_result":"Memory follows remaining grain-size differences.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0138","id":"S9-0138","volume":"900v9","title":"A gel-coated capillary could detect a mixture's evaporation order through sequential changes in curvature.","prediction":"A gel-coated capillary could detect a mixture's evaporation order through sequential changes in curvature.","test":"Calibrate component loss.","contrary":"Sequence reflects temperature drift only.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0138","hypothesis":"A gel-coated capillary could detect a mixture's evaporation order through sequential changes in curvature.","test":"Calibrate component loss.","contrary_result":"Sequence reflects temperature drift only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0139","id":"S9-0139","volume":"900v9","title":"A granular coating could resist surface icing by moving its grains ahead of the freezing front.","prediction":"A granular coating could resist surface icing by moving its grains ahead of the freezing front.","test":"Image grain and ice motion.","contrary":"Protection follows lower water contact only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0139","hypothesis":"A granular coating could resist surface icing by moving its grains ahead of the freezing front.","test":"Image grain and ice motion.","contrary_result":"Protection follows lower water contact only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0140","id":"S9-0140","volume":"900v9","title":"A compliant membrane could route gas toward low-stress regions during swelling.","prediction":"A compliant membrane could route gas toward low-stress regions during swelling.","test":"Map gas and stress.","contrary":"Routing follows buoyancy alone.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0140","hypothesis":"A compliant membrane could route gas toward low-stress regions during swelling.","test":"Map gas and stress.","contrary_result":"Routing follows buoyancy alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0141","id":"S9-0141","volume":"900v9","title":"A porous stone could reveal a hidden mineral inclusion through directional solute-release lag after rinsing.","prediction":"A porous stone could reveal a hidden mineral inclusion through directional solute-release lag after rinsing.","test":"Compare known inclusions.","contrary":"Lag follows external dead volume only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0141","hypothesis":"A porous stone could reveal a hidden mineral inclusion through directional solute-release lag after rinsing.","test":"Compare known inclusions.","contrary_result":"Lag follows external dead volume only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0142","id":"S9-0142","volume":"900v9","title":"A liquid-filled optical resonator could expose thermal stratification through unequal mode linewidth recovery.","prediction":"A liquid-filled optical resonator could expose thermal stratification through unequal mode linewidth recovery.","test":"Map temperature independently.","contrary":"Linewidths reflect mean temperature only.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0142","hypothesis":"A liquid-filled optical resonator could expose thermal stratification through unequal mode linewidth recovery.","test":"Map temperature independently.","contrary_result":"Linewidths reflect mean temperature only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0143","id":"S9-0143","volume":"900v9","title":"A soft laminate could retain a mechanical pulse's duration in its delayed interfacial slip pattern.","prediction":"A soft laminate could retain a mechanical pulse's duration in its delayed interfacial slip pattern.","test":"Apply equal-impulse pulses.","contrary":"Pattern follows peak force only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0143","hypothesis":"A soft laminate could retain a mechanical pulse's duration in its delayed interfacial slip pattern.","test":"Apply equal-impulse pulses.","contrary_result":"Pattern follows peak force only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0144","id":"S9-0144","volume":"900v9","title":"A porous electrode-free device could separate salinity from viscosity through paired capillary and acoustic response times.","prediction":"A porous electrode-free device could separate salinity from viscosity through paired capillary and acoustic response times.","test":"Calibrate both independently.","contrary":"Parameters remain unidentifiable.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0144","hypothesis":"A porous electrode-free device could separate salinity from viscosity through paired capillary and acoustic response times.","test":"Calibrate both independently.","contrary_result":"Parameters remain unidentifiable.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0145","id":"S9-0145","volume":"900v9","title":"A floating gel disk could suppress uneven drying by moving its thickest region toward the dominant airflow.","prediction":"A floating gel disk could suppress uneven drying by moving its thickest region toward the dominant airflow.","test":"Measure orientation and thickness.","contrary":"Movement follows accidental asymmetry only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0145","hypothesis":"A floating gel disk could suppress uneven drying by moving its thickest region toward the dominant airflow.","test":"Measure orientation and thickness.","contrary_result":"Movement follows accidental asymmetry only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0146","id":"S9-0146","volume":"900v9","title":"A mineral powder could signal overcompaction through a reversal in vapor-release response to gentle unloading.","prediction":"A mineral powder could signal overcompaction through a reversal in vapor-release response to gentle unloading.","test":"Measure density and vapor.","contrary":"Response remains monotonic.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0146","hypothesis":"A mineral powder could signal overcompaction through a reversal in vapor-release response to gentle unloading.","test":"Measure density and vapor.","contrary_result":"Response remains monotonic.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0147","id":"S9-0147","volume":"900v9","title":"A thin polymer bridge could resist fracture by shifting its wetting boundary away from a stressed corner.","prediction":"A thin polymer bridge could resist fracture by shifting its wetting boundary away from a stressed corner.","test":"Measure boundary and crack onset.","contrary":"Protection follows reduced solvent uptake only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0147","hypothesis":"A thin polymer bridge could resist fracture by shifting its wetting boundary away from a stressed corner.","test":"Measure boundary and crack onset.","contrary_result":"Protection follows reduced solvent uptake only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0148","id":"S9-0148","volume":"900v9","title":"A porous shell could retain a distinct acoustic signature after a brief internal pressure inversion.","prediction":"A porous shell could retain a distinct acoustic signature after a brief internal pressure inversion.","test":"Compare histories after recovery.","contrary":"Signature follows permanent damage only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0148","hypothesis":"A porous shell could retain a distinct acoustic signature after a brief internal pressure inversion.","test":"Compare histories after recovery.","contrary_result":"Signature follows permanent damage only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0149","id":"S9-0149","volume":"900v9","title":"A compliant liquid reservoir could distinguish rapid consumption from leakage through the location of its first wall collapse.","prediction":"A compliant liquid reservoir could distinguish rapid consumption from leakage through the location of its first wall collapse.","test":"Apply calibrated outflows.","contrary":"Collapse follows total withdrawn volume only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0149","hypothesis":"A compliant liquid reservoir could distinguish rapid consumption from leakage through the location of its first wall collapse.","test":"Apply calibrated outflows.","contrary_result":"Collapse follows total withdrawn volume only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0150","id":"S9-0150","volume":"900v9","title":"A salt-containing fiber could measure local strain gradients through the direction of crystal migration.","prediction":"A salt-containing fiber could measure local strain gradients through the direction of crystal migration.","test":"Map crystals and strain.","contrary":"Migration follows moisture gradients only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0150","hypothesis":"A salt-containing fiber could measure local strain gradients through the direction of crystal migration.","test":"Map crystals and strain.","contrary_result":"Migration follows moisture gradients only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0151","id":"S9-0151","volume":"900v9","title":"A transparent soft film could separate chemical swelling from mechanical creep through directional speckle decorrelation.","prediction":"A transparent soft film could separate chemical swelling from mechanical creep through directional speckle decorrelation.","test":"Apply each independently.","contrary":"Optical trajectories remain inseparable.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0151","hypothesis":"A transparent soft film could separate chemical swelling from mechanical creep through directional speckle decorrelation.","test":"Apply each independently.","contrary_result":"Optical trajectories remain inseparable.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0152","id":"S9-0152","volume":"900v9","title":"A porous interface could reverse its preferred adsorption region after the direction of heat flow reverses.","prediction":"A porous interface could reverse its preferred adsorption region after the direction of heat flow reverses.","test":"Measure coverage and heat.","contrary":"Coverage follows local temperature only.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0152","hypothesis":"A porous interface could reverse its preferred adsorption region after the direction of heat flow reverses.","test":"Measure coverage and heat.","contrary_result":"Coverage follows local temperature only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0153","id":"S9-0153","volume":"900v9","title":"A wet granular pouch could retain impact protection through changes in bridge topology rather than liquid amount.","prediction":"A wet granular pouch could retain impact protection through changes in bridge topology rather than liquid amount.","test":"Map bridges and force.","contrary":"Performance tracks total liquid only.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0153","hypothesis":"A wet granular pouch could retain impact protection through changes in bridge topology rather than liquid amount.","test":"Map bridges and force.","contrary_result":"Performance tracks total liquid only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0154","id":"S9-0154","volume":"900v9","title":"A flexible crystal holder could reduce optical defects by absorbing strain only during a particular growth stage.","prediction":"A flexible crystal holder could reduce optical defects by absorbing strain only during a particular growth stage.","test":"Measure growth and support motion.","contrary":"Benefits follow slower growth alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0154","hypothesis":"A flexible crystal holder could reduce optical defects by absorbing strain only during a particular growth stage.","test":"Measure growth and support motion.","contrary_result":"Benefits follow slower growth alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0155","id":"S9-0155","volume":"900v9","title":"A capillary network could trap an accidental gas pulse in a removable branch while preserving solute transit.","prediction":"A capillary network could trap an accidental gas pulse in a removable branch while preserving solute transit.","test":"Measure gas and tracer paths.","contrary":"Gas capture disrupts normal liquid transport.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0155","hypothesis":"A capillary network could trap an accidental gas pulse in a removable branch while preserving solute transit.","test":"Measure gas and tracer paths.","contrary_result":"Gas capture disrupts normal liquid transport.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0156","id":"S9-0156","volume":"900v9","title":"A porous sensor could detect its own irreversible fouling through loss of response reciprocity after probe reversal.","prediction":"A porous sensor could detect its own irreversible fouling through loss of response reciprocity after probe reversal.","test":"Introduce known foulants.","contrary":"Asymmetry follows instrument drift only.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0156","hypothesis":"A porous sensor could detect its own irreversible fouling through loss of response reciprocity after probe reversal.","test":"Introduce known foulants.","contrary_result":"Asymmetry follows instrument drift only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0157","id":"S9-0157","volume":"900v9","title":"A gel layer could localize an invisible weak bond through spontaneous drying-wave interference.","prediction":"A gel layer could localize an invisible weak bond through spontaneous drying-wave interference.","test":"Map waves and known bonds.","contrary":"Patterns follow thickness alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0157","hypothesis":"A gel layer could localize an invisible weak bond through spontaneous drying-wave interference.","test":"Map waves and known bonds.","contrary_result":"Patterns follow thickness alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0158","id":"S9-0158","volume":"900v9","title":"A mineral-lined vessel could preserve reaction selectivity by releasing stored ions only during concentration overshoots.","prediction":"A mineral-lined vessel could preserve reaction selectivity by releasing stored ions only during concentration overshoots.","test":"Measure ions and products.","contrary":"Selectivity follows average ion concentration only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0158","hypothesis":"A mineral-lined vessel could preserve reaction selectivity by releasing stored ions only during concentration overshoots.","test":"Measure ions and products.","contrary_result":"Selectivity follows average ion concentration only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0159","id":"S9-0159","volume":"900v9","title":"A floating fiber cluster could transport liquid against a weak concentration gradient through elastic recoil.","prediction":"A floating fiber cluster could transport liquid against a weak concentration gradient through elastic recoil.","test":"Measure work and mass balance.","contrary":"Motion is ordinary diffusion or advection.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0159","hypothesis":"A floating fiber cluster could transport liquid against a weak concentration gradient through elastic recoil.","test":"Measure work and mass balance.","contrary_result":"Motion is ordinary diffusion or advection.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0160","id":"S9-0160","volume":"900v9","title":"A thin ice film could retain a mechanical loading path as an anisotropic melt pattern.","prediction":"A thin ice film could retain a mechanical loading path as an anisotropic melt pattern.","test":"Apply known load sequences.","contrary":"Patterns follow crystal orientation only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0160","hypothesis":"A thin ice film could retain a mechanical loading path as an anisotropic melt pattern.","test":"Apply known load sequences.","contrary_result":"Patterns follow crystal orientation only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0161","id":"S9-0161","volume":"900v9","title":"A porous substrate could separate local temperature and humidity through opposite gas-release transients.","prediction":"A porous substrate could separate local temperature and humidity through opposite gas-release transients.","test":"Calibrate both changes.","contrary":"Responses remain confounded.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0161","hypothesis":"A porous substrate could separate local temperature and humidity through opposite gas-release transients.","test":"Calibrate both changes.","contrary_result":"Responses remain confounded.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0162","id":"S9-0162","volume":"900v9","title":"A polymer knot could change its detachment force according to solvent arrival direction without changing equilibrium swelling.","prediction":"A polymer knot could change its detachment force according to solvent arrival direction without changing equilibrium swelling.","test":"Measure shape and force.","contrary":"Force follows final swelling only.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0162","hypothesis":"A polymer knot could change its detachment force according to solvent arrival direction without changing equilibrium swelling.","test":"Measure shape and force.","contrary_result":"Force follows final swelling only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0163","id":"S9-0163","volume":"900v9","title":"A compliant cavity could protect a trapped cell-free reaction droplet by absorbing osmotic shocks mechanically.","prediction":"A compliant cavity could protect a trapped cell-free reaction droplet by absorbing osmotic shocks mechanically.","test":"Measure pressure and reaction.","contrary":"Protection follows dilution alone.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0163","hypothesis":"A compliant cavity could protect a trapped cell-free reaction droplet by absorbing osmotic shocks mechanically.","test":"Measure pressure and reaction.","contrary_result":"Protection follows dilution alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0164","id":"S9-0164","volume":"900v9","title":"A salt-coated mesh could renew its clean collection area by shedding only crystals that bridge two strands.","prediction":"A salt-coated mesh could renew its clean collection area by shedding only crystals that bridge two strands.","test":"Track crystal connectivity and release.","contrary":"Shedding follows crystal mass only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0164","hypothesis":"A salt-coated mesh could renew its clean collection area by shedding only crystals that bridge two strands.","test":"Track crystal connectivity and release.","contrary_result":"Shedding follows crystal mass only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0165","id":"S9-0165","volume":"900v9","title":"A soft acoustic coating could distinguish shallow surface damage from deeper internal damage using reversed bending.","prediction":"A soft acoustic coating could distinguish shallow surface damage from deeper internal damage using reversed bending.","test":"Introduce characterized flaws.","contrary":"Depth estimates fail blind tests.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0165","hypothesis":"A soft acoustic coating could distinguish shallow surface damage from deeper internal damage using reversed bending.","test":"Introduce characterized flaws.","contrary_result":"Depth estimates fail blind tests.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0166","id":"S9-0166","volume":"900v9","title":"A porous separator could preserve particle sorting after repeated drying through selective reopening of high-flow pores.","prediction":"A porous separator could preserve particle sorting after repeated drying through selective reopening of high-flow pores.","test":"Image pores and capture.","contrary":"Recovery requires global porosity increase.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0166","hypothesis":"A porous separator could preserve particle sorting after repeated drying through selective reopening of high-flow pores.","test":"Image pores and capture.","contrary_result":"Recovery requires global porosity increase.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0167","id":"S9-0167","volume":"900v9","title":"A liquid-filled ring could measure angular acceleration through a shape lag that rejects constant rotation.","prediction":"A liquid-filled ring could measure angular acceleration through a shape lag that rejects constant rotation.","test":"Calibrate motion histories.","contrary":"Signal follows rotational speed alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0167","hypothesis":"A liquid-filled ring could measure angular acceleration through a shape lag that rejects constant rotation.","test":"Calibrate motion histories.","contrary_result":"Signal follows rotational speed alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0168","id":"S9-0168","volume":"900v9","title":"A transparent mineral aggregate could reveal hidden fluid contacts through correlated optical flashes during gentle loading.","prediction":"A transparent mineral aggregate could reveal hidden fluid contacts through correlated optical flashes during gentle loading.","test":"Image contacts independently.","contrary":"Flashes follow dry friction only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0168","hypothesis":"A transparent mineral aggregate could reveal hidden fluid contacts through correlated optical flashes during gentle loading.","test":"Image contacts independently.","contrary_result":"Flashes follow dry friction only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0169","id":"S9-0169","volume":"900v9","title":"A gel-supported fiber could reduce fatigue by moving its flexural node as solvent redistributes.","prediction":"A gel-supported fiber could reduce fatigue by moving its flexural node as solvent redistributes.","test":"Measure nodes and damage.","contrary":"Protection follows lower total strain only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0169","hypothesis":"A gel-supported fiber could reduce fatigue by moving its flexural node as solvent redistributes.","test":"Measure nodes and damage.","contrary_result":"Protection follows lower total strain only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0170","id":"S9-0170","volume":"900v9","title":"A porous shell could preserve gas composition during sampling by delaying water invasion until pressure equalizes.","prediction":"A porous shell could preserve gas composition during sampling by delaying water invasion until pressure equalizes.","test":"Measure phase and mixture.","contrary":"Composition changes despite equilibration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0170","hypothesis":"A porous shell could preserve gas composition during sampling by delaying water invasion until pressure equalizes.","test":"Measure phase and mixture.","contrary_result":"Composition changes despite equilibration.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0171","id":"S9-0171","volume":"900v9","title":"A reversible coating could record the rate of acidity change in its later mechanical relaxation.","prediction":"A reversible coating could record the rate of acidity change in its later mechanical relaxation.","test":"Apply matched endpoints.","contrary":"Relaxation follows final acidity only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0171","hypothesis":"A reversible coating could record the rate of acidity change in its later mechanical relaxation.","test":"Apply matched endpoints.","contrary_result":"Relaxation follows final acidity only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0172","id":"S9-0172","volume":"900v9","title":"A soft granular filter could reduce clog severity by storing particle impacts as temporary contact rearrangements.","prediction":"A soft granular filter could reduce clog severity by storing particle impacts as temporary contact rearrangements.","test":"Image clogs and forces.","contrary":"Benefits require lower particle loading.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0172","hypothesis":"A soft granular filter could reduce clog severity by storing particle impacts as temporary contact rearrangements.","test":"Image clogs and forces.","contrary_result":"Benefits require lower particle loading.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0173","id":"S9-0173","volume":"900v9","title":"A thin optical membrane could reveal solvent-binding strength through how its modes recover after a mechanical pulse.","prediction":"A thin optical membrane could reveal solvent-binding strength through how its modes recover after a mechanical pulse.","test":"Calibrate binding independently.","contrary":"Recovery follows viscosity alone.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0173","hypothesis":"A thin optical membrane could reveal solvent-binding strength through how its modes recover after a mechanical pulse.","test":"Calibrate binding independently.","contrary_result":"Recovery follows viscosity alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0174","id":"S9-0174","volume":"900v9","title":"A porous mineral edge could focus a harmless precipitation front into a removable line through capillary stress.","prediction":"A porous mineral edge could focus a harmless precipitation front into a removable line through capillary stress.","test":"Map pressure and deposits.","contrary":"Focusing follows chemical patterning only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0174","hypothesis":"A porous mineral edge could focus a harmless precipitation front into a removable line through capillary stress.","test":"Map pressure and deposits.","contrary_result":"Focusing follows chemical patterning only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0175","id":"S9-0175","volume":"900v9","title":"A wet woven surface could reject oil contamination by forcing it into low-energy movable pockets.","prediction":"A wet woven surface could reject oil contamination by forcing it into low-energy movable pockets.","test":"Measure oil and fiber motion.","contrary":"Rejection requires lubricant loss.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0175","hypothesis":"A wet woven surface could reject oil contamination by forcing it into low-energy movable pockets.","test":"Measure oil and fiber motion.","contrary_result":"Rejection requires lubricant loss.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0176","id":"S9-0176","volume":"900v9","title":"A gel conduit could maintain nearly constant tracer transit time despite modest stretching through compensating water exchange.","prediction":"A gel conduit could maintain nearly constant tracer transit time despite modest stretching through compensating water exchange.","test":"Measure geometry and transit.","contrary":"Compensation fails at matched flow.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0176","hypothesis":"A gel conduit could maintain nearly constant tracer transit time despite modest stretching through compensating water exchange.","test":"Measure geometry and transit.","contrary_result":"Compensation fails at matched flow.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0177","id":"S9-0177","volume":"900v9","title":"A crystalline coating could signal impending peeling through a directional change in polarization noise.","prediction":"A crystalline coating could signal impending peeling through a directional change in polarization noise.","test":"Measure noise and later failure.","contrary":"Noise changes only after delamination.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0177","hypothesis":"A crystalline coating could signal impending peeling through a directional change in polarization noise.","test":"Measure noise and later failure.","contrary_result":"Noise changes only after delamination.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0178","id":"S9-0178","volume":"900v9","title":"A porous pad could distinguish a concentrated short spill from a dilute long spill at equal solute dose.","prediction":"A porous pad could distinguish a concentrated short spill from a dilute long spill at equal solute dose.","test":"Compare final spatial records.","contrary":"Records encode total dose only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0178","hypothesis":"A porous pad could distinguish a concentrated short spill from a dilute long spill at equal solute dose.","test":"Compare final spatial records.","contrary_result":"Records encode total dose only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0179","id":"S9-0179","volume":"900v9","title":"A flexible capillary gate could resist vibration errors by moving its pinning point toward a low-strain region.","prediction":"A flexible capillary gate could resist vibration errors by moving its pinning point toward a low-strain region.","test":"Track motion and false openings.","contrary":"Accuracy requires reduced pressure sensitivity.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0179","hypothesis":"A flexible capillary gate could resist vibration errors by moving its pinning point toward a low-strain region.","test":"Track motion and false openings.","contrary_result":"Accuracy requires reduced pressure sensitivity.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0180","id":"S9-0180","volume":"900v9","title":"A mineral slurry could develop reversible mechanical memory through alignment of solvent layers at contacts.","prediction":"A mineral slurry could develop reversible mechanical memory through alignment of solvent layers at contacts.","test":"Measure mechanics and interfacial structure.","contrary":"Memory requires particle rearrangement.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0180","hypothesis":"A mineral slurry could develop reversible mechanical memory through alignment of solvent layers at contacts.","test":"Measure mechanics and interfacial structure.","contrary_result":"Memory requires particle rearrangement.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0181","id":"S9-0181","volume":"900v9","title":"A liquid-coated resonator could identify pore connectivity in an attached sample through delayed energy transfer.","prediction":"A liquid-coated resonator could identify pore connectivity in an attached sample through delayed energy transfer.","test":"Compare known pore networks.","contrary":"Response follows attached mass only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0181","hypothesis":"A liquid-coated resonator could identify pore connectivity in an attached sample through delayed energy transfer.","test":"Compare known pore networks.","contrary_result":"Response follows attached mass only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0182","id":"S9-0182","volume":"900v9","title":"A soft insulating shell could reduce local heat stress through controlled migration of gas-filled voids.","prediction":"A soft insulating shell could reduce local heat stress through controlled migration of gas-filled voids.","test":"Map voids and temperature.","contrary":"Protection follows bulk expansion only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0182","hypothesis":"A soft insulating shell could reduce local heat stress through controlled migration of gas-filled voids.","test":"Map voids and temperature.","contrary_result":"Protection follows bulk expansion only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0183","id":"S9-0183","volume":"900v9","title":"A porous transparent film could preserve separate records of heating and wetting in different spatial correlation scales.","prediction":"A porous transparent film could preserve separate records of heating and wetting in different spatial correlation scales.","test":"Apply independent histories.","contrary":"Correlation scales remain inseparable.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0183","hypothesis":"A porous transparent film could preserve separate records of heating and wetting in different spatial correlation scales.","test":"Apply independent histories.","contrary_result":"Correlation scales remain inseparable.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0184","id":"S9-0184","volume":"900v9","title":"A capillary contact could detach with less residue when released through torsion rather than peeling at matched work.","prediction":"A capillary contact could detach with less residue when released through torsion rather than peeling at matched work.","test":"Measure residue and mechanics.","contrary":"Benefits follow smaller contact area only.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0184","hypothesis":"A capillary contact could detach with less residue when released through torsion rather than peeling at matched work.","test":"Measure residue and mechanics.","contrary_result":"Benefits follow smaller contact area only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0185","id":"S9-0185","volume":"900v9","title":"A mineral grain could reveal its strongest previous compression through the threshold of a later harmless dissolution burst.","prediction":"A mineral grain could reveal its strongest previous compression through the threshold of a later harmless dissolution burst.","test":"Apply calibrated histories.","contrary":"Threshold follows current defects only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0185","hypothesis":"A mineral grain could reveal its strongest previous compression through the threshold of a later harmless dissolution burst.","test":"Apply calibrated histories.","contrary_result":"Threshold follows current defects only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0186","id":"S9-0186","volume":"900v9","title":"A flexible pore could prevent irreversible particle trapping by briefly opening sideways during pressure relaxation.","prediction":"A flexible pore could prevent irreversible particle trapping by briefly opening sideways during pressure relaxation.","test":"Image particle and pore motion.","contrary":"Release requires greater reverse pressure.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0186","hypothesis":"A flexible pore could prevent irreversible particle trapping by briefly opening sideways during pressure relaxation.","test":"Image particle and pore motion.","contrary_result":"Release requires greater reverse pressure.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0187","id":"S9-0187","volume":"900v9","title":"A wet fiber network could distribute an acoustic pulse more uniformly by exchanging water during propagation.","prediction":"A wet fiber network could distribute an acoustic pulse more uniformly by exchanging water during propagation.","test":"Measure waves and liquid motion.","contrary":"Uniformity changes follow damping alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0187","hypothesis":"A wet fiber network could distribute an acoustic pulse more uniformly by exchanging water during propagation.","test":"Measure waves and liquid motion.","contrary_result":"Uniformity changes follow damping alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0188","id":"S9-0188","volume":"900v9","title":"A porous crystal could retain activity after solvent loss by shifting accessible sites toward newly formed internal surfaces.","prediction":"A porous crystal could retain activity after solvent loss by shifting accessible sites toward newly formed internal surfaces.","test":"Measure sites and conversion.","contrary":"Activity follows remaining water only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0188","hypothesis":"A porous crystal could retain activity after solvent loss by shifting accessible sites toward newly formed internal surfaces.","test":"Measure sites and conversion.","contrary_result":"Activity follows remaining water only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0189","id":"S9-0189","volume":"900v9","title":"A soft optical recorder could erase vibration history while retaining a concentration peak through separated relaxation channels.","prediction":"A soft optical recorder could erase vibration history while retaining a concentration peak through separated relaxation channels.","test":"Apply mixed histories.","contrary":"Erasure also destroys the chemical record.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0189","hypothesis":"A soft optical recorder could erase vibration history while retaining a concentration peak through separated relaxation channels.","test":"Apply mixed histories.","contrary_result":"Erasure also destroys the chemical record.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0190","id":"S9-0190","volume":"900v9","title":"A liquid interface could distinguish two surfactants with equal equilibrium tension through the direction of post-stretch flow.","prediction":"A liquid interface could distinguish two surfactants with equal equilibrium tension through the direction of post-stretch flow.","test":"Calibrate adsorption kinetics.","contrary":"Flow follows equilibrium tension alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0190","hypothesis":"A liquid interface could distinguish two surfactants with equal equilibrium tension through the direction of post-stretch flow.","test":"Calibrate adsorption kinetics.","contrary_result":"Flow follows equilibrium tension alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0191","id":"S9-0191","volume":"900v9","title":"A porous mineral sheet could reduce drying cracks by venting gas specifically ahead of the stress maximum.","prediction":"A porous mineral sheet could reduce drying cracks by venting gas specifically ahead of the stress maximum.","test":"Map gas and strain.","contrary":"Protection follows reduced evaporation only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0191","hypothesis":"A porous mineral sheet could reduce drying cracks by venting gas specifically ahead of the stress maximum.","test":"Map gas and strain.","contrary_result":"Protection follows reduced evaporation only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0192","id":"S9-0192","volume":"900v9","title":"A floating porous lens could stabilize its focal length by moving condensed water away from its optical center.","prediction":"A floating porous lens could stabilize its focal length by moving condensed water away from its optical center.","test":"Measure water and focus.","contrary":"Stability requires removing total water.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0192","hypothesis":"A floating porous lens could stabilize its focal length by moving condensed water away from its optical center.","test":"Measure water and focus.","contrary_result":"Stability requires removing total water.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0193","id":"S9-0193","volume":"900v9","title":"A gel-coated particle could detect chemical exposure order through the topology of its later contact patch.","prediction":"A gel-coated particle could detect chemical exposure order through the topology of its later contact patch.","test":"Reverse exposures.","contrary":"Patch follows final composition only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0193","hypothesis":"A gel-coated particle could detect chemical exposure order through the topology of its later contact patch.","test":"Reverse exposures.","contrary_result":"Patch follows final composition only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0194","id":"S9-0194","volume":"900v9","title":"A soft membrane could isolate a local leak through a traveling buckle generated by escaping fluid.","prediction":"A soft membrane could isolate a local leak through a traveling buckle generated by escaping fluid.","test":"Image buckle and leakage.","contrary":"Isolation requires external compression.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0194","hypothesis":"A soft membrane could isolate a local leak through a traveling buckle generated by escaping fluid.","test":"Image buckle and leakage.","contrary_result":"Isolation requires external compression.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0195","id":"S9-0195","volume":"900v9","title":"A porous thermal sensor could reject airflow artifacts by comparing opposite-face cooling trajectories.","prediction":"A porous thermal sensor could reject airflow artifacts by comparing opposite-face cooling trajectories.","test":"Apply calibrated flows and heat.","contrary":"Correction removes real temperature sensitivity.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0195","hypothesis":"A porous thermal sensor could reject airflow artifacts by comparing opposite-face cooling trajectories.","test":"Apply calibrated flows and heat.","contrary_result":"Correction removes real temperature sensitivity.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0196","id":"S9-0196","volume":"900v9","title":"A capillary scaffold could guide a crystallization front around a fragile region through reversible local compression.","prediction":"A capillary scaffold could guide a crystallization front around a fragile region through reversible local compression.","test":"Measure strain and growth.","contrary":"Routing follows reduced solute delivery only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0196","hypothesis":"A capillary scaffold could guide a crystallization front around a fragile region through reversible local compression.","test":"Measure strain and growth.","contrary_result":"Routing follows reduced solute delivery only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0197","id":"S9-0197","volume":"900v9","title":"A mineral-coated spring could reveal dissolved-gas changes through a mechanical phase shift without visible bubbles.","prediction":"A mineral-coated spring could reveal dissolved-gas changes through a mechanical phase shift without visible bubbles.","test":"Measure gas and phase.","contrary":"Signal follows temperature alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0197","hypothesis":"A mineral-coated spring could reveal dissolved-gas changes through a mechanical phase shift without visible bubbles.","test":"Measure gas and phase.","contrary_result":"Signal follows temperature alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0198","id":"S9-0198","volume":"900v9","title":"A transparent porous solid could retain an impact's time ordering in the sequence of later evaporation events.","prediction":"A transparent porous solid could retain an impact's time ordering in the sequence of later evaporation events.","test":"Apply reversed impacts.","contrary":"Sequence records peak energy only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0198","hypothesis":"A transparent porous solid could retain an impact's time ordering in the sequence of later evaporation events.","test":"Apply reversed impacts.","contrary_result":"Sequence records peak energy only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0199","id":"S9-0199","volume":"900v9","title":"A flexible particle collector could restore capture by rotating only its overloaded pores.","prediction":"A flexible particle collector could restore capture by rotating only its overloaded pores.","test":"Map deposits and pore motion.","contrary":"Restoration requires loss of captured material.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0199","hypothesis":"A flexible particle collector could restore capture by rotating only its overloaded pores.","test":"Map deposits and pore motion.","contrary_result":"Restoration requires loss of captured material.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0200","id":"S9-0200","volume":"900v9","title":"A liquid-filled soft shell could reject thermal noise while sensing pressure through differential internal path lengths.","prediction":"A liquid-filled soft shell could reject thermal noise while sensing pressure through differential internal path lengths.","test":"Calibrate both inputs.","contrary":"Responses remain confounded.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0200","hypothesis":"A liquid-filled soft shell could reject thermal noise while sensing pressure through differential internal path lengths.","test":"Calibrate both inputs.","contrary_result":"Responses remain confounded.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0201","id":"S9-0201","volume":"900v9","title":"An off-axis inclusion could redirect a freezing crack before the ice front reaches it.","prediction":"An off-axis inclusion could redirect a freezing crack before the ice front reaches it.","test":"Image stress and freezing.","contrary":"Crack turns only after contact.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0201","hypothesis":"An off-axis inclusion could redirect a freezing crack before the ice front reaches it.","test":"Image stress and freezing.","contrary_result":"Crack turns only after contact.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0201","hypothesis":"An off-axis inclusion could redirect a freezing crack before the ice front reaches it.","test":"Image stress and freezing.","contrary_result":"Crack turns only after contact.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"ice freezing crack elastic inclusion deflection experiment","selection_reason":"Transparent ice permits direct front and crack tracking."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0202","id":"S9-0202","volume":"900v9","title":"A suspended grain could orbit a dissolving crystal because competing density currents reverse with height.","prediction":"A suspended grain could orbit a dissolving crystal because competing density currents reverse with height.","test":"Track grains in three dimensions.","contrary":"Motion is monotonic settling.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0202","hypothesis":"A suspended grain could orbit a dissolving crystal because competing density currents reverse with height.","test":"Track grains in three dimensions.","contrary_result":"Motion is monotonic settling.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0203","id":"S9-0203","volume":"900v9","title":"A heated wire knot could select one boiling site through unequal thermal relaxation of its crossings.","prediction":"A heated wire knot could select one boiling site through unequal thermal relaxation of its crossings.","test":"Map temperature and bubbles.","contrary":"Sites follow roughness alone.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0203","hypothesis":"A heated wire knot could select one boiling site through unequal thermal relaxation of its crossings.","test":"Map temperature and bubbles.","contrary_result":"Sites follow roughness alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0203","hypothesis":"A heated wire knot could select one boiling site through unequal thermal relaxation of its crossings.","test":"Map temperature and bubbles.","contrary_result":"Sites follow roughness alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"boiling nucleation heated wire thermal relaxation crossings","selection_reason":"Bubble location can be registered against temperature."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0204","id":"S9-0204","volume":"900v9","title":"A rotating liquid bridge could switch breakup location when its end plates have unequal compliance.","prediction":"A rotating liquid bridge could switch breakup location when its end plates have unequal compliance.","test":"Film breakup under controlled rotation.","contrary":"Compliance changes only breakup time.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0204","hypothesis":"A rotating liquid bridge could switch breakup location when its end plates have unequal compliance.","test":"Film breakup under controlled rotation.","contrary_result":"Compliance changes only breakup time.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0205","id":"S9-0205","volume":"900v9","title":"An inclined vapor cavity could rectify acoustic streaming through periodic interface tilting.","prediction":"An inclined vapor cavity could rectify acoustic streaming through periodic interface tilting.","test":"Measure cycle-averaged flow.","contrary":"Averaged transport vanishes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0205","hypothesis":"An inclined vapor cavity could rectify acoustic streaming through periodic interface tilting.","test":"Measure cycle-averaged flow.","contrary_result":"Averaged transport vanishes.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0206","id":"S9-0206","volume":"900v9","title":"A levitated droplet could preserve a dissolved-gas gradient longer than an equivalent stationary droplet.","prediction":"A levitated droplet could preserve a dissolved-gas gradient longer than an equivalent stationary droplet.","test":"Map gas-sensitive fluorescence.","contrary":"Mixing erases gradients equally quickly.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0206","hypothesis":"A levitated droplet could preserve a dissolved-gas gradient longer than an equivalent stationary droplet.","test":"Map gas-sensitive fluorescence.","contrary_result":"Mixing erases gradients equally quickly.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0207","id":"S9-0207","volume":"900v9","title":"A faceted salt grain could reverse its preferred resting orientation during dissolution.","prediction":"A faceted salt grain could reverse its preferred resting orientation during dissolution.","test":"Track shape and torque.","contrary":"Orientation changes require collisions.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0207","hypothesis":"A faceted salt grain could reverse its preferred resting orientation during dissolution.","test":"Track shape and torque.","contrary_result":"Orientation changes require collisions.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0207","hypothesis":"A faceted salt grain could reverse its preferred resting orientation during dissolution.","test":"Track shape and torque.","contrary_result":"Orientation changes require collisions.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"dissolving crystal orientation torque settling experiment","selection_reason":"Shape and orientation are directly imageable."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0208","id":"S9-0208","volume":"900v9","title":"A bent optical fiber could measure ice adhesion release through a discrete polarization jump.","prediction":"A bent optical fiber could measure ice adhesion release through a discrete polarization jump.","test":"Compare polarization with independently measured detachment.","contrary":"Jumps precede unrelated thermal strain.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0208","hypothesis":"A bent optical fiber could measure ice adhesion release through a discrete polarization jump.","test":"Compare polarization with independently measured detachment.","contrary_result":"Jumps precede unrelated thermal strain.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0209","id":"S9-0209","volume":"900v9","title":"A granular arch could stabilize under weaker vibrations when two adjacent grains have unequal elasticity.","prediction":"A granular arch could stabilize under weaker vibrations when two adjacent grains have unequal elasticity.","test":"Measure failure acceleration.","contrary":"Only friction predicts stability.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0209","hypothesis":"A granular arch could stabilize under weaker vibrations when two adjacent grains have unequal elasticity.","test":"Measure failure acceleration.","contrary_result":"Only friction predicts stability.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0209","hypothesis":"A granular arch could stabilize under weaker vibrations when two adjacent grains have unequal elasticity.","test":"Measure failure acceleration.","contrary_result":"Only friction predicts stability.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"granular arch vibration grain stiffness stability experiment","selection_reason":"Arch failure has a clear acceleration threshold."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0210","id":"S9-0210","volume":"900v9","title":"A thin frost layer could amplify an underlying substrate's acoustic chirality.","prediction":"A thin frost layer could amplify an underlying substrate's acoustic chirality.","test":"Compare opposite propagation directions before icing.","contrary":"Attenuation changes without directional asymmetry.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0210","hypothesis":"A thin frost layer could amplify an underlying substrate's acoustic chirality.","test":"Compare opposite propagation directions before icing.","contrary_result":"Attenuation changes without directional asymmetry.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0211","id":"S9-0211","volume":"900v9","title":"A translating melt front could trap inclusions at regularly spaced acceleration minima.","prediction":"A translating melt front could trap inclusions at regularly spaced acceleration minima.","test":"Program motion and image capture positions.","contrary":"Trapping follows distance alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0211","hypothesis":"A translating melt front could trap inclusions at regularly spaced acceleration minima.","test":"Program motion and image capture positions.","contrary_result":"Trapping follows distance alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0212","id":"S9-0212","volume":"900v9","title":"A dielectric bead near a liquid interface could acquire rotational rather than translational electrothermal motion.","prediction":"A dielectric bead near a liquid interface could acquire rotational rather than translational electrothermal motion.","test":"Resolve flow and bead rotation.","contrary":"Rotation requires bead asymmetry.","layers":[1,2],"categories":["physical","energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0212","hypothesis":"A dielectric bead near a liquid interface could acquire rotational rather than translational electrothermal motion.","test":"Resolve flow and bead rotation.","contrary_result":"Rotation requires bead asymmetry.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0212","hypothesis":"A dielectric bead near a liquid interface could acquire rotational rather than translational electrothermal motion.","test":"Resolve flow and bead rotation.","contrary_result":"Rotation requires bead asymmetry.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"electrothermal rotation dielectric particle liquid interface experiment","selection_reason":"Rotation and translation can be separated optically."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0213","id":"S9-0213","volume":"900v9","title":"A hollow crystal could concentrate dissolved impurities inside its cavity during uniform exterior dissolution.","prediction":"A hollow crystal could concentrate dissolved impurities inside its cavity during uniform exterior dissolution.","test":"Sample cavity and bulk.","contrary":"Concentrations remain matched.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0213","hypothesis":"A hollow crystal could concentrate dissolved impurities inside its cavity during uniform exterior dissolution.","test":"Sample cavity and bulk.","contrary_result":"Concentrations remain matched.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0213","hypothesis":"A hollow crystal could concentrate dissolved impurities inside its cavity during uniform exterior dissolution.","test":"Sample cavity and bulk.","contrary_result":"Concentrations remain matched.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"hollow crystal dissolution internal concentration experiment","selection_reason":"Internal and external concentration can be sampled."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0214","id":"S9-0214","volume":"900v9","title":"A wet ceramic seam could emit an acoustic precursor before its permeability changes under compression.","prediction":"A wet ceramic seam could emit an acoustic precursor before its permeability changes under compression.","test":"Measure acoustic emission and flow.","contrary":"Permeability changes occur first.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0214","hypothesis":"A wet ceramic seam could emit an acoustic precursor before its permeability changes under compression.","test":"Measure acoustic emission and flow.","contrary_result":"Permeability changes occur first.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0215","id":"S9-0215","volume":"900v9","title":"A pendant droplet could distinguish oscillating gravity from lateral vibration through orthogonal shape harmonics.","prediction":"A pendant droplet could distinguish oscillating gravity from lateral vibration through orthogonal shape harmonics.","test":"Apply calibrated accelerations.","contrary":"Harmonics remain indistinguishable.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0215","hypothesis":"A pendant droplet could distinguish oscillating gravity from lateral vibration through orthogonal shape harmonics.","test":"Apply calibrated accelerations.","contrary_result":"Harmonics remain indistinguishable.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0215","hypothesis":"A pendant droplet could distinguish oscillating gravity from lateral vibration through orthogonal shape harmonics.","test":"Apply calibrated accelerations.","contrary_result":"Harmonics remain indistinguishable.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"pendant drop vibration shape harmonics acceleration experiment","selection_reason":"Calibrated mechanical inputs give identifiable controls."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0216","id":"S9-0216","volume":"900v9","title":"A moving contact line could erase a shallow surface-charge pattern without erasing surface topography.","prediction":"A moving contact line could erase a shallow surface-charge pattern without erasing surface topography.","test":"Map charge before and after passage.","contrary":"Charge remains unchanged.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0216","hypothesis":"A moving contact line could erase a shallow surface-charge pattern without erasing surface topography.","test":"Map charge before and after passage.","contrary_result":"Charge remains unchanged.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0217","id":"S9-0217","volume":"900v9","title":"A freezing foam could expel gas preferentially through junctions with lower thermal contact resistance.","prediction":"A freezing foam could expel gas preferentially through junctions with lower thermal contact resistance.","test":"Image venting and junction temperatures.","contrary":"Venting follows aperture alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0217","hypothesis":"A freezing foam could expel gas preferentially through junctions with lower thermal contact resistance.","test":"Image venting and junction temperatures.","contrary_result":"Venting follows aperture alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0218","id":"S9-0218","volume":"900v9","title":"A porous magnetic grain could change settling orientation after its pores fill without changing magnetic alignment.","prediction":"A porous magnetic grain could change settling orientation after its pores fill without changing magnetic alignment.","test":"Track axes during imbibition.","contrary":"Only settling speed changes.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0218","hypothesis":"A porous magnetic grain could change settling orientation after its pores fill without changing magnetic alignment.","test":"Track axes during imbibition.","contrary_result":"Only settling speed changes.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0218","hypothesis":"A porous magnetic grain could change settling orientation after its pores fill without changing magnetic alignment.","test":"Track axes during imbibition.","contrary_result":"Only settling speed changes.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"porous particle imbibition settling orientation experiment","selection_reason":"Orientation can be measured independently of speed."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0219","id":"S9-0219","volume":"900v9","title":"A compressed bubble raft could develop a reversible vacancy corridor before global rearrangement.","prediction":"A compressed bubble raft could develop a reversible vacancy corridor before global rearrangement.","test":"Track bubbles under loading cycles.","contrary":"Vacancies arise only during irreversible rearrangement.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0219","hypothesis":"A compressed bubble raft could develop a reversible vacancy corridor before global rearrangement.","test":"Track bubbles under loading cycles.","contrary_result":"Vacancies arise only during irreversible rearrangement.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0220","id":"S9-0220","volume":"900v9","title":"A concentric droplet pair could sustain alternating evaporation rates through vapor shielding.","prediction":"A concentric droplet pair could sustain alternating evaporation rates through vapor shielding.","test":"Measure each radius over time.","contrary":"Both rates vary together.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0220","hypothesis":"A concentric droplet pair could sustain alternating evaporation rates through vapor shielding.","test":"Measure each radius over time.","contrary_result":"Both rates vary together.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0220","hypothesis":"A concentric droplet pair could sustain alternating evaporation rates through vapor shielding.","test":"Measure each radius over time.","contrary_result":"Both rates vary together.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"droplet vapor shielding evaporation interaction experiment","selection_reason":"Radius histories provide direct quantitative outputs."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0221","id":"S9-0221","volume":"900v9","title":"A sliding ice crystal could generate a transient liquid lens that changes its frictional directionality.","prediction":"A sliding ice crystal could generate a transient liquid lens that changes its frictional directionality.","test":"Image the contact and measure force.","contrary":"Directional force persists without a lens.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0221","hypothesis":"A sliding ice crystal could generate a transient liquid lens that changes its frictional directionality.","test":"Image the contact and measure force.","contrary_result":"Directional force persists without a lens.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0222","id":"S9-0222","volume":"900v9","title":"A rough sapphire surface could nucleate condensation at different sites after reversing a temperature ramp.","prediction":"A rough sapphire surface could nucleate condensation at different sites after reversing a temperature ramp.","test":"Register droplet locations across ramps.","contrary":"Sites depend only on minimum temperature.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0222","hypothesis":"A rough sapphire surface could nucleate condensation at different sites after reversing a temperature ramp.","test":"Register droplet locations across ramps.","contrary_result":"Sites depend only on minimum temperature.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0222","hypothesis":"A rough sapphire surface could nucleate condensation at different sites after reversing a temperature ramp.","test":"Register droplet locations across ramps.","contrary_result":"Sites depend only on minimum temperature.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"condensation nucleation thermal ramp hysteresis sapphire experiment","selection_reason":"Droplet sites can be registered over repeated ramps."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0223","id":"S9-0223","volume":"900v9","title":"A freely suspended membrane could convert an asymmetric condensation pattern into torsion.","prediction":"A freely suspended membrane could convert an asymmetric condensation pattern into torsion.","test":"Measure deposition and angular motion.","contrary":"Only uniform bending appears.","layers":[1,2],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0223","hypothesis":"A freely suspended membrane could convert an asymmetric condensation pattern into torsion.","test":"Measure deposition and angular motion.","contrary_result":"Only uniform bending appears.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0223","hypothesis":"A freely suspended membrane could convert an asymmetric condensation pattern into torsion.","test":"Measure deposition and angular motion.","contrary_result":"Only uniform bending appears.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"condensation flexible membrane torsion experiment","selection_reason":"Torque can be compared with deposition symmetry."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0224","id":"S9-0224","volume":"900v9","title":"A submerged glass shard could rotate toward decreasing solute concentration through asymmetric dissolution drag.","prediction":"A submerged glass shard could rotate toward decreasing solute concentration through asymmetric dissolution drag.","test":"Track rotation in controlled gradients.","contrary":"Rotation is explained entirely by bulk flow.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0224","hypothesis":"A submerged glass shard could rotate toward decreasing solute concentration through asymmetric dissolution drag.","test":"Track rotation in controlled gradients.","contrary_result":"Rotation is explained entirely by bulk flow.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0225","id":"S9-0225","volume":"900v9","title":"A pulsed electron-free ultraviolet source could change mineral luminescence decay through reversible trap competition.","prediction":"A pulsed electron-free ultraviolet source could change mineral luminescence decay through reversible trap competition.","test":"Measure decay versus pulse spacing.","contrary":"Spacing affects intensity only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0225","hypothesis":"A pulsed electron-free ultraviolet source could change mineral luminescence decay through reversible trap competition.","test":"Measure decay versus pulse spacing.","contrary_result":"Spacing affects intensity only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0226","id":"S9-0226","volume":"900v9","title":"A ceramic resonator could reveal subcritical water clustering through a nonmonotonic frequency shift.","prediction":"A ceramic resonator could reveal subcritical water clustering through a nonmonotonic frequency shift.","test":"Measure humidity, mass, and resonance.","contrary":"Frequency follows added mass monotonically.","layers":[1,2],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0226","hypothesis":"A ceramic resonator could reveal subcritical water clustering through a nonmonotonic frequency shift.","test":"Measure humidity, mass, and resonance.","contrary_result":"Frequency follows added mass monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0226","hypothesis":"A ceramic resonator could reveal subcritical water clustering through a nonmonotonic frequency shift.","test":"Measure humidity, mass, and resonance.","contrary_result":"Frequency follows added mass monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"ceramic resonator humidity adsorption water clusters experiment","selection_reason":"Mass and resonance offer independent measurements."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0227","id":"S9-0227","volume":"900v9","title":"A thin liquid lens could stabilize a falling particle's oscillation by delayed interface deformation.","prediction":"A thin liquid lens could stabilize a falling particle's oscillation by delayed interface deformation.","test":"Vary lens viscosity and film motion.","contrary":"Oscillation decay ignores deformation delay.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0227","hypothesis":"A thin liquid lens could stabilize a falling particle's oscillation by delayed interface deformation.","test":"Vary lens viscosity and film motion.","contrary_result":"Oscillation decay ignores deformation delay.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0228","id":"S9-0228","volume":"900v9","title":"A wedge-shaped salt cavity could retain supersaturation longer than a cylindrical cavity of equal volume.","prediction":"A wedge-shaped salt cavity could retain supersaturation longer than a cylindrical cavity of equal volume.","test":"Measure concentration and crystallization onset.","contrary":"Onset distributions coincide.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0228","hypothesis":"A wedge-shaped salt cavity could retain supersaturation longer than a cylindrical cavity of equal volume.","test":"Measure concentration and crystallization onset.","contrary_result":"Onset distributions coincide.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0228","hypothesis":"A wedge-shaped salt cavity could retain supersaturation longer than a cylindrical cavity of equal volume.","test":"Measure concentration and crystallization onset.","contrary_result":"Onset distributions coincide.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"wedge cavity crystallization induction supersaturation experiment","selection_reason":"Matched-volume cavities provide a geometry control."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0229","id":"S9-0229","volume":"900v9","title":"A gently twisted wire pair could separate thermal expansion from adsorbed mass through mode splitting.","prediction":"A gently twisted wire pair could separate thermal expansion from adsorbed mass through mode splitting.","test":"Calibrate temperature and vapor separately.","contrary":"Their mode signatures remain collinear.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0229","hypothesis":"A gently twisted wire pair could separate thermal expansion from adsorbed mass through mode splitting.","test":"Calibrate temperature and vapor separately.","contrary_result":"Their mode signatures remain collinear.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0230","id":"S9-0230","volume":"900v9","title":"A small dielectric cavity could exhibit humidity-induced optical hysteresis before measurable water mass accumulation.","prediction":"A small dielectric cavity could exhibit humidity-induced optical hysteresis before measurable water mass accumulation.","test":"Measure spectrum and microbalance together.","contrary":"Hysteresis requires detectable condensed mass.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0230","hypothesis":"A small dielectric cavity could exhibit humidity-induced optical hysteresis before measurable water mass accumulation.","test":"Measure spectrum and microbalance together.","contrary_result":"Hysteresis requires detectable condensed mass.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0231","id":"S9-0231","volume":"900v9","title":"A heated granular bed could reverse its acoustic anisotropy as thermal contacts expand.","prediction":"A heated granular bed could reverse its acoustic anisotropy as thermal contacts expand.","test":"Measure directional sound speeds.","contrary":"Anisotropy retains its sign.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0231","hypothesis":"A heated granular bed could reverse its acoustic anisotropy as thermal contacts expand.","test":"Measure directional sound speeds.","contrary_result":"Anisotropy retains its sign.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0231","hypothesis":"A heated granular bed could reverse its acoustic anisotropy as thermal contacts expand.","test":"Measure directional sound speeds.","contrary_result":"Anisotropy retains its sign.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"granular material thermal contact acoustic anisotropy experiment","selection_reason":"Directional sound speeds are measurable."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0232","id":"S9-0232","volume":"900v9","title":"A floating crystal raft could fracture preferentially along a previous wave node after waves cease.","prediction":"A floating crystal raft could fracture preferentially along a previous wave node after waves cease.","test":"Register strain and later fractures.","contrary":"Fractures follow only current load.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0232","hypothesis":"A floating crystal raft could fracture preferentially along a previous wave node after waves cease.","test":"Register strain and later fractures.","contrary_result":"Fractures follow only current load.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0232","hypothesis":"A floating crystal raft could fracture preferentially along a previous wave node after waves cease.","test":"Register strain and later fractures.","contrary_result":"Fractures follow only current load.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"floating crystal raft waves fracture memory experiment","selection_reason":"Previous nodes and later fractures can be registered."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0233","id":"S9-0233","volume":"900v9","title":"A transparent wedge could make vapor diffusion distinguish two otherwise identical condensation cavities.","prediction":"A transparent wedge could make vapor diffusion distinguish two otherwise identical condensation cavities.","test":"Compare growth under exchanged positions.","contrary":"Geometry produces no reproducible difference.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0233","hypothesis":"A transparent wedge could make vapor diffusion distinguish two otherwise identical condensation cavities.","test":"Compare growth under exchanged positions.","contrary_result":"Geometry produces no reproducible difference.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0234","id":"S9-0234","volume":"900v9","title":"A spinning hollow sphere could reveal a thin internal liquid patch through split vibration sidebands.","prediction":"A spinning hollow sphere could reveal a thin internal liquid patch through split vibration sidebands.","test":"Compare patch location and spectra.","contrary":"Spectra show total mass only.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0234","hypothesis":"A spinning hollow sphere could reveal a thin internal liquid patch through split vibration sidebands.","test":"Compare patch location and spectra.","contrary_result":"Spectra show total mass only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0234","hypothesis":"A spinning hollow sphere could reveal a thin internal liquid patch through split vibration sidebands.","test":"Compare patch location and spectra.","contrary_result":"Spectra show total mass only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"hollow sphere internal liquid vibration sidebands experiment","selection_reason":"A movable liquid patch supplies ground truth."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0235","id":"S9-0235","volume":"900v9","title":"An insulating dust layer could narrow rather than broaden a substrate's thermal resonance under vacuum.","prediction":"An insulating dust layer could narrow rather than broaden a substrate's thermal resonance under vacuum.","test":"Measure thermal transfer functions.","contrary":"All resonance widths increase.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0235","hypothesis":"An insulating dust layer could narrow rather than broaden a substrate's thermal resonance under vacuum.","test":"Measure thermal transfer functions.","contrary_result":"All resonance widths increase.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0236","id":"S9-0236","volume":"900v9","title":"A soap-free oil film could develop alternating thickness bands from oscillatory substrate heating.","prediction":"A soap-free oil film could develop alternating thickness bands from oscillatory substrate heating.","test":"Map film thickness over cycles.","contrary":"Bands require surfactant contamination.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0236","hypothesis":"A soap-free oil film could develop alternating thickness bands from oscillatory substrate heating.","test":"Map film thickness over cycles.","contrary_result":"Bands require surfactant contamination.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0236","hypothesis":"A soap-free oil film could develop alternating thickness bands from oscillatory substrate heating.","test":"Map film thickness over cycles.","contrary_result":"Bands require surfactant contamination.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"thin liquid film thermal oscillation thickness instability experiment","selection_reason":"Thickness bands can be observed without changing chemistry."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0237","id":"S9-0237","volume":"900v9","title":"A porous dielectric could distinguish liquid replacement from evaporation through opposite capacitance-loss trajectories.","prediction":"A porous dielectric could distinguish liquid replacement from evaporation through opposite capacitance-loss trajectories.","test":"Measure both processes at matched saturation.","contrary":"Trajectories overlap within uncertainty.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0237","hypothesis":"A porous dielectric could distinguish liquid replacement from evaporation through opposite capacitance-loss trajectories.","test":"Measure both processes at matched saturation.","contrary_result":"Trajectories overlap within uncertainty.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0237","hypothesis":"A porous dielectric could distinguish liquid replacement from evaporation through opposite capacitance-loss trajectories.","test":"Measure both processes at matched saturation.","contrary_result":"Trajectories overlap within uncertainty.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"porous dielectric drainage imbibition dielectric loss experiment","selection_reason":"Saturation matching tests state versus history."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0238","id":"S9-0238","volume":"900v9","title":"A dissolving binary crystal could exhibit a transient maximum in elastic anisotropy before either phase disappears.","prediction":"A dissolving binary crystal could exhibit a transient maximum in elastic anisotropy before either phase disappears.","test":"Map stiffness and composition.","contrary":"Anisotropy changes monotonically.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0238","hypothesis":"A dissolving binary crystal could exhibit a transient maximum in elastic anisotropy before either phase disappears.","test":"Map stiffness and composition.","contrary_result":"Anisotropy changes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0239","id":"S9-0239","volume":"900v9","title":"A shallow liquid crater could lock the phase of nearby bubble emission without connecting gas paths.","prediction":"A shallow liquid crater could lock the phase of nearby bubble emission without connecting gas paths.","test":"Measure bubble timing versus distance.","contrary":"Timing remains independent.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0239","hypothesis":"A shallow liquid crater could lock the phase of nearby bubble emission without connecting gas paths.","test":"Measure bubble timing versus distance.","contrary_result":"Timing remains independent.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0239","hypothesis":"A shallow liquid crater could lock the phase of nearby bubble emission without connecting gas paths.","test":"Measure bubble timing versus distance.","contrary_result":"Timing remains independent.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"bubble emission synchronization hydrodynamic interaction experiment","selection_reason":"Timing correlation can be measured without complex assays."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0240","id":"S9-0240","volume":"900v9","title":"A sealed capillary could show dissolved-gas redistribution before its thermal pressure reaches equilibrium.","prediction":"A sealed capillary could show dissolved-gas redistribution before its thermal pressure reaches equilibrium.","test":"Measure gas fluorescence and pressure.","contrary":"Both equilibrate simultaneously.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0240","hypothesis":"A sealed capillary could show dissolved-gas redistribution before its thermal pressure reaches equilibrium.","test":"Measure gas fluorescence and pressure.","contrary_result":"Both equilibrate simultaneously.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0240","hypothesis":"A sealed capillary could show dissolved-gas redistribution before its thermal pressure reaches equilibrium.","test":"Measure gas fluorescence and pressure.","contrary_result":"Both equilibrate simultaneously.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"dissolved gas sealed capillary thermal pressure equilibration experiment","selection_reason":"Pressure and gas concentration provide separate signals."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0241","id":"S9-0241","volume":"900v9","title":"A freely rotating foil could detect asymmetric infrared emission from a cooling crystal.","prediction":"A freely rotating foil could detect asymmetric infrared emission from a cooling crystal.","test":"Measure torque with optical shielding controls.","contrary":"Torque persists under isothermal conditions.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0241","hypothesis":"A freely rotating foil could detect asymmetric infrared emission from a cooling crystal.","test":"Measure torque with optical shielding controls.","contrary_result":"Torque persists under isothermal conditions.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0242","id":"S9-0242","volume":"900v9","title":"A droplet sliding over a conductivity boundary could change speed before its leading edge crosses.","prediction":"A droplet sliding over a conductivity boundary could change speed before its leading edge crosses.","test":"Measure interface position and velocity.","contrary":"Changes begin only after crossing.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0242","hypothesis":"A droplet sliding over a conductivity boundary could change speed before its leading edge crosses.","test":"Measure interface position and velocity.","contrary_result":"Changes begin only after crossing.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0243","id":"S9-0243","volume":"900v9","title":"A granular inclusion could screen thermal expansion stress more effectively when mechanically softer but thermally stiffer.","prediction":"A granular inclusion could screen thermal expansion stress more effectively when mechanically softer but thermally stiffer.","test":"Measure strain fields across matched inclusions.","contrary":"Mechanical modulus alone explains screening.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0243","hypothesis":"A granular inclusion could screen thermal expansion stress more effectively when mechanically softer but thermally stiffer.","test":"Measure strain fields across matched inclusions.","contrary_result":"Mechanical modulus alone explains screening.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0243","hypothesis":"A granular inclusion could screen thermal expansion stress more effectively when mechanically softer but thermally stiffer.","test":"Measure strain fields across matched inclusions.","contrary_result":"Mechanical modulus alone explains screening.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"elastic inclusion thermal expansion stress screening experiment","selection_reason":"Matched inclusions isolate mechanical and thermal properties."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0244","id":"S9-0244","volume":"900v9","title":"A double-walled bubble could suppress sound at one frequency through phase cancellation between its interfaces.","prediction":"A double-walled bubble could suppress sound at one frequency through phase cancellation between its interfaces.","test":"Measure interface phases and scattering.","contrary":"No scattering minimum accompanies opposite phases.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0244","hypothesis":"A double-walled bubble could suppress sound at one frequency through phase cancellation between its interfaces.","test":"Measure interface phases and scattering.","contrary_result":"No scattering minimum accompanies opposite phases.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0245","id":"S9-0245","volume":"900v9","title":"A sublimating ice edge could develop a repeatable oscillation in curvature under steady illumination.","prediction":"A sublimating ice edge could develop a repeatable oscillation in curvature under steady illumination.","test":"Track edge profiles and temperature.","contrary":"Curvature approaches steady state monotonically.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0245","hypothesis":"A sublimating ice edge could develop a repeatable oscillation in curvature under steady illumination.","test":"Track edge profiles and temperature.","contrary_result":"Curvature approaches steady state monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0245","hypothesis":"A sublimating ice edge could develop a repeatable oscillation in curvature under steady illumination.","test":"Track edge profiles and temperature.","contrary_result":"Curvature approaches steady state monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"ice sublimation edge instability curvature experiment","selection_reason":"Edge curvature is directly observable."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0246","id":"S9-0246","volume":"900v9","title":"A cold quartz grain could collect polar vapor preferentially at elastically strained corners.","prediction":"A cold quartz grain could collect polar vapor preferentially at elastically strained corners.","test":"Map adsorption and strain.","contrary":"Adsorption follows exposed area alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0246","hypothesis":"A cold quartz grain could collect polar vapor preferentially at elastically strained corners.","test":"Map adsorption and strain.","contrary_result":"Adsorption follows exposed area alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0247","id":"S9-0247","volume":"900v9","title":"A flexible optical cavity could infer liquid compressibility from the phase lag of acoustic sidebands.","prediction":"A flexible optical cavity could infer liquid compressibility from the phase lag of acoustic sidebands.","test":"Calibrate liquids at matched viscosity.","contrary":"Sidebands track viscosity only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0247","hypothesis":"A flexible optical cavity could infer liquid compressibility from the phase lag of acoustic sidebands.","test":"Calibrate liquids at matched viscosity.","contrary_result":"Sidebands track viscosity only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0248","id":"S9-0248","volume":"900v9","title":"A drying mineral paste could develop internal torsion despite symmetric exterior shrinkage.","prediction":"A drying mineral paste could develop internal torsion despite symmetric exterior shrinkage.","test":"Track embedded orientation markers.","contrary":"All motion is explained by radial shrinkage.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0248","hypothesis":"A drying mineral paste could develop internal torsion despite symmetric exterior shrinkage.","test":"Track embedded orientation markers.","contrary_result":"All motion is explained by radial shrinkage.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0248","hypothesis":"A drying mineral paste could develop internal torsion despite symmetric exterior shrinkage.","test":"Track embedded orientation markers.","contrary_result":"All motion is explained by radial shrinkage.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"drying mineral paste torsion shrinkage experiment","selection_reason":"Embedded markers separate torsion from radial shrinkage."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0249","id":"S9-0249","volume":"900v9","title":"A liquid metal droplet could retain a reversible magnetic-field orientation in its oxide-shell wrinkles.","prediction":"A liquid metal droplet could retain a reversible magnetic-field orientation in its oxide-shell wrinkles.","test":"Image wrinkles after field cycling.","contrary":"Wrinkles track handling history alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0249","hypothesis":"A liquid metal droplet could retain a reversible magnetic-field orientation in its oxide-shell wrinkles.","test":"Image wrinkles after field cycling.","contrary_result":"Wrinkles track handling history alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0250","id":"S9-0250","volume":"900v9","title":"A dense crystal suspension could show faster heat propagation perpendicular to its shear-aligned axes.","prediction":"A dense crystal suspension could show faster heat propagation perpendicular to its shear-aligned axes.","test":"Measure directional thermal transients.","contrary":"Conductivity is largest along alignment.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0250","hypothesis":"A dense crystal suspension could show faster heat propagation perpendicular to its shear-aligned axes.","test":"Measure directional thermal transients.","contrary_result":"Conductivity is largest along alignment.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0251","id":"S9-0251","volume":"900v9","title":"A ring of evaporating droplets could synchronize radius fluctuations through shared vapor diffusion.","prediction":"A ring of evaporating droplets could synchronize radius fluctuations through shared vapor diffusion.","test":"Track radii under controlled airflow.","contrary":"Cross-correlations vanish after common drift removal.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0251","hypothesis":"A ring of evaporating droplets could synchronize radius fluctuations through shared vapor diffusion.","test":"Track radii under controlled airflow.","contrary_result":"Cross-correlations vanish after common drift removal.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0251","hypothesis":"A ring of evaporating droplets could synchronize radius fluctuations through shared vapor diffusion.","test":"Track radii under controlled airflow.","contrary_result":"Cross-correlations vanish after common drift removal.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"droplet array evaporation synchronization vapor diffusion experiment","selection_reason":"Independent radius traces allow common-drift removal."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0252","id":"S9-0252","volume":"900v9","title":"A photonic powder could distinguish elastic compression from particle loss through opposite spectral-width changes.","prediction":"A photonic powder could distinguish elastic compression from particle loss through opposite spectral-width changes.","test":"Measure mass and reflectance spectra.","contrary":"Both perturbations produce identical width changes.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0252","hypothesis":"A photonic powder could distinguish elastic compression from particle loss through opposite spectral-width changes.","test":"Measure mass and reflectance spectra.","contrary_result":"Both perturbations produce identical width changes.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0253","id":"S9-0253","volume":"900v9","title":"A trapped air pocket could delay crack propagation more when slightly vented than fully sealed.","prediction":"A trapped air pocket could delay crack propagation more when slightly vented than fully sealed.","test":"Compare fracture with calibrated vents.","contrary":"Delay increases monotonically with sealing.","layers":[1,2,3],"categories":["measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0253","hypothesis":"A trapped air pocket could delay crack propagation more when slightly vented than fully sealed.","test":"Compare fracture with calibrated vents.","contrary_result":"Delay increases monotonically with sealing.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0253","hypothesis":"A trapped air pocket could delay crack propagation more when slightly vented than fully sealed.","test":"Compare fracture with calibrated vents.","contrary_result":"Delay increases monotonically with sealing.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"air cavity venting crack propagation fracture experiment","selection_reason":"Vent size is a controllable parameter with a falsifiable optimum."},"dossier":{"id":"S9-0253","hypothesis":"A trapped air pocket could delay crack propagation more when slightly vented than fully sealed.","test":"Compare fracture with calibrated vents.","contrary_result":"Delay increases monotonically with sealing.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"air cavity venting crack propagation fracture experiment","selection_reason":"Vent size is a controllable parameter with a falsifiable optimum.","rank":7,"title":"Partially vented air pocket near a propagating crack","reason":"An intermediate pneumatic damping optimum is mathematically plausible. Translation into slower fracture is uncertain, so this ranks below the direct recovery experiments.","evidence":"Exploratory searches found primary leads on throttled air chambers and pneumatic damping, but no accessed primary experiment established a crack-arrest advantage for the proposed geometry. These are mechanism leads, not fracture evidence.","sources":["https://ascelibrary.org/doi/10.1061/%28ASCE%29HY.1943-7900.0000633"],"protocol":"Use transparent brittle model coupons containing identical rounded cavities and independently sized vents. Compare sealed, partially vented and freely vented cases under matched loading. Measure crack speed, local strain, cavity pressure and specimen geometry. A separate uncracked flexible-wall cavity should establish pneumatic response before attempting fracture tests. Vent drilling changes stress concentration and must be geometrically controlled.","analysis":"For an assumed linear cavity, C*p'+G*p=q0*cos(omega*t), with compliance C>0 and vent conductance G>0, average dissipated pneumatic power is q0^2*G/[2*(G^2+(omega*C)^2)]. Differentiating gives a unique maximum at G=omega*C. Both a perfectly sealed and a freely vented limit dissipate zero in this ideal model. This proves an intermediate dissipation optimum, not slower crack propagation; cavity stiffness and fracture-driving energy also change.","counterexample":"A sealed cavity may shield the crack elastically more than a vented one, or a vent may act as a notch and accelerate failure. Crack motion is broadband and nonstationary, so a harmonic optimum need not transfer.","decision":"First verify the pressure-response model and losses. Only then compare crack speed at matched applied energy release. A pressure-loss maximum alone does not support the crack-delay claim. Do not call this a completed fracture proof.","data":"time_s,coupon_id,vent_conductance_m3_per_Pa_s,cavity_pressure_Pa,crack_position_m,applied_force_N,displacement_m"},"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0254","id":"S9-0254","volume":"900v9","title":"A tilted liquid meniscus could convert periodic pressure into a net thermal flux between equal-mean-temperature boundaries.","prediction":"A tilted liquid meniscus could convert periodic pressure into a net thermal flux between equal-mean-temperature boundaries.","test":"Measure heat and pressure phase.","contrary":"Average heat transfer equals the static control.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0254","hypothesis":"A tilted liquid meniscus could convert periodic pressure into a net thermal flux between equal-mean-temperature boundaries.","test":"Measure heat and pressure phase.","contrary_result":"Average heat transfer equals the static control.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0255","id":"S9-0255","volume":"900v9","title":"A crystal growing beside a deformable wall could alternate facets through wall-mediated solute confinement.","prediction":"A crystal growing beside a deformable wall could alternate facets through wall-mediated solute confinement.","test":"Image wall motion and facet rates.","contrary":"Facet changes ignore wall compliance.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0255","hypothesis":"A crystal growing beside a deformable wall could alternate facets through wall-mediated solute confinement.","test":"Image wall motion and facet rates.","contrary_result":"Facet changes ignore wall compliance.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0256","id":"S9-0256","volume":"900v9","title":"A floating porous disk could spontaneously reverse its drift as internal saturation becomes asymmetric.","prediction":"A floating porous disk could spontaneously reverse its drift as internal saturation becomes asymmetric.","test":"Track saturation and motion.","contrary":"Drift never reverses without external changes.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0256","hypothesis":"A floating porous disk could spontaneously reverse its drift as internal saturation becomes asymmetric.","test":"Track saturation and motion.","contrary_result":"Drift never reverses without external changes.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0257","id":"S9-0257","volume":"900v9","title":"A sand grain's acoustic ringdown could distinguish internal cracks from a surface coating at equal mass.","prediction":"A sand grain's acoustic ringdown could distinguish internal cracks from a surface coating at equal mass.","test":"Compare mode-specific decay.","contrary":"All decay changes follow mass alone.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0257","hypothesis":"A sand grain's acoustic ringdown could distinguish internal cracks from a surface coating at equal mass.","test":"Compare mode-specific decay.","contrary_result":"All decay changes follow mass alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0258","id":"S9-0258","volume":"900v9","title":"A layered ice sample could retain the direction of a past heat pulse in its subsequent dielectric relaxation.","prediction":"A layered ice sample could retain the direction of a past heat pulse in its subsequent dielectric relaxation.","test":"Reverse pulse histories and measure relaxation.","contrary":"Only final temperature determines response.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0258","hypothesis":"A layered ice sample could retain the direction of a past heat pulse in its subsequent dielectric relaxation.","test":"Reverse pulse histories and measure relaxation.","contrary_result":"Only final temperature determines response.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0258","hypothesis":"A layered ice sample could retain the direction of a past heat pulse in its subsequent dielectric relaxation.","test":"Reverse pulse histories and measure relaxation.","contrary_result":"Only final temperature determines response.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"ice thermal cycling dielectric relaxation memory experiment","selection_reason":"Swapped histories can have matched thermal endpoints."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0259","id":"S9-0259","volume":"900v9","title":"A narrow heated slit could suppress particle deposition by reversing near-wall thermophoretic drift.","prediction":"A narrow heated slit could suppress particle deposition by reversing near-wall thermophoretic drift.","test":"Track particles and temperature.","contrary":"Drift retains its sign throughout the slit.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0259","hypothesis":"A narrow heated slit could suppress particle deposition by reversing near-wall thermophoretic drift.","test":"Track particles and temperature.","contrary_result":"Drift retains its sign throughout the slit.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0260","id":"S9-0260","volume":"900v9","title":"A boiling surface could exchange its dominant acoustic frequency before a visible bubble-size transition.","prediction":"A boiling surface could exchange its dominant acoustic frequency before a visible bubble-size transition.","test":"Synchronize sound and imaging.","contrary":"Spectral changes follow the visible transition.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0260","hypothesis":"A boiling surface could exchange its dominant acoustic frequency before a visible bubble-size transition.","test":"Synchronize sound and imaging.","contrary_result":"Spectral changes follow the visible transition.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0260","hypothesis":"A boiling surface could exchange its dominant acoustic frequency before a visible bubble-size transition.","test":"Synchronize sound and imaging.","contrary_result":"Spectral changes follow the visible transition.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"boiling acoustic precursor bubble transition experiment","selection_reason":"Synchronized sound and imaging test temporal precedence."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0261","id":"S9-0261","volume":"900v9","title":"A charged mineral grain could lose charge faster during partial wetting than complete immersion.","prediction":"A charged mineral grain could lose charge faster during partial wetting than complete immersion.","test":"Measure charge decay across controlled coverage.","contrary":"Decay rises monotonically with coverage.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0261","hypothesis":"A charged mineral grain could lose charge faster during partial wetting than complete immersion.","test":"Measure charge decay across controlled coverage.","contrary_result":"Decay rises monotonically with coverage.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0261","hypothesis":"A charged mineral grain could lose charge faster during partial wetting than complete immersion.","test":"Measure charge decay across controlled coverage.","contrary_result":"Decay rises monotonically with coverage.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"mineral particle partial wetting charge decay experiment","selection_reason":"Coverage can be varied independently of initial charge."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0262","id":"S9-0262","volume":"900v9","title":"A capillary wave crossing a floating crystal could reveal grain-boundary stiffness through reflected phase.","prediction":"A capillary wave crossing a floating crystal could reveal grain-boundary stiffness through reflected phase.","test":"Map reflection against independently measured boundaries.","contrary":"Reflection depends only on thickness.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0262","hypothesis":"A capillary wave crossing a floating crystal could reveal grain-boundary stiffness through reflected phase.","test":"Map reflection against independently measured boundaries.","contrary_result":"Reflection depends only on thickness.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0263","id":"S9-0263","volume":"900v9","title":"A confined liquid mixture could show a transient density inversion during diffusion without phase separation.","prediction":"A confined liquid mixture could show a transient density inversion during diffusion without phase separation.","test":"Measure concentration and buoyancy profiles.","contrary":"Density remains monotonic throughout.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0263","hypothesis":"A confined liquid mixture could show a transient density inversion during diffusion without phase separation.","test":"Measure concentration and buoyancy profiles.","contrary_result":"Density remains monotonic throughout.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0263","hypothesis":"A confined liquid mixture could show a transient density inversion during diffusion without phase separation.","test":"Measure concentration and buoyancy profiles.","contrary_result":"Density remains monotonic throughout.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"multicomponent diffusion transient density inversion experiment","selection_reason":"Concentration profiles can test inversion directly."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0264","id":"S9-0264","volume":"900v9","title":"A hollow elastic bead could become acoustically transparent at a tunable internal pressure.","prediction":"A hollow elastic bead could become acoustically transparent at a tunable internal pressure.","test":"Measure scattering while varying pressure.","contrary":"Scattering minima remain pressure independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0264","hypothesis":"A hollow elastic bead could become acoustically transparent at a tunable internal pressure.","test":"Measure scattering while varying pressure.","contrary_result":"Scattering minima remain pressure independent.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0265","id":"S9-0265","volume":"900v9","title":"A nanoscale oxide layer could alter a metal foil's thermal bending sign before appreciably changing its mass.","prediction":"A nanoscale oxide layer could alter a metal foil's thermal bending sign before appreciably changing its mass.","test":"Measure curvature, thickness, and mass.","contrary":"Curvature sign follows residual stress alone.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0265","hypothesis":"A nanoscale oxide layer could alter a metal foil's thermal bending sign before appreciably changing its mass.","test":"Measure curvature, thickness, and mass.","contrary_result":"Curvature sign follows residual stress alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0265","hypothesis":"A nanoscale oxide layer could alter a metal foil's thermal bending sign before appreciably changing its mass.","test":"Measure curvature, thickness, and mass.","contrary_result":"Curvature sign follows residual stress alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"oxide film metal foil thermal bending stress experiment","selection_reason":"Curvature and oxide thickness can be measured separately."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0266","id":"S9-0266","volume":"900v9","title":"A vibrating glass tube could separate dissolved gas effects from liquid viscosity through two mode damping ratios.","prediction":"A vibrating glass tube could separate dissolved gas effects from liquid viscosity through two mode damping ratios.","test":"Calibrate independently degassed liquids.","contrary":"Damping ratios remain indistinguishable.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0266","hypothesis":"A vibrating glass tube could separate dissolved gas effects from liquid viscosity through two mode damping ratios.","test":"Calibrate independently degassed liquids.","contrary_result":"Damping ratios remain indistinguishable.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0267","id":"S9-0267","volume":"900v9","title":"A dissolving corner could generate a moving stagnation point that traps otherwise settling particles.","prediction":"A dissolving corner could generate a moving stagnation point that traps otherwise settling particles.","test":"Track flow and particles.","contrary":"Trapping requires surface adhesion.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0267","hypothesis":"A dissolving corner could generate a moving stagnation point that traps otherwise settling particles.","test":"Track flow and particles.","contrary_result":"Trapping requires surface adhesion.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0267","hypothesis":"A dissolving corner could generate a moving stagnation point that traps otherwise settling particles.","test":"Track flow and particles.","contrary_result":"Trapping requires surface adhesion.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"dissolving crystal convection particle trapping stagnation experiment","selection_reason":"Tracer imaging can distinguish adhesion from flow trapping."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0268","id":"S9-0268","volume":"900v9","title":"A frozen emulsion could preserve droplet packing anisotropy in its thawing heat-flow pattern.","prediction":"A frozen emulsion could preserve droplet packing anisotropy in its thawing heat-flow pattern.","test":"Measure packing and directional thaw fronts.","contrary":"Heat flow depends only on mean droplet size.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0268","hypothesis":"A frozen emulsion could preserve droplet packing anisotropy in its thawing heat-flow pattern.","test":"Measure packing and directional thaw fronts.","contrary_result":"Heat flow depends only on mean droplet size.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0269","id":"S9-0269","volume":"900v9","title":"A shallow salt crust could redistribute electrical current before visible fracture under bending.","prediction":"A shallow salt crust could redistribute electrical current before visible fracture under bending.","test":"Map impedance and crack images.","contrary":"Redistribution occurs only after visible fracture.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0269","hypothesis":"A shallow salt crust could redistribute electrical current before visible fracture under bending.","test":"Map impedance and crack images.","contrary_result":"Redistribution occurs only after visible fracture.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0269","hypothesis":"A shallow salt crust could redistribute electrical current before visible fracture under bending.","test":"Map impedance and crack images.","contrary_result":"Redistribution occurs only after visible fracture.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"salt crust bending electrical impedance fracture experiment","selection_reason":"Electrical mapping can precede visible fracture tracking."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0270","id":"S9-0270","volume":"900v9","title":"A conducting liquid thread could select breakup wavelength through external circuit impedance.","prediction":"A conducting liquid thread could select breakup wavelength through external circuit impedance.","test":"Vary impedance at matched mean current.","contrary":"Wavelength ignores impedance.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0270","hypothesis":"A conducting liquid thread could select breakup wavelength through external circuit impedance.","test":"Vary impedance at matched mean current.","contrary_result":"Wavelength ignores impedance.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0271","id":"S9-0271","volume":"900v9","title":"A magnetized particle chain could develop a thermal-expansion kink at a weak magnetic junction.","prediction":"A magnetized particle chain could develop a thermal-expansion kink at a weak magnetic junction.","test":"Image heating and junction angles.","contrary":"Kinks occur independently of junction strength.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0271","hypothesis":"A magnetized particle chain could develop a thermal-expansion kink at a weak magnetic junction.","test":"Image heating and junction angles.","contrary_result":"Kinks occur independently of junction strength.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0272","id":"S9-0272","volume":"900v9","title":"A water-filled crystal cavity could exhibit lower acoustic damping at intermediate gas fraction than at either endpoint.","prediction":"A water-filled crystal cavity could exhibit lower acoustic damping at intermediate gas fraction than at either endpoint.","test":"Measure damping versus gas fraction.","contrary":"Damping changes monotonically.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0272","hypothesis":"A water-filled crystal cavity could exhibit lower acoustic damping at intermediate gas fraction than at either endpoint.","test":"Measure damping versus gas fraction.","contrary_result":"Damping changes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0272","hypothesis":"A water-filled crystal cavity could exhibit lower acoustic damping at intermediate gas fraction than at either endpoint.","test":"Measure damping versus gas fraction.","contrary_result":"Damping changes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"gas liquid cavity acoustic damping gas fraction experiment","selection_reason":"Gas fraction is independently adjustable."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0273","id":"S9-0273","volume":"900v9","title":"A rotating porous cylinder could separate vapor adsorption kinetics from liquid redistribution through harmonic phase.","prediction":"A rotating porous cylinder could separate vapor adsorption kinetics from liquid redistribution through harmonic phase.","test":"Compare gas-only and wet calibrations.","contrary":"Both mechanisms produce identical phases.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0273","hypothesis":"A rotating porous cylinder could separate vapor adsorption kinetics from liquid redistribution through harmonic phase.","test":"Compare gas-only and wet calibrations.","contrary_result":"Both mechanisms produce identical phases.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0274","id":"S9-0274","volume":"900v9","title":"A stretched transparent film could reveal residual solvent pockets through localized acoustic dispersion.","prediction":"A stretched transparent film could reveal residual solvent pockets through localized acoustic dispersion.","test":"Map dispersion and solvent independently.","contrary":"Anomalies track thickness only.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0274","hypothesis":"A stretched transparent film could reveal residual solvent pockets through localized acoustic dispersion.","test":"Map dispersion and solvent independently.","contrary_result":"Anomalies track thickness only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0275","id":"S9-0275","volume":"900v9","title":"A compressible droplet train could transmit concentration disturbances differently from pressure disturbances.","prediction":"A compressible droplet train could transmit concentration disturbances differently from pressure disturbances.","test":"Inject matched pulses and image transport.","contrary":"Both disturbances share one transfer function.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0275","hypothesis":"A compressible droplet train could transmit concentration disturbances differently from pressure disturbances.","test":"Inject matched pulses and image transport.","contrary_result":"Both disturbances share one transfer function.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0275","hypothesis":"A compressible droplet train could transmit concentration disturbances differently from pressure disturbances.","test":"Inject matched pulses and image transport.","contrary_result":"Both disturbances share one transfer function.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"droplet train concentration pulse pressure pulse dispersion experiment","selection_reason":"Two input perturbations permit transfer-function comparison."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0276","id":"S9-0276","volume":"900v9","title":"A curved ice membrane could focus frost deposition through strain-dependent vapor capture.","prediction":"A curved ice membrane could focus frost deposition through strain-dependent vapor capture.","test":"Map strain and deposited mass.","contrary":"Deposition follows temperature alone.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0276","hypothesis":"A curved ice membrane could focus frost deposition through strain-dependent vapor capture.","test":"Map strain and deposited mass.","contrary_result":"Deposition follows temperature alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0277","id":"S9-0277","volume":"900v9","title":"A confined suspension could recover optical transparency faster after an asymmetric shear reversal.","prediction":"A confined suspension could recover optical transparency faster after an asymmetric shear reversal.","test":"Compare matched shear-work histories.","contrary":"Recovery depends only on total strain.","layers":[1,2],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0277","hypothesis":"A confined suspension could recover optical transparency faster after an asymmetric shear reversal.","test":"Compare matched shear-work histories.","contrary_result":"Recovery depends only on total strain.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0277","hypothesis":"A confined suspension could recover optical transparency faster after an asymmetric shear reversal.","test":"Compare matched shear-work histories.","contrary_result":"Recovery depends only on total strain.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"suspension shear reversal optical transparency recovery experiment","selection_reason":"Matched shear histories provide strong controls."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0278","id":"S9-0278","volume":"900v9","title":"A metal powder bed could detect incipient neck formation through thermal fluctuations before conductivity changes.","prediction":"A metal powder bed could detect incipient neck formation through thermal fluctuations before conductivity changes.","test":"Measure fluctuation spectra and conductivity.","contrary":"Spectral changes follow conductivity changes.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0278","hypothesis":"A metal powder bed could detect incipient neck formation through thermal fluctuations before conductivity changes.","test":"Measure fluctuation spectra and conductivity.","contrary_result":"Spectral changes follow conductivity changes.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0279","id":"S9-0279","volume":"900v9","title":"A lubricated granular contact could exhibit minimum friction at a finite pause duration.","prediction":"A lubricated granular contact could exhibit minimum friction at a finite pause duration.","test":"Measure restart friction across pauses.","contrary":"Friction varies monotonically with pause duration.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0279","hypothesis":"A lubricated granular contact could exhibit minimum friction at a finite pause duration.","test":"Measure restart friction across pauses.","contrary_result":"Friction varies monotonically with pause duration.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0279","hypothesis":"A lubricated granular contact could exhibit minimum friction at a finite pause duration.","test":"Measure restart friction across pauses.","contrary_result":"Friction varies monotonically with pause duration.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"lubricated contact pause duration restart friction experiment","selection_reason":"Restart force is a direct observable."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0280","id":"S9-0280","volume":"900v9","title":"A porous salt bridge could separate two harmless ion mixtures through unequal crystallization induction delays.","prediction":"A porous salt bridge could separate two harmless ion mixtures through unequal crystallization induction delays.","test":"Measure breakthrough and precipitation.","contrary":"Breakthrough differences disappear after diffusivity matching.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0280","hypothesis":"A porous salt bridge could separate two harmless ion mixtures through unequal crystallization induction delays.","test":"Measure breakthrough and precipitation.","contrary_result":"Breakthrough differences disappear after diffusivity matching.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0281","id":"S9-0281","volume":"900v9","title":"A floating liquid lens could concentrate airborne neutral particles at its moving internal contact circle.","prediction":"A floating liquid lens could concentrate airborne neutral particles at its moving internal contact circle.","test":"Image deposition and circulation.","contrary":"Particles collect uniformly after area correction.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0281","hypothesis":"A floating liquid lens could concentrate airborne neutral particles at its moving internal contact circle.","test":"Image deposition and circulation.","contrary_result":"Particles collect uniformly after area correction.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0281","hypothesis":"A floating liquid lens could concentrate airborne neutral particles at its moving internal contact circle.","test":"Image deposition and circulation.","contrary_result":"Particles collect uniformly after area correction.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"floating liquid lens particle deposition circulation experiment","selection_reason":"Particle locations and circulation can be imaged together."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0282","id":"S9-0282","volume":"900v9","title":"A transparent aerogel could distinguish mechanical collapse from condensation through opposite depolarization changes.","prediction":"A transparent aerogel could distinguish mechanical collapse from condensation through opposite depolarization changes.","test":"Measure polarization during independent perturbations.","contrary":"Depolarization signatures coincide.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0282","hypothesis":"A transparent aerogel could distinguish mechanical collapse from condensation through opposite depolarization changes.","test":"Measure polarization during independent perturbations.","contrary_result":"Depolarization signatures coincide.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0283","id":"S9-0283","volume":"900v9","title":"A narrow vacuum gap could change a compliant plate's cooling rate before detectable mechanical contact.","prediction":"A narrow vacuum gap could change a compliant plate's cooling rate before detectable mechanical contact.","test":"Measure gap and thermal relaxation.","contrary":"Cooling changes require contact.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0283","hypothesis":"A narrow vacuum gap could change a compliant plate's cooling rate before detectable mechanical contact.","test":"Measure gap and thermal relaxation.","contrary_result":"Cooling changes require contact.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0284","id":"S9-0284","volume":"900v9","title":"A vibrating crystal pair could exchange energy preferentially through a shared vapor layer near condensation.","prediction":"A vibrating crystal pair could exchange energy preferentially through a shared vapor layer near condensation.","test":"Measure coupling versus humidity.","contrary":"Coupling is unchanged after gas-density correction.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0284","hypothesis":"A vibrating crystal pair could exchange energy preferentially through a shared vapor layer near condensation.","test":"Measure coupling versus humidity.","contrary_result":"Coupling is unchanged after gas-density correction.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0285","id":"S9-0285","volume":"900v9","title":"A wettable groove could accelerate a neighboring nonwettable groove's filling through elastic wall coupling.","prediction":"A wettable groove could accelerate a neighboring nonwettable groove's filling through elastic wall coupling.","test":"Track paired fronts and wall strain.","contrary":"Neighbors behave independently.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0285","hypothesis":"A wettable groove could accelerate a neighboring nonwettable groove's filling through elastic wall coupling.","test":"Track paired fronts and wall strain.","contrary_result":"Neighbors behave independently.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0285","hypothesis":"A wettable groove could accelerate a neighboring nonwettable groove's filling through elastic wall coupling.","test":"Track paired fronts and wall strain.","contrary_result":"Neighbors behave independently.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"wetting adjacent grooves elastic wall coupling experiment","selection_reason":"Coupled and isolated grooves provide direct controls."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0286","id":"S9-0286","volume":"900v9","title":"A solidifying droplet could eject an inclusion preferentially opposite its slowest cooling direction.","prediction":"A solidifying droplet could eject an inclusion preferentially opposite its slowest cooling direction.","test":"Image temperature and inclusion paths.","contrary":"Ejection follows gravity alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0286","hypothesis":"A solidifying droplet could eject an inclusion preferentially opposite its slowest cooling direction.","test":"Image temperature and inclusion paths.","contrary_result":"Ejection follows gravity alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0287","id":"S9-0287","volume":"900v9","title":"A packed bed could distinguish repeated weak shocks from one strong shock through contact-resonance distributions.","prediction":"A packed bed could distinguish repeated weak shocks from one strong shock through contact-resonance distributions.","test":"Match deposited energy and measure spectra.","contrary":"Distributions depend only on energy.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0287","hypothesis":"A packed bed could distinguish repeated weak shocks from one strong shock through contact-resonance distributions.","test":"Match deposited energy and measure spectra.","contrary_result":"Distributions depend only on energy.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0287","hypothesis":"A packed bed could distinguish repeated weak shocks from one strong shock through contact-resonance distributions.","test":"Match deposited energy and measure spectra.","contrary_result":"Distributions depend only on energy.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"granular impact history contact resonance experiment","selection_reason":"Energy-matched loading tests history dependence."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0288","id":"S9-0288","volume":"900v9","title":"A thin alkaline-earth carbonate layer could reveal dissolution-site migration through changing infrared polarization.","prediction":"A thin alkaline-earth carbonate layer could reveal dissolution-site migration through changing infrared polarization.","test":"Compare spectra with microscopy.","contrary":"Polarization changes follow total dissolved mass only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0288","hypothesis":"A thin alkaline-earth carbonate layer could reveal dissolution-site migration through changing infrared polarization.","test":"Compare spectra with microscopy.","contrary_result":"Polarization changes follow total dissolved mass only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0289","id":"S9-0289","volume":"900v9","title":"A quartz resonator could resolve vapor clustering from adsorption using a frequency-noise asymmetry.","prediction":"A quartz resonator could resolve vapor clustering from adsorption using a frequency-noise asymmetry.","test":"Measure noise alongside mass loading.","contrary":"Noise asymmetry follows instrument drift.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0289","hypothesis":"A quartz resonator could resolve vapor clustering from adsorption using a frequency-noise asymmetry.","test":"Measure noise alongside mass loading.","contrary_result":"Noise asymmetry follows instrument drift.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0290","id":"S9-0290","volume":"900v9","title":"A thermal wave could become direction dependent across a periodically opened liquid contact.","prediction":"A thermal wave could become direction dependent across a periodically opened liquid contact.","test":"Reverse excitation and measure phase.","contrary":"Transfer remains reciprocal under timed switching.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0290","hypothesis":"A thermal wave could become direction dependent across a periodically opened liquid contact.","test":"Reverse excitation and measure phase.","contrary_result":"Transfer remains reciprocal under timed switching.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0291","id":"S9-0291","volume":"900v9","title":"An oscillating drop could nucleate crystals near nodes rather than antinodes when concentration diffusion is slow.","prediction":"An oscillating drop could nucleate crystals near nodes rather than antinodes when concentration diffusion is slow.","test":"Register flow and nucleation positions.","contrary":"Nucleation follows maximum shear.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0291","hypothesis":"An oscillating drop could nucleate crystals near nodes rather than antinodes when concentration diffusion is slow.","test":"Register flow and nucleation positions.","contrary_result":"Nucleation follows maximum shear.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0292","id":"S9-0292","volume":"900v9","title":"A dry granular funnel could exhibit an acoustic warning of humidity-induced clogging before flow declines.","prediction":"A dry granular funnel could exhibit an acoustic warning of humidity-induced clogging before flow declines.","test":"Track humidity, sound, and discharge.","contrary":"Sound changes only after flow declines.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0292","hypothesis":"A dry granular funnel could exhibit an acoustic warning of humidity-induced clogging before flow declines.","test":"Track humidity, sound, and discharge.","contrary_result":"Sound changes only after flow declines.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0292","hypothesis":"A dry granular funnel could exhibit an acoustic warning of humidity-induced clogging before flow declines.","test":"Track humidity, sound, and discharge.","contrary_result":"Sound changes only after flow declines.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"granular funnel humidity acoustic clogging precursor experiment","selection_reason":"Flow and sound give independent event timing."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0293","id":"S9-0293","volume":"900v9","title":"A tilted magnetic field could alter vapor-bubble departure orientation in a paramagnetic liquid.","prediction":"A tilted magnetic field could alter vapor-bubble departure orientation in a paramagnetic liquid.","test":"Measure trajectories with thermal controls.","contrary":"Orientation is explained by temperature gradients.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0293","hypothesis":"A tilted magnetic field could alter vapor-bubble departure orientation in a paramagnetic liquid.","test":"Measure trajectories with thermal controls.","contrary_result":"Orientation is explained by temperature gradients.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0294","id":"S9-0294","volume":"900v9","title":"A buried optical grating could separate isotropic swelling from directional cracking through polarization splitting.","prediction":"A buried optical grating could separate isotropic swelling from directional cracking through polarization splitting.","test":"Calibrate both perturbations independently.","contrary":"Both produce the same splitting pattern.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0294","hypothesis":"A buried optical grating could separate isotropic swelling from directional cracking through polarization splitting.","test":"Calibrate both perturbations independently.","contrary_result":"Both produce the same splitting pattern.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0295","id":"S9-0295","volume":"900v9","title":"A tapered frost bridge could fail at its warm end even when its cold end is thinner.","prediction":"A tapered frost bridge could fail at its warm end even when its cold end is thinner.","test":"Map temperature, section, and failure.","contrary":"Failure always follows minimum section.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0295","hypothesis":"A tapered frost bridge could fail at its warm end even when its cold end is thinner.","test":"Map temperature, section, and failure.","contrary_result":"Failure always follows minimum section.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0295","hypothesis":"A tapered frost bridge could fail at its warm end even when its cold end is thinner.","test":"Map temperature, section, and failure.","contrary_result":"Failure always follows minimum section.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"frost bridge temperature fracture location experiment","selection_reason":"Temperature and cross-section compete in an explicit prediction."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0296","id":"S9-0296","volume":"900v9","title":"A concentrated nonliving colloid could show a delayed osmotic-pressure overshoot after removing a confining wall.","prediction":"A concentrated nonliving colloid could show a delayed osmotic-pressure overshoot after removing a confining wall.","test":"Measure pressure and concentration profiles.","contrary":"Pressure relaxes monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0296","hypothesis":"A concentrated nonliving colloid could show a delayed osmotic-pressure overshoot after removing a confining wall.","test":"Measure pressure and concentration profiles.","contrary_result":"Pressure relaxes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0297","id":"S9-0297","volume":"900v9","title":"A heated liquid filament could stabilize against breakup when a neighboring cold filament shares its vapor field.","prediction":"A heated liquid filament could stabilize against breakup when a neighboring cold filament shares its vapor field.","test":"Measure lifetimes at controlled separation.","contrary":"Lifetime changes vanish after heat correction.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0297","hypothesis":"A heated liquid filament could stabilize against breakup when a neighboring cold filament shares its vapor field.","test":"Measure lifetimes at controlled separation.","contrary_result":"Lifetime changes vanish after heat correction.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0297","hypothesis":"A heated liquid filament could stabilize against breakup when a neighboring cold filament shares its vapor field.","test":"Measure lifetimes at controlled separation.","contrary_result":"Lifetime changes vanish after heat correction.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"liquid filament neighboring filament evaporation stability experiment","selection_reason":"Controlled spacing tests a shared-vapor mechanism."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0298","id":"S9-0298","volume":"900v9","title":"A faceted droplet shell could encode impact direction in mode phases after visible deformation ends.","prediction":"A faceted droplet shell could encode impact direction in mode phases after visible deformation ends.","test":"Measure post-impact modal phases.","contrary":"Only impact magnitude remains recoverable.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0298","hypothesis":"A faceted droplet shell could encode impact direction in mode phases after visible deformation ends.","test":"Measure post-impact modal phases.","contrary_result":"Only impact magnitude remains recoverable.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0299","id":"S9-0299","volume":"900v9","title":"A ceramic grain boundary could conduct heat more effectively after reversible gas adsorption without changing electrical conductivity.","prediction":"A ceramic grain boundary could conduct heat more effectively after reversible gas adsorption without changing electrical conductivity.","test":"Measure both transport channels.","contrary":"Thermal changes track electrical changes.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0299","hypothesis":"A ceramic grain boundary could conduct heat more effectively after reversible gas adsorption without changing electrical conductivity.","test":"Measure both transport channels.","contrary_result":"Thermal changes track electrical changes.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0300","id":"S9-0300","volume":"900v9","title":"A particle-free liquid film could form a stable thickness minimum over a buried thermal resistor.","prediction":"A particle-free liquid film could form a stable thickness minimum over a buried thermal resistor.","test":"Map thickness and temperature.","contrary":"The minimum requires contamination.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0300","hypothesis":"A particle-free liquid film could form a stable thickness minimum over a buried thermal resistor.","test":"Map thickness and temperature.","contrary_result":"The minimum requires contamination.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0300","hypothesis":"A particle-free liquid film could form a stable thickness minimum over a buried thermal resistor.","test":"Map thickness and temperature.","contrary_result":"The minimum requires contamination.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"liquid film buried heater thickness thermocapillary experiment","selection_reason":"Temperature and thickness are independently measurable."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0301","id":"S9-0301","volume":"900v9","title":"A mechanically clamped optical crystal could shift its fluorescence lifetime differently from its emission wavelength.","prediction":"A mechanically clamped optical crystal could shift its fluorescence lifetime differently from its emission wavelength.","test":"Measure both during calibrated strain.","contrary":"Both changes are temperature artifacts.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0301","hypothesis":"A mechanically clamped optical crystal could shift its fluorescence lifetime differently from its emission wavelength.","test":"Measure both during calibrated strain.","contrary_result":"Both changes are temperature artifacts.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0302","id":"S9-0302","volume":"900v9","title":"A solute-depleted boundary layer could destabilize a rising bubble before its shape visibly changes.","prediction":"A solute-depleted boundary layer could destabilize a rising bubble before its shape visibly changes.","test":"Measure wake spectra and concentration.","contrary":"Instability follows visible deformation.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0302","hypothesis":"A solute-depleted boundary layer could destabilize a rising bubble before its shape visibly changes.","test":"Measure wake spectra and concentration.","contrary_result":"Instability follows visible deformation.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0303","id":"S9-0303","volume":"900v9","title":"An electrically isolated metal flake could rotate during asymmetric oxidation without net external charge transfer.","prediction":"An electrically isolated metal flake could rotate during asymmetric oxidation without net external charge transfer.","test":"Measure rotation and oxide thickness.","contrary":"Rotation requires external current.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0303","hypothesis":"An electrically isolated metal flake could rotate during asymmetric oxidation without net external charge transfer.","test":"Measure rotation and oxide thickness.","contrary_result":"Rotation requires external current.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0303","hypothesis":"An electrically isolated metal flake could rotate during asymmetric oxidation without net external charge transfer.","test":"Measure rotation and oxide thickness.","contrary_result":"Rotation requires external current.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"metal flake oxidation rotation experiment","selection_reason":"Rotation can be checked against oxide asymmetry."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0304","id":"S9-0304","volume":"900v9","title":"A nanofiber bundle could exhibit a humidity window of reduced vibration loss despite increasing water uptake.","prediction":"A nanofiber bundle could exhibit a humidity window of reduced vibration loss despite increasing water uptake.","test":"Measure ringdown and mass.","contrary":"Loss rises monotonically with uptake.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0304","hypothesis":"A nanofiber bundle could exhibit a humidity window of reduced vibration loss despite increasing water uptake.","test":"Measure ringdown and mass.","contrary_result":"Loss rises monotonically with uptake.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0305","id":"S9-0305","volume":"900v9","title":"A periodically shaded mineral surface could accumulate less frost than constant illumination at equal mean absorbed power.","prediction":"A periodically shaded mineral surface could accumulate less frost than constant illumination at equal mean absorbed power.","test":"Measure heat budgets and frost mass.","contrary":"Mass depends only on mean temperature.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0305","hypothesis":"A periodically shaded mineral surface could accumulate less frost than constant illumination at equal mean absorbed power.","test":"Measure heat budgets and frost mass.","contrary_result":"Mass depends only on mean temperature.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0305","hypothesis":"A periodically shaded mineral surface could accumulate less frost than constant illumination at equal mean absorbed power.","test":"Measure heat budgets and frost mass.","contrary_result":"Mass depends only on mean temperature.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"frost periodic illumination mean power experiment","selection_reason":"Equal absorbed energy supplies a fair comparison."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0306","id":"S9-0306","volume":"900v9","title":"A transparent crystal could reveal migrating point-defect populations through spatially delayed fluorescence recovery.","prediction":"A transparent crystal could reveal migrating point-defect populations through spatially delayed fluorescence recovery.","test":"Map recovery after localized illumination.","contrary":"Recovery is spatially uniform.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0306","hypothesis":"A transparent crystal could reveal migrating point-defect populations through spatially delayed fluorescence recovery.","test":"Map recovery after localized illumination.","contrary_result":"Recovery is spatially uniform.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0307","id":"S9-0307","volume":"900v9","title":"A soft particle entering a constriction could emit two pressure peaks whose separation estimates internal permeability.","prediction":"A soft particle entering a constriction could emit two pressure peaks whose separation estimates internal permeability.","test":"Measure pressure and independent permeability.","contrary":"Peak spacing follows external viscosity alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0307","hypothesis":"A soft particle entering a constriction could emit two pressure peaks whose separation estimates internal permeability.","test":"Measure pressure and independent permeability.","contrary_result":"Peak spacing follows external viscosity alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0308","id":"S9-0308","volume":"900v9","title":"A buoyant shell could separate internal leakage from external pressure change through two resonance shifts.","prediction":"A buoyant shell could separate internal leakage from external pressure change through two resonance shifts.","test":"Calibrate perturbations separately.","contrary":"Resonance signatures coincide.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0308","hypothesis":"A buoyant shell could separate internal leakage from external pressure change through two resonance shifts.","test":"Calibrate perturbations separately.","contrary_result":"Resonance signatures coincide.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0309","id":"S9-0309","volume":"900v9","title":"A magnetically aligned nonliving suspension could show a zero-crossing in optical birefringence during field removal.","prediction":"A magnetically aligned nonliving suspension could show a zero-crossing in optical birefringence during field removal.","test":"Measure orientation distributions and optics.","contrary":"Birefringence decays without sign reversal.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0309","hypothesis":"A magnetically aligned nonliving suspension could show a zero-crossing in optical birefringence during field removal.","test":"Measure orientation distributions and optics.","contrary_result":"Birefringence decays without sign reversal.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0310","id":"S9-0310","volume":"900v9","title":"A ceramic film could reject a propagating crack at a humidity-dependent angle through capillary prestress.","prediction":"A ceramic film could reject a propagating crack at a humidity-dependent angle through capillary prestress.","test":"Map crack paths and absorbed water.","contrary":"Angles ignore humidity after modulus correction.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0310","hypothesis":"A ceramic film could reject a propagating crack at a humidity-dependent angle through capillary prestress.","test":"Map crack paths and absorbed water.","contrary_result":"Angles ignore humidity after modulus correction.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0311","id":"S9-0311","volume":"900v9","title":"A rotating droplet could concentrate dissolved impurities near its poles despite outward inertial transport.","prediction":"A rotating droplet could concentrate dissolved impurities near its poles despite outward inertial transport.","test":"Map concentration and circulation.","contrary":"Impurities accumulate only at the equator.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0311","hypothesis":"A rotating droplet could concentrate dissolved impurities near its poles despite outward inertial transport.","test":"Map concentration and circulation.","contrary_result":"Impurities accumulate only at the equator.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0312","id":"S9-0312","volume":"900v9","title":"A salt crystal under cyclic pressure could show reversible changes in dissolution noise before mean rate changes.","prediction":"A salt crystal under cyclic pressure could show reversible changes in dissolution noise before mean rate changes.","test":"Measure high-frequency concentration signals.","contrary":"Noise changes track mean dissolution only.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0312","hypothesis":"A salt crystal under cyclic pressure could show reversible changes in dissolution noise before mean rate changes.","test":"Measure high-frequency concentration signals.","contrary_result":"Noise changes track mean dissolution only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0312","hypothesis":"A salt crystal under cyclic pressure could show reversible changes in dissolution noise before mean rate changes.","test":"Measure high-frequency concentration signals.","contrary_result":"Noise changes track mean dissolution only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"salt crystal cyclic pressure dissolution fluctuations experiment","selection_reason":"Noise can be analyzed separately from mean dissolution."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0313","id":"S9-0313","volume":"900v9","title":"A nonconducting liquid bridge could display a frequency band where electric forcing reduces its neck oscillations.","prediction":"A nonconducting liquid bridge could display a frequency band where electric forcing reduces its neck oscillations.","test":"Measure stability versus drive frequency.","contrary":"All frequencies amplify oscillations.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0313","hypothesis":"A nonconducting liquid bridge could display a frequency band where electric forcing reduces its neck oscillations.","test":"Measure stability versus drive frequency.","contrary_result":"All frequencies amplify oscillations.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0314","id":"S9-0314","volume":"900v9","title":"A frozen porous sample could exhibit a permeability maximum during partial thaw before bulk water saturation peaks.","prediction":"A frozen porous sample could exhibit a permeability maximum during partial thaw before bulk water saturation peaks.","test":"Measure flow and melt fraction.","contrary":"Permeability follows saturation monotonically.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0314","hypothesis":"A frozen porous sample could exhibit a permeability maximum during partial thaw before bulk water saturation peaks.","test":"Measure flow and melt fraction.","contrary_result":"Permeability follows saturation monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0314","hypothesis":"A frozen porous sample could exhibit a permeability maximum during partial thaw before bulk water saturation peaks.","test":"Measure flow and melt fraction.","contrary_result":"Permeability follows saturation monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"frozen porous material thaw permeability connectivity experiment","selection_reason":"Melt fraction and flow are measurable."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0315","id":"S9-0315","volume":"900v9","title":"A floating anisotropic grain could align perpendicular to imposed surface waves at one wavelength and parallel at another.","prediction":"A floating anisotropic grain could align perpendicular to imposed surface waves at one wavelength and parallel at another.","test":"Sweep wavelength and measure angle.","contrary":"Alignment does not switch.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0315","hypothesis":"A floating anisotropic grain could align perpendicular to imposed surface waves at one wavelength and parallel at another.","test":"Sweep wavelength and measure angle.","contrary_result":"Alignment does not switch.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0316","id":"S9-0316","volume":"900v9","title":"A thin gas film could amplify mechanical mode splitting of nearly touching plates without changing their static stiffness.","prediction":"A thin gas film could amplify mechanical mode splitting of nearly touching plates without changing their static stiffness.","test":"Measure spectra and static deflection.","contrary":"Splitting follows static stiffness alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0316","hypothesis":"A thin gas film could amplify mechanical mode splitting of nearly touching plates without changing their static stiffness.","test":"Measure spectra and static deflection.","contrary_result":"Splitting follows static stiffness alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0317","id":"S9-0317","volume":"900v9","title":"A transparent granular bed could reveal trapped gas connectivity through phase-sensitive optical scattering.","prediction":"A transparent granular bed could reveal trapped gas connectivity through phase-sensitive optical scattering.","test":"Compare scattering and tomographic connectivity.","contrary":"Only gas fraction predicts scattering.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0317","hypothesis":"A transparent granular bed could reveal trapped gas connectivity through phase-sensitive optical scattering.","test":"Compare scattering and tomographic connectivity.","contrary_result":"Only gas fraction predicts scattering.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0317","hypothesis":"A transparent granular bed could reveal trapped gas connectivity through phase-sensitive optical scattering.","test":"Compare scattering and tomographic connectivity.","contrary_result":"Only gas fraction predicts scattering.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"porous material gas connectivity optical scattering experiment","selection_reason":"Independent connectivity imaging can validate the optical proxy."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0318","id":"S9-0318","volume":"900v9","title":"A dissolving crystal with one sealed facet could generate alternating wake handedness under steady flow.","prediction":"A dissolving crystal with one sealed facet could generate alternating wake handedness under steady flow.","test":"Measure wake vorticity over time.","contrary":"Handedness remains fixed.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0318","hypothesis":"A dissolving crystal with one sealed facet could generate alternating wake handedness under steady flow.","test":"Measure wake vorticity over time.","contrary_result":"Handedness remains fixed.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0319","id":"S9-0319","volume":"900v9","title":"A dielectric film could show a reversible capacitance minimum during solvent exchange between equal-permittivity liquids.","prediction":"A dielectric film could show a reversible capacitance minimum during solvent exchange between equal-permittivity liquids.","test":"Measure composition profiles and capacitance.","contrary":"Capacitance remains constant.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0319","hypothesis":"A dielectric film could show a reversible capacitance minimum during solvent exchange between equal-permittivity liquids.","test":"Measure composition profiles and capacitance.","contrary_result":"Capacitance remains constant.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0319","hypothesis":"A dielectric film could show a reversible capacitance minimum during solvent exchange between equal-permittivity liquids.","test":"Measure composition profiles and capacitance.","contrary_result":"Capacitance remains constant.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"dielectric capacitance transient solvent exchange equal permittivity experiment","selection_reason":"Equal endpoint permittivity makes overshoot falsifiable."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0320","id":"S9-0320","volume":"900v9","title":"A heated mineral needle could deflect a nearby vapor stream enough to alter its own cooling oscillations.","prediction":"A heated mineral needle could deflect a nearby vapor stream enough to alter its own cooling oscillations.","test":"Measure flow and temperature phase.","contrary":"Oscillations persist under flow suppression.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0320","hypothesis":"A heated mineral needle could deflect a nearby vapor stream enough to alter its own cooling oscillations.","test":"Measure flow and temperature phase.","contrary_result":"Oscillations persist under flow suppression.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0321","id":"S9-0321","volume":"900v9","title":"A crystalline powder could retain a pressure pulse's duration in its later acoustic dispersion despite equal final density.","prediction":"A crystalline powder could retain a pressure pulse's duration in its later acoustic dispersion despite equal final density.","test":"Match density after differing pulses.","contrary":"Dispersion depends only on density.","layers":[1,2],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0321","hypothesis":"A crystalline powder could retain a pressure pulse's duration in its later acoustic dispersion despite equal final density.","test":"Match density after differing pulses.","contrary_result":"Dispersion depends only on density.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0321","hypothesis":"A crystalline powder could retain a pressure pulse's duration in its later acoustic dispersion despite equal final density.","test":"Match density after differing pulses.","contrary_result":"Dispersion depends only on density.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"powder pressure pulse acoustic dispersion density matched experiment","selection_reason":"Density matching removes an obvious alternative explanation."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0322","id":"S9-0322","volume":"900v9","title":"A lubricated wedge could distinguish liquid aging from evaporation through opposite restart-force asymmetries.","prediction":"A lubricated wedge could distinguish liquid aging from evaporation through opposite restart-force asymmetries.","test":"Measure mass loss and directional force.","contrary":"Both histories yield identical asymmetry.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0322","hypothesis":"A lubricated wedge could distinguish liquid aging from evaporation through opposite restart-force asymmetries.","test":"Measure mass loss and directional force.","contrary_result":"Both histories yield identical asymmetry.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0323","id":"S9-0323","volume":"900v9","title":"A hollow optical fiber could detect condensation location from unequal resonance linewidth changes.","prediction":"A hollow optical fiber could detect condensation location from unequal resonance linewidth changes.","test":"Move a controlled liquid plug.","contrary":"Linewidths reveal total liquid volume only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0323","hypothesis":"A hollow optical fiber could detect condensation location from unequal resonance linewidth changes.","test":"Move a controlled liquid plug.","contrary_result":"Linewidths reveal total liquid volume only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0324","id":"S9-0324","volume":"900v9","title":"A weakly stratified liquid could accelerate dissolution at an upper crystal face while slowing its lower face.","prediction":"A weakly stratified liquid could accelerate dissolution at an upper crystal face while slowing its lower face.","test":"Map local face velocities.","contrary":"Stratification shifts all faces equally.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0324","hypothesis":"A weakly stratified liquid could accelerate dissolution at an upper crystal face while slowing its lower face.","test":"Map local face velocities.","contrary_result":"Stratification shifts all faces equally.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0324","hypothesis":"A weakly stratified liquid could accelerate dissolution at an upper crystal face while slowing its lower face.","test":"Map local face velocities.","contrary_result":"Stratification shifts all faces equally.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"crystal dissolution stratified solution facet growth experiment","selection_reason":"Separate facets give spatially resolved predictions."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0325","id":"S9-0325","volume":"900v9","title":"A sealed liquid inclusion could stabilize a crystal's orientation during thermal cycling through delayed internal convection.","prediction":"A sealed liquid inclusion could stabilize a crystal's orientation during thermal cycling through delayed internal convection.","test":"Measure orientation and internal flow.","contrary":"Stabilization persists without convection.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0325","hypothesis":"A sealed liquid inclusion could stabilize a crystal's orientation during thermal cycling through delayed internal convection.","test":"Measure orientation and internal flow.","contrary_result":"Stabilization persists without convection.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0326","id":"S9-0326","volume":"900v9","title":"A porous conductor could show greater thermoelectric noise during drainage than imbibition at equal saturation.","prediction":"A porous conductor could show greater thermoelectric noise during drainage than imbibition at equal saturation.","test":"Measure noise with identical temperature fields.","contrary":"Noise depends only on saturation.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0326","hypothesis":"A porous conductor could show greater thermoelectric noise during drainage than imbibition at equal saturation.","test":"Measure noise with identical temperature fields.","contrary_result":"Noise depends only on saturation.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0327","id":"S9-0327","volume":"900v9","title":"A falling ice grain could change its acoustic emission spectrum before transitioning from sublimation to melting.","prediction":"A falling ice grain could change its acoustic emission spectrum before transitioning from sublimation to melting.","test":"Synchronize thermal and acoustic measurements.","contrary":"Spectral shifts follow visible melt.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0327","hypothesis":"A falling ice grain could change its acoustic emission spectrum before transitioning from sublimation to melting.","test":"Synchronize thermal and acoustic measurements.","contrary_result":"Spectral shifts follow visible melt.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0328","id":"S9-0328","volume":"900v9","title":"A ring-shaped liquid bridge could trap a circulating concentration pulse without net bulk circulation.","prediction":"A ring-shaped liquid bridge could trap a circulating concentration pulse without net bulk circulation.","test":"Map tracer concentration and flow.","contrary":"Pulse requires net fluid rotation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0328","hypothesis":"A ring-shaped liquid bridge could trap a circulating concentration pulse without net bulk circulation.","test":"Map tracer concentration and flow.","contrary_result":"Pulse requires net fluid rotation.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0329","id":"S9-0329","volume":"900v9","title":"A thin brittle coating could localize hidden substrate creep through changes in scattered ultrasonic polarization.","prediction":"A thin brittle coating could localize hidden substrate creep through changes in scattered ultrasonic polarization.","test":"Compare ultrasound with independent creep maps.","contrary":"Changes follow coating damage alone.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0329","hypothesis":"A thin brittle coating could localize hidden substrate creep through changes in scattered ultrasonic polarization.","test":"Compare ultrasound with independent creep maps.","contrary_result":"Changes follow coating damage alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0330","id":"S9-0330","volume":"900v9","title":"A flowing emulsion could have a concentration interval where increasing droplet size reduces acoustic attenuation.","prediction":"A flowing emulsion could have a concentration interval where increasing droplet size reduces acoustic attenuation.","test":"Measure size, fraction, and attenuation.","contrary":"Attenuation increases throughout.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0330","hypothesis":"A flowing emulsion could have a concentration interval where increasing droplet size reduces acoustic attenuation.","test":"Measure size, fraction, and attenuation.","contrary_result":"Attenuation increases throughout.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0331","id":"S9-0331","volume":"900v9","title":"A locally heated magnetic fluid could reverse an interface wave's propagation direction without reversing the field.","prediction":"A locally heated magnetic fluid could reverse an interface wave's propagation direction without reversing the field.","test":"Measure wave dispersion and flow.","contrary":"Apparent reversal is bulk advection only.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0331","hypothesis":"A locally heated magnetic fluid could reverse an interface wave's propagation direction without reversing the field.","test":"Measure wave dispersion and flow.","contrary_result":"Apparent reversal is bulk advection only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0332","id":"S9-0332","volume":"900v9","title":"A pressure-loaded porous plate could produce a transient cooling front through gas desorption.","prediction":"A pressure-loaded porous plate could produce a transient cooling front through gas desorption.","test":"Measure temperature and released gas.","contrary":"Cooling is explained by elastic work alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0332","hypothesis":"A pressure-loaded porous plate could produce a transient cooling front through gas desorption.","test":"Measure temperature and released gas.","contrary_result":"Cooling is explained by elastic work alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0333","id":"S9-0333","volume":"900v9","title":"A supported ice film could exhibit bending relaxation faster than its temperature equilibration through grain-boundary sliding.","prediction":"A supported ice film could exhibit bending relaxation faster than its temperature equilibration through grain-boundary sliding.","test":"Measure curvature and temperature.","contrary":"Curvature follows temperature without extra relaxation.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0333","hypothesis":"A supported ice film could exhibit bending relaxation faster than its temperature equilibration through grain-boundary sliding.","test":"Measure curvature and temperature.","contrary_result":"Curvature follows temperature without extra relaxation.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0334","id":"S9-0334","volume":"900v9","title":"A charged droplet could distinguish ambient ion polarity through opposite changes in quadrupole-mode damping.","prediction":"A charged droplet could distinguish ambient ion polarity through opposite changes in quadrupole-mode damping.","test":"Expose controlled ion populations.","contrary":"Only total ion density affects damping.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0334","hypothesis":"A charged droplet could distinguish ambient ion polarity through opposite changes in quadrupole-mode damping.","test":"Expose controlled ion populations.","contrary_result":"Only total ion density affects damping.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0335","id":"S9-0335","volume":"900v9","title":"A metal-oxide junction could show a temporary photocurrent reversal during controlled vapor displacement.","prediction":"A metal-oxide junction could show a temporary photocurrent reversal during controlled vapor displacement.","test":"Measure composition and transient current.","contrary":"Reversal requires irreversible chemistry.","layers":[1,2],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0335","hypothesis":"A metal-oxide junction could show a temporary photocurrent reversal during controlled vapor displacement.","test":"Measure composition and transient current.","contrary_result":"Reversal requires irreversible chemistry.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0335","hypothesis":"A metal-oxide junction could show a temporary photocurrent reversal during controlled vapor displacement.","test":"Measure composition and transient current.","contrary_result":"Reversal requires irreversible chemistry.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"metal oxide vapor photocurrent reversal experiment","selection_reason":"Transient current polarity is directly measurable."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0336","id":"S9-0336","volume":"900v9","title":"A powder's response to weak acoustic forcing could identify closed pores before bulk density changes.","prediction":"A powder's response to weak acoustic forcing could identify closed pores before bulk density changes.","test":"Compare acoustic response and tomography.","contrary":"Response follows bulk density only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0336","hypothesis":"A powder's response to weak acoustic forcing could identify closed pores before bulk density changes.","test":"Compare acoustic response and tomography.","contrary_result":"Response follows bulk density only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0337","id":"S9-0337","volume":"900v9","title":"A confined liquid crystal could develop alternating defect motion under a steady thermal gradient.","prediction":"A confined liquid crystal could develop alternating defect motion under a steady thermal gradient.","test":"Track defects and temperature stability.","contrary":"Motion remains stationary or unidirectional.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0337","hypothesis":"A confined liquid crystal could develop alternating defect motion under a steady thermal gradient.","test":"Track defects and temperature stability.","contrary_result":"Motion remains stationary or unidirectional.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0338","id":"S9-0338","volume":"900v9","title":"A gradually oxidizing wire could shift a torsional resonance before its longitudinal resonance changes measurably.","prediction":"A gradually oxidizing wire could shift a torsional resonance before its longitudinal resonance changes measurably.","test":"Measure both with mass calibration.","contrary":"Both follow the same mass-loading curve.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0338","hypothesis":"A gradually oxidizing wire could shift a torsional resonance before its longitudinal resonance changes measurably.","test":"Measure both with mass calibration.","contrary_result":"Both follow the same mass-loading curve.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0339","id":"S9-0339","volume":"900v9","title":"A transparent salt crust could release stored elastic energy through dissolution-driven pore opening.","prediction":"A transparent salt crust could release stored elastic energy through dissolution-driven pore opening.","test":"Map strain release and pore growth.","contrary":"Relaxation follows uniform modulus loss only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0339","hypothesis":"A transparent salt crust could release stored elastic energy through dissolution-driven pore opening.","test":"Map strain release and pore growth.","contrary_result":"Relaxation follows uniform modulus loss only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0340","id":"S9-0340","volume":"900v9","title":"A two-liquid interface could suppress bubble collapse sound when its deformation time matches collapse duration.","prediction":"A two-liquid interface could suppress bubble collapse sound when its deformation time matches collapse duration.","test":"Measure interface motion and pressure.","contrary":"Suppression depends only on acoustic impedance.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0340","hypothesis":"A two-liquid interface could suppress bubble collapse sound when its deformation time matches collapse duration.","test":"Measure interface motion and pressure.","contrary_result":"Suppression depends only on acoustic impedance.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0341","id":"S9-0341","volume":"900v9","title":"A ceramic cavity could discriminate adsorbed water from structural hydroxyl changes through recovery under dry pressure cycling.","prediction":"A ceramic cavity could discriminate adsorbed water from structural hydroxyl changes through recovery under dry pressure cycling.","test":"Measure dielectric relaxation and spectroscopy.","contrary":"Both states recover identically.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0341","hypothesis":"A ceramic cavity could discriminate adsorbed water from structural hydroxyl changes through recovery under dry pressure cycling.","test":"Measure dielectric relaxation and spectroscopy.","contrary_result":"Both states recover identically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0342","id":"S9-0342","volume":"900v9","title":"A thermally expanding particle could migrate through a symmetric granular bed under an asymmetric heating waveform.","prediction":"A thermally expanding particle could migrate through a symmetric granular bed under an asymmetric heating waveform.","test":"Track displacement and temperature.","contrary":"Motion vanishes after convection control.","layers":[1,2],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0342","hypothesis":"A thermally expanding particle could migrate through a symmetric granular bed under an asymmetric heating waveform.","test":"Track displacement and temperature.","contrary_result":"Motion vanishes after convection control.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0342","hypothesis":"A thermally expanding particle could migrate through a symmetric granular bed under an asymmetric heating waveform.","test":"Track displacement and temperature.","contrary_result":"Motion vanishes after convection control.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"thermally cycled particle granular migration experiment","selection_reason":"Net displacement can be separated from thermal drift."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0343","id":"S9-0343","volume":"900v9","title":"A nearly spherical ice shell could buckle at a location selected by internal liquid circulation.","prediction":"A nearly spherical ice shell could buckle at a location selected by internal liquid circulation.","test":"Measure circulation and buckling positions.","contrary":"Thickness variations fully predict failure.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0343","hypothesis":"A nearly spherical ice shell could buckle at a location selected by internal liquid circulation.","test":"Measure circulation and buckling positions.","contrary_result":"Thickness variations fully predict failure.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0344","id":"S9-0344","volume":"900v9","title":"A narrow channel could exhibit a maximum in dissolved-gas delivery at intermediate wall roughness.","prediction":"A narrow channel could exhibit a maximum in dissolved-gas delivery at intermediate wall roughness.","test":"Measure gas flux across roughness series.","contrary":"Flux changes monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0344","hypothesis":"A narrow channel could exhibit a maximum in dissolved-gas delivery at intermediate wall roughness.","test":"Measure gas flux across roughness series.","contrary_result":"Flux changes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0345","id":"S9-0345","volume":"900v9","title":"A vibrating mineral slab could reveal interfacial water thickness through a reversal in amplitude-dependent damping.","prediction":"A vibrating mineral slab could reveal interfacial water thickness through a reversal in amplitude-dependent damping.","test":"Measure film thickness and nonlinear damping.","contrary":"Reversal persists without water.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0345","hypothesis":"A vibrating mineral slab could reveal interfacial water thickness through a reversal in amplitude-dependent damping.","test":"Measure film thickness and nonlinear damping.","contrary_result":"Reversal persists without water.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0346","id":"S9-0346","volume":"900v9","title":"A coated droplet could undergo delayed shape recovery because shell solvent and core temperature equilibrate in opposite directions.","prediction":"A coated droplet could undergo delayed shape recovery because shell solvent and core temperature equilibrate in opposite directions.","test":"Measure both state variables.","contrary":"One relaxation process explains the shape.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0346","hypothesis":"A coated droplet could undergo delayed shape recovery because shell solvent and core temperature equilibrate in opposite directions.","test":"Measure both state variables.","contrary_result":"One relaxation process explains the shape.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0347","id":"S9-0347","volume":"900v9","title":"A dry salt powder could become optically more transparent before deliquescence through contact-neck restructuring.","prediction":"A dry salt powder could become optically more transparent before deliquescence through contact-neck restructuring.","test":"Measure transmission and water uptake.","contrary":"Transparency changes require liquid formation.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0347","hypothesis":"A dry salt powder could become optically more transparent before deliquescence through contact-neck restructuring.","test":"Measure transmission and water uptake.","contrary_result":"Transparency changes require liquid formation.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0347","hypothesis":"A dry salt powder could become optically more transparent before deliquescence through contact-neck restructuring.","test":"Measure transmission and water uptake.","contrary_result":"Transparency changes require liquid formation.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"salt powder humidity optical transparency deliquescence experiment","selection_reason":"Uptake and optical changes can be timed separately."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0348","id":"S9-0348","volume":"900v9","title":"A shallow acoustic cavity could detect one-sided corrosion by coupling symmetry-forbidden modes.","prediction":"A shallow acoustic cavity could detect one-sided corrosion by coupling symmetry-forbidden modes.","test":"Measure mode shapes and corrosion maps.","contrary":"New modes arise equally from uniform thinning.","layers":[1,2],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0348","hypothesis":"A shallow acoustic cavity could detect one-sided corrosion by coupling symmetry-forbidden modes.","test":"Measure mode shapes and corrosion maps.","contrary_result":"New modes arise equally from uniform thinning.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0348","hypothesis":"A shallow acoustic cavity could detect one-sided corrosion by coupling symmetry-forbidden modes.","test":"Measure mode shapes and corrosion maps.","contrary_result":"New modes arise equally from uniform thinning.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"acoustic cavity corrosion symmetry forbidden modes experiment","selection_reason":"Known asymmetric and uniform thinning provide controls."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0349","id":"S9-0349","volume":"900v9","title":"A wet particle cluster could release trapped air in size order opposite its pore-throat ordering.","prediction":"A wet particle cluster could release trapped air in size order opposite its pore-throat ordering.","test":"Image bubble release and connectivity.","contrary":"Release follows throat radius monotonically.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0349","hypothesis":"A wet particle cluster could release trapped air in size order opposite its pore-throat ordering.","test":"Image bubble release and connectivity.","contrary_result":"Release follows throat radius monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0350","id":"S9-0350","volume":"900v9","title":"A crystal subjected to alternating weak illumination could develop a spatially shifted luminescence maximum through trap diffusion.","prediction":"A crystal subjected to alternating weak illumination could develop a spatially shifted luminescence maximum through trap diffusion.","test":"Map phase-resolved emission.","contrary":"Maximum remains at the illuminated center.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0350","hypothesis":"A crystal subjected to alternating weak illumination could develop a spatially shifted luminescence maximum through trap diffusion.","test":"Map phase-resolved emission.","contrary_result":"Maximum remains at the illuminated center.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0351","id":"S9-0351","volume":"900v9","title":"A thin lubricant film could show lower restart friction after a brief cooling pulse despite increased viscosity.","prediction":"A thin lubricant film could show lower restart friction after a brief cooling pulse despite increased viscosity.","test":"Measure temperature and friction histories.","contrary":"Friction follows instantaneous viscosity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0351","hypothesis":"A thin lubricant film could show lower restart friction after a brief cooling pulse despite increased viscosity.","test":"Measure temperature and friction histories.","contrary_result":"Friction follows instantaneous viscosity.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0352","id":"S9-0352","volume":"900v9","title":"A glass microsphere could distinguish absorbed vapor from surface condensation through polarization-dependent resonance noise.","prediction":"A glass microsphere could distinguish absorbed vapor from surface condensation through polarization-dependent resonance noise.","test":"Calibrate both uptake routes.","contrary":"Noise statistics coincide.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0352","hypothesis":"A glass microsphere could distinguish absorbed vapor from surface condensation through polarization-dependent resonance noise.","test":"Calibrate both uptake routes.","contrary_result":"Noise statistics coincide.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0353","id":"S9-0353","volume":"900v9","title":"A gas-permeable membrane could show a pressure overshoot when two gases exchange at zero initial total-pressure difference.","prediction":"A gas-permeable membrane could show a pressure overshoot when two gases exchange at zero initial total-pressure difference.","test":"Measure composition and pressure.","contrary":"Total pressure remains constant.","layers":[1,2],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0353","hypothesis":"A gas-permeable membrane could show a pressure overshoot when two gases exchange at zero initial total-pressure difference.","test":"Measure composition and pressure.","contrary_result":"Total pressure remains constant.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0353","hypothesis":"A gas-permeable membrane could show a pressure overshoot when two gases exchange at zero initial total-pressure difference.","test":"Measure composition and pressure.","contrary_result":"Total pressure remains constant.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"gas permeable membrane exchange transient total pressure experiment","selection_reason":"Different gas permeabilities predict a measurable transient."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0354","id":"S9-0354","volume":"900v9","title":"A pair of dissolving grains could repel hydrodynamically before their concentration boundary layers overlap optically.","prediction":"A pair of dissolving grains could repel hydrodynamically before their concentration boundary layers overlap optically.","test":"Measure grain motion and concentration sensitivity.","contrary":"Motion begins only after detected overlap.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0354","hypothesis":"A pair of dissolving grains could repel hydrodynamically before their concentration boundary layers overlap optically.","test":"Measure grain motion and concentration sensitivity.","contrary_result":"Motion begins only after detected overlap.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0355","id":"S9-0355","volume":"900v9","title":"A conducting ceramic could reveal oxygen-vacancy redistribution through opposite drift in two noise frequency bands.","prediction":"A conducting ceramic could reveal oxygen-vacancy redistribution through opposite drift in two noise frequency bands.","test":"Measure noise and independent defect profiles.","contrary":"Both bands drift together.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0355","hypothesis":"A conducting ceramic could reveal oxygen-vacancy redistribution through opposite drift in two noise frequency bands.","test":"Measure noise and independent defect profiles.","contrary_result":"Both bands drift together.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0356","id":"S9-0356","volume":"900v9","title":"A sloping frozen film could transport inclusions uphill during thermal cycling through asymmetric melt pockets.","prediction":"A sloping frozen film could transport inclusions uphill during thermal cycling through asymmetric melt pockets.","test":"Track particles with melt imaging.","contrary":"Net displacement follows gravity.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0356","hypothesis":"A sloping frozen film could transport inclusions uphill during thermal cycling through asymmetric melt pockets.","test":"Track particles with melt imaging.","contrary_result":"Net displacement follows gravity.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0357","id":"S9-0357","volume":"900v9","title":"A soft-walled cavity could lower liquid nucleation pressure at intermediate wall stiffness.","prediction":"A soft-walled cavity could lower liquid nucleation pressure at intermediate wall stiffness.","test":"Measure onset distributions across stiffness.","contrary":"Onset changes monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0357","hypothesis":"A soft-walled cavity could lower liquid nucleation pressure at intermediate wall stiffness.","test":"Measure onset distributions across stiffness.","contrary_result":"Onset changes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0358","id":"S9-0358","volume":"900v9","title":"A quartz surface could retain adsorption-site anisotropy after elastic strain is removed.","prediction":"A quartz surface could retain adsorption-site anisotropy after elastic strain is removed.","test":"Map uptake before strain, during strain, and after release.","contrary":"Anisotropy disappears immediately.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0358","hypothesis":"A quartz surface could retain adsorption-site anisotropy after elastic strain is removed.","test":"Map uptake before strain, during strain, and after release.","contrary_result":"Anisotropy disappears immediately.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0359","id":"S9-0359","volume":"900v9","title":"A submerged rough plate could reduce settling-particle capture when weakly oscillated below resuspension threshold.","prediction":"A submerged rough plate could reduce settling-particle capture when weakly oscillated below resuspension threshold.","test":"Measure arrivals and retained particles.","contrary":"Capture remains unchanged.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0359","hypothesis":"A submerged rough plate could reduce settling-particle capture when weakly oscillated below resuspension threshold.","test":"Measure arrivals and retained particles.","contrary_result":"Capture remains unchanged.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0360","id":"S9-0360","volume":"900v9","title":"A hollow salt crystal could whistle ultrasonically during dissolution when an internal gas vent opens.","prediction":"A hollow salt crystal could whistle ultrasonically during dissolution when an internal gas vent opens.","test":"Synchronize sound, gas flow, and imaging.","contrary":"Sound is unrelated to vent opening.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0360","hypothesis":"A hollow salt crystal could whistle ultrasonically during dissolution when an internal gas vent opens.","test":"Synchronize sound, gas flow, and imaging.","contrary_result":"Sound is unrelated to vent opening.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0361","id":"S9-0361","volume":"900v9","title":"A water-wet glass wedge could distinguish dissolved salt from temperature through two independent contact-line relaxation modes.","prediction":"A water-wet glass wedge could distinguish dissolved salt from temperature through two independent contact-line relaxation modes.","test":"Calibrate perturbations separately.","contrary":"Relaxation modes remain inseparable.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0361","hypothesis":"A water-wet glass wedge could distinguish dissolved salt from temperature through two independent contact-line relaxation modes.","test":"Calibrate perturbations separately.","contrary_result":"Relaxation modes remain inseparable.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0362","id":"S9-0362","volume":"900v9","title":"A granular disk could have a minimum thermal resistance at a finite vibration amplitude below rearrangement onset.","prediction":"A granular disk could have a minimum thermal resistance at a finite vibration amplitude below rearrangement onset.","test":"Measure contacts and heat flow.","contrary":"Thermal resistance changes only after rearrangement.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0362","hypothesis":"A granular disk could have a minimum thermal resistance at a finite vibration amplitude below rearrangement onset.","test":"Measure contacts and heat flow.","contrary_result":"Thermal resistance changes only after rearrangement.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0363","id":"S9-0363","volume":"900v9","title":"A semiconducting powder could exhibit reversible illumination-induced changes in gas permeability through surface charging.","prediction":"A semiconducting powder could exhibit reversible illumination-induced changes in gas permeability through surface charging.","test":"Measure charge and flow with temperature control.","contrary":"Flow changes follow heating only.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0363","hypothesis":"A semiconducting powder could exhibit reversible illumination-induced changes in gas permeability through surface charging.","test":"Measure charge and flow with temperature control.","contrary_result":"Flow changes follow heating only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0364","id":"S9-0364","volume":"900v9","title":"A liquid-coated fiber could develop alternating thick and thin segments under constant axial strain through delayed drainage.","prediction":"A liquid-coated fiber could develop alternating thick and thin segments under constant axial strain through delayed drainage.","test":"Image thickness and strain.","contrary":"Segmentation requires strain variation.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0364","hypothesis":"A liquid-coated fiber could develop alternating thick and thin segments under constant axial strain through delayed drainage.","test":"Image thickness and strain.","contrary_result":"Segmentation requires strain variation.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0365","id":"S9-0365","volume":"900v9","title":"A partially frozen electrolyte could show a conductivity maximum as disconnected liquid pockets first join.","prediction":"A partially frozen electrolyte could show a conductivity maximum as disconnected liquid pockets first join.","test":"Measure connectivity and conductivity during thaw.","contrary":"Conductivity follows melt fraction without a distinct maximum.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0365","hypothesis":"A partially frozen electrolyte could show a conductivity maximum as disconnected liquid pockets first join.","test":"Measure connectivity and conductivity during thaw.","contrary_result":"Conductivity follows melt fraction without a distinct maximum.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0366","id":"S9-0366","volume":"900v9","title":"A falling droplet pair could exchange dissolved volatile material asymmetrically without coalescing.","prediction":"A falling droplet pair could exchange dissolved volatile material asymmetrically without coalescing.","test":"Measure each droplet's composition.","contrary":"Exchange remains symmetric after size correction.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0366","hypothesis":"A falling droplet pair could exchange dissolved volatile material asymmetrically without coalescing.","test":"Measure each droplet's composition.","contrary_result":"Exchange remains symmetric after size correction.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0367","id":"S9-0367","volume":"900v9","title":"A weak magnetic field could stabilize the orientation of a paramagnetic crystal at a dissolving interface.","prediction":"A weak magnetic field could stabilize the orientation of a paramagnetic crystal at a dissolving interface.","test":"Measure orientation fluctuations and dissolution.","contrary":"Fluctuations are unchanged after flow correction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0367","hypothesis":"A weak magnetic field could stabilize the orientation of a paramagnetic crystal at a dissolving interface.","test":"Measure orientation fluctuations and dissolution.","contrary_result":"Fluctuations are unchanged after flow correction.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0368","id":"S9-0368","volume":"900v9","title":"A porous optical plate could reveal capillary condensation through a temporary narrowing of scattered-angle distributions.","prediction":"A porous optical plate could reveal capillary condensation through a temporary narrowing of scattered-angle distributions.","test":"Measure angular scattering and uptake.","contrary":"Distribution only broadens.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0368","hypothesis":"A porous optical plate could reveal capillary condensation through a temporary narrowing of scattered-angle distributions.","test":"Measure angular scattering and uptake.","contrary_result":"Distribution only broadens.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0369","id":"S9-0369","volume":"900v9","title":"A thin metal film could distinguish reversible adsorbate stress from permanent oxidation through cyclic resonance-loop closure.","prediction":"A thin metal film could distinguish reversible adsorbate stress from permanent oxidation through cyclic resonance-loop closure.","test":"Measure repeated adsorption cycles.","contrary":"Both mechanisms yield equally closed loops.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0369","hypothesis":"A thin metal film could distinguish reversible adsorbate stress from permanent oxidation through cyclic resonance-loop closure.","test":"Measure repeated adsorption cycles.","contrary_result":"Both mechanisms yield equally closed loops.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0369","hypothesis":"A thin metal film could distinguish reversible adsorbate stress from permanent oxidation through cyclic resonance-loop closure.","test":"Measure repeated adsorption cycles.","contrary_result":"Both mechanisms yield equally closed loops.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"metal film adsorption oxidation resonance hysteresis experiment","selection_reason":"Repeated reversible cycles test loop closure."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0370","id":"S9-0370","volume":"900v9","title":"A narrow bubble channel could exhibit alternating bubble sizes solely from elastic reservoir relaxation.","prediction":"A narrow bubble channel could exhibit alternating bubble sizes solely from elastic reservoir relaxation.","test":"Hold gas supply constant and vary reservoir stiffness.","contrary":"Alternation requires supply fluctuations.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0370","hypothesis":"A narrow bubble channel could exhibit alternating bubble sizes solely from elastic reservoir relaxation.","test":"Hold gas supply constant and vary reservoir stiffness.","contrary_result":"Alternation requires supply fluctuations.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0371","id":"S9-0371","volume":"900v9","title":"A solid electrolyte could retain the ordering of temperature and voltage pulses in its subsequent relaxation current.","prediction":"A solid electrolyte could retain the ordering of temperature and voltage pulses in its subsequent relaxation current.","test":"Exchange pulse order at matched endpoints.","contrary":"Relaxation depends only on final state.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0371","hypothesis":"A solid electrolyte could retain the ordering of temperature and voltage pulses in its subsequent relaxation current.","test":"Exchange pulse order at matched endpoints.","contrary_result":"Relaxation depends only on final state.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0372","id":"S9-0372","volume":"900v9","title":"A dense particle layer could transmit a shear impulse faster after slight dilation while transmitting compression more slowly.","prediction":"A dense particle layer could transmit a shear impulse faster after slight dilation while transmitting compression more slowly.","test":"Measure both wave speeds.","contrary":"Both speeds change together.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0372","hypothesis":"A dense particle layer could transmit a shear impulse faster after slight dilation while transmitting compression more slowly.","test":"Measure both wave speeds.","contrary_result":"Both speeds change together.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0373","id":"S9-0373","volume":"900v9","title":"A textured ceramic could switch preferred frost growth direction during one steady cooling interval.","prediction":"A textured ceramic could switch preferred frost growth direction during one steady cooling interval.","test":"Track temperature and crystal orientation.","contrary":"Direction remains fixed.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0373","hypothesis":"A textured ceramic could switch preferred frost growth direction during one steady cooling interval.","test":"Track temperature and crystal orientation.","contrary_result":"Direction remains fixed.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0374","id":"S9-0374","volume":"900v9","title":"A levitated mineral particle could reveal internal liquid inclusions through temperature-dependent rotational damping.","prediction":"A levitated mineral particle could reveal internal liquid inclusions through temperature-dependent rotational damping.","test":"Measure damping across reversible warming.","contrary":"Damping tracks surrounding gas only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0374","hypothesis":"A levitated mineral particle could reveal internal liquid inclusions through temperature-dependent rotational damping.","test":"Measure damping across reversible warming.","contrary_result":"Damping tracks surrounding gas only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0375","id":"S9-0375","volume":"900v9","title":"A liquid annulus could act as an acoustic notch filter through its free-surface circulation time.","prediction":"A liquid annulus could act as an acoustic notch filter through its free-surface circulation time.","test":"Measure transfer versus annulus dimensions.","contrary":"Notch frequencies follow acoustic path length alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0375","hypothesis":"A liquid annulus could act as an acoustic notch filter through its free-surface circulation time.","test":"Measure transfer versus annulus dimensions.","contrary_result":"Notch frequencies follow acoustic path length alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0376","id":"S9-0376","volume":"900v9","title":"A thin crystal coating could lower evaporation noise without changing mean evaporation rate.","prediction":"A thin crystal coating could lower evaporation noise without changing mean evaporation rate.","test":"Measure fluctuations and mean mass loss.","contrary":"Noise reduction always accompanies reduced mean loss.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0376","hypothesis":"A thin crystal coating could lower evaporation noise without changing mean evaporation rate.","test":"Measure fluctuations and mean mass loss.","contrary_result":"Noise reduction always accompanies reduced mean loss.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0377","id":"S9-0377","volume":"900v9","title":"A wet sand interface could preferentially transmit one ultrasonic polarization during a moving drainage front.","prediction":"A wet sand interface could preferentially transmit one ultrasonic polarization during a moving drainage front.","test":"Measure polarization and front position.","contrary":"Polarization depends only on average saturation.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0377","hypothesis":"A wet sand interface could preferentially transmit one ultrasonic polarization during a moving drainage front.","test":"Measure polarization and front position.","contrary_result":"Polarization depends only on average saturation.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0378","id":"S9-0378","volume":"900v9","title":"A polymer-free colloidal film could develop a reversible conductivity hysteresis through particle rotation rather than contact rupture.","prediction":"A polymer-free colloidal film could develop a reversible conductivity hysteresis through particle rotation rather than contact rupture.","test":"Image orientation and contact continuity.","contrary":"Hysteresis requires broken contacts.","layers":[1,2],"categories":["physical","energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0378","hypothesis":"A polymer-free colloidal film could develop a reversible conductivity hysteresis through particle rotation rather than contact rupture.","test":"Image orientation and contact continuity.","contrary_result":"Hysteresis requires broken contacts.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0378","hypothesis":"A polymer-free colloidal film could develop a reversible conductivity hysteresis through particle rotation rather than contact rupture.","test":"Image orientation and contact continuity.","contrary_result":"Hysteresis requires broken contacts.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"colloidal film conductivity orientation contact hysteresis experiment","selection_reason":"Imaging can test whether contacts remain intact."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0379","id":"S9-0379","volume":"900v9","title":"A cooling gas bubble could flatten a neighboring liquid temperature gradient through transient expansion-driven circulation.","prediction":"A cooling gas bubble could flatten a neighboring liquid temperature gradient through transient expansion-driven circulation.","test":"Measure flow and temperature.","contrary":"Gradient changes follow diffusion alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0379","hypothesis":"A cooling gas bubble could flatten a neighboring liquid temperature gradient through transient expansion-driven circulation.","test":"Measure flow and temperature.","contrary_result":"Gradient changes follow diffusion alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0380","id":"S9-0380","volume":"900v9","title":"A soft crystal could undergo a temporary increase in fracture resistance during controlled dissolution.","prediction":"A soft crystal could undergo a temporary increase in fracture resistance during controlled dissolution.","test":"Measure crack growth and remaining geometry.","contrary":"Resistance decreases monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0380","hypothesis":"A soft crystal could undergo a temporary increase in fracture resistance during controlled dissolution.","test":"Measure crack growth and remaining geometry.","contrary_result":"Resistance decreases monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0381","id":"S9-0381","volume":"900v9","title":"A sealed optical cavity could detect gas adsorption on hidden walls from delayed pressure-dependent mode shifts.","prediction":"A sealed optical cavity could detect gas adsorption on hidden walls from delayed pressure-dependent mode shifts.","test":"Measure pressure and spectral response.","contrary":"Shifts track gas refractive index instantaneously.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0381","hypothesis":"A sealed optical cavity could detect gas adsorption on hidden walls from delayed pressure-dependent mode shifts.","test":"Measure pressure and spectral response.","contrary_result":"Shifts track gas refractive index instantaneously.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0382","id":"S9-0382","volume":"900v9","title":"A particle-laden liquid bridge could select its rupture side through the direction of its most recent weak oscillation.","prediction":"A particle-laden liquid bridge could select its rupture side through the direction of its most recent weak oscillation.","test":"Reverse final oscillation while matching geometry.","contrary":"Rupture side is independent of oscillation history.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0382","hypothesis":"A particle-laden liquid bridge could select its rupture side through the direction of its most recent weak oscillation.","test":"Reverse final oscillation while matching geometry.","contrary_result":"Rupture side is independent of oscillation history.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0383","id":"S9-0383","volume":"900v9","title":"A rough freezing interface could show a minimum solute rejection at an intermediate front acceleration.","prediction":"A rough freezing interface could show a minimum solute rejection at an intermediate front acceleration.","test":"Measure concentration profiles and acceleration.","contrary":"Rejection changes monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0383","hypothesis":"A rough freezing interface could show a minimum solute rejection at an intermediate front acceleration.","test":"Measure concentration profiles and acceleration.","contrary_result":"Rejection changes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0384","id":"S9-0384","volume":"900v9","title":"A ceramic fiber knot could amplify small changes in wet friction through a discontinuous resonance shift.","prediction":"A ceramic fiber knot could amplify small changes in wet friction through a discontinuous resonance shift.","test":"Measure contact slip and spectrum.","contrary":"Spectrum changes smoothly with friction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0384","hypothesis":"A ceramic fiber knot could amplify small changes in wet friction through a discontinuous resonance shift.","test":"Measure contact slip and spectrum.","contrary_result":"Spectrum changes smoothly with friction.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0385","id":"S9-0385","volume":"900v9","title":"A charged mineral surface could delay bubble nucleation after field removal through slow counterion redistribution.","prediction":"A charged mineral surface could delay bubble nucleation after field removal through slow counterion redistribution.","test":"Measure potential decay and nucleation.","contrary":"Delay follows temperature alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0385","hypothesis":"A charged mineral surface could delay bubble nucleation after field removal through slow counterion redistribution.","test":"Measure potential decay and nucleation.","contrary_result":"Delay follows temperature alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0386","id":"S9-0386","volume":"900v9","title":"A symmetric two-pore plate could develop alternating flow partition under constant pressure through gas dissolution coupling.","prediction":"A symmetric two-pore plate could develop alternating flow partition under constant pressure through gas dissolution coupling.","test":"Track each pore's flow and gas fraction.","contrary":"Partition remains stationary.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0386","hypothesis":"A symmetric two-pore plate could develop alternating flow partition under constant pressure through gas dissolution coupling.","test":"Track each pore's flow and gas fraction.","contrary_result":"Partition remains stationary.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0387","id":"S9-0387","volume":"900v9","title":"A cooled metal mesh could distinguish fog deposition from vapor condensation through opposite thermal-noise correlations.","prediction":"A cooled metal mesh could distinguish fog deposition from vapor condensation through opposite thermal-noise correlations.","test":"Measure paired temperature fluctuations.","contrary":"Correlations do not separate the processes.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0387","hypothesis":"A cooled metal mesh could distinguish fog deposition from vapor condensation through opposite thermal-noise correlations.","test":"Measure paired temperature fluctuations.","contrary_result":"Correlations do not separate the processes.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0388","id":"S9-0388","volume":"900v9","title":"A thin oil layer could suppress thermal cracking in ice by redistributing surface tension before significant heat transfer.","prediction":"A thin oil layer could suppress thermal cracking in ice by redistributing surface tension before significant heat transfer.","test":"Measure stress and interface motion.","contrary":"Protection follows added thermal resistance only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0388","hypothesis":"A thin oil layer could suppress thermal cracking in ice by redistributing surface tension before significant heat transfer.","test":"Measure stress and interface motion.","contrary_result":"Protection follows added thermal resistance only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0389","id":"S9-0389","volume":"900v9","title":"A dissolved mineral mixture could precipitate a transient protective layer under oscillatory rather than constant dilution.","prediction":"A dissolved mineral mixture could precipitate a transient protective layer under oscillatory rather than constant dilution.","test":"Match mean composition and measure surfaces.","contrary":"Protection depends only on mean dilution.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0389","hypothesis":"A dissolved mineral mixture could precipitate a transient protective layer under oscillatory rather than constant dilution.","test":"Match mean composition and measure surfaces.","contrary_result":"Protection depends only on mean dilution.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0390","id":"S9-0390","volume":"900v9","title":"A hollow magnetic particle could reveal a moving internal liquid plug through hysteretic torque phase.","prediction":"A hollow magnetic particle could reveal a moving internal liquid plug through hysteretic torque phase.","test":"Compare torque with internal imaging.","contrary":"Phase depends only on total liquid content.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0390","hypothesis":"A hollow magnetic particle could reveal a moving internal liquid plug through hysteretic torque phase.","test":"Compare torque with internal imaging.","contrary_result":"Phase depends only on total liquid content.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0391","id":"S9-0391","volume":"900v9","title":"A glassy film could recover anisotropic thermal conductivity after a sub-transition thermal pulse without recovering its shape.","prediction":"A glassy film could recover anisotropic thermal conductivity after a sub-transition thermal pulse without recovering its shape.","test":"Measure conductivity tensor and geometry.","contrary":"Recovery occurs only with shape relaxation.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0391","hypothesis":"A glassy film could recover anisotropic thermal conductivity after a sub-transition thermal pulse without recovering its shape.","test":"Measure conductivity tensor and geometry.","contrary_result":"Recovery occurs only with shape relaxation.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0392","id":"S9-0392","volume":"900v9","title":"A settling cluster could split at a weak internal thermal junction before a mechanical junction of equal static strength.","prediction":"A settling cluster could split at a weak internal thermal junction before a mechanical junction of equal static strength.","test":"Measure heat flux and breakup.","contrary":"Breakup follows static strength alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0392","hypothesis":"A settling cluster could split at a weak internal thermal junction before a mechanical junction of equal static strength.","test":"Measure heat flux and breakup.","contrary_result":"Breakup follows static strength alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0393","id":"S9-0393","volume":"900v9","title":"A transparent vapor channel could show acoustic amplification when adsorption heat release has the right phase delay.","prediction":"A transparent vapor channel could show acoustic amplification when adsorption heat release has the right phase delay.","test":"Measure acoustic work and temperature phase.","contrary":"Adsorption only increases damping.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0393","hypothesis":"A transparent vapor channel could show acoustic amplification when adsorption heat release has the right phase delay.","test":"Measure acoustic work and temperature phase.","contrary_result":"Adsorption only increases damping.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0394","id":"S9-0394","volume":"900v9","title":"A frozen droplet could contain a gas pocket whose position predicts its first thawing crack.","prediction":"A frozen droplet could contain a gas pocket whose position predicts its first thawing crack.","test":"Map pockets and cracks.","contrary":"Pocket location has no predictive value.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0394","hypothesis":"A frozen droplet could contain a gas pocket whose position predicts its first thawing crack.","test":"Map pockets and cracks.","contrary_result":"Pocket location has no predictive value.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0395","id":"S9-0395","volume":"900v9","title":"A coarse powder bed could conduct heat better after removing a small fraction of its finest grains.","prediction":"A coarse powder bed could conduct heat better after removing a small fraction of its finest grains.","test":"Measure packing contacts and conductivity.","contrary":"Fine removal always lowers conductivity.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0395","hypothesis":"A coarse powder bed could conduct heat better after removing a small fraction of its finest grains.","test":"Measure packing contacts and conductivity.","contrary_result":"Fine removal always lowers conductivity.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0395","hypothesis":"A coarse powder bed could conduct heat better after removing a small fraction of its finest grains.","test":"Measure packing contacts and conductivity.","contrary_result":"Fine removal always lowers conductivity.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"liquid metal powder heat conduction fine removal experiment","selection_reason":"Mass and packing controls test nonmonotonic transport."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0396","id":"S9-0396","volume":"900v9","title":"A liquid-film sensor could distinguish dissolved nonvolatile contamination from evaporation through wave-speed curvature.","prediction":"A liquid-film sensor could distinguish dissolved nonvolatile contamination from evaporation through wave-speed curvature.","test":"Measure dispersion during both perturbations.","contrary":"Dispersion curves remain equivalent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0396","hypothesis":"A liquid-film sensor could distinguish dissolved nonvolatile contamination from evaporation through wave-speed curvature.","test":"Measure dispersion during both perturbations.","contrary_result":"Dispersion curves remain equivalent.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0397","id":"S9-0397","volume":"900v9","title":"A compressed aerogel could show negative incremental thermal expansion over a reversible strain interval.","prediction":"A compressed aerogel could show negative incremental thermal expansion over a reversible strain interval.","test":"Measure dimensions and temperature under load.","contrary":"Expansion remains positive throughout.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0397","hypothesis":"A compressed aerogel could show negative incremental thermal expansion over a reversible strain interval.","test":"Measure dimensions and temperature under load.","contrary_result":"Expansion remains positive throughout.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0398","id":"S9-0398","volume":"900v9","title":"A slowly translating crystal could capture fewer particles than a stationary crystal at equal growth rate.","prediction":"A slowly translating crystal could capture fewer particles than a stationary crystal at equal growth rate.","test":"Control motion and image capture.","contrary":"Capture increases or remains unchanged.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0398","hypothesis":"A slowly translating crystal could capture fewer particles than a stationary crystal at equal growth rate.","test":"Control motion and image capture.","contrary_result":"Capture increases or remains unchanged.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0399","id":"S9-0399","volume":"900v9","title":"A partially molten grain boundary could alter acoustic reciprocity under a traveling thermal modulation.","prediction":"A partially molten grain boundary could alter acoustic reciprocity under a traveling thermal modulation.","test":"Reverse acoustic direction and modulation direction.","contrary":"Transmission remains reciprocal.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0399","hypothesis":"A partially molten grain boundary could alter acoustic reciprocity under a traveling thermal modulation.","test":"Reverse acoustic direction and modulation direction.","contrary_result":"Transmission remains reciprocal.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0400","id":"S9-0400","volume":"900v9","title":"A vapor-exposed resonator pair could separate adsorption kinetics from gas viscosity through their cross-correlated noise.","prediction":"A vapor-exposed resonator pair could separate adsorption kinetics from gas viscosity through their cross-correlated noise.","test":"Measure isolated and shared exposure controls.","contrary":"Correlation contains only common temperature drift.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0400","hypothesis":"A vapor-exposed resonator pair could separate adsorption kinetics from gas viscosity through their cross-correlated noise.","test":"Measure isolated and shared exposure controls.","contrary_result":"Correlation contains only common temperature drift.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0401","id":"S9-0401","volume":"900v9","title":"A chirped optical pulse could separate reversible trap filling from irreversible photobleaching in mineral fluorescence.","prediction":"A chirped optical pulse could separate reversible trap filling from irreversible photobleaching in mineral fluorescence.","test":"Compare pulse-order spectra.","contrary":"Order effects persist after complete trap emptying.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0401","hypothesis":"A chirped optical pulse could separate reversible trap filling from irreversible photobleaching in mineral fluorescence.","test":"Compare pulse-order spectra.","contrary_result":"Order effects persist after complete trap emptying.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0402","id":"S9-0402","volume":"900v9","title":"A nonmagnetic defect near a magnetic domain wall could change wall mobility more than wall pinning strength.","prediction":"A nonmagnetic defect near a magnetic domain wall could change wall mobility more than wall pinning strength.","test":"Measure both separately.","contrary":"Mobility follows pinning strength alone.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0402","hypothesis":"A nonmagnetic defect near a magnetic domain wall could change wall mobility more than wall pinning strength.","test":"Measure both separately.","contrary_result":"Mobility follows pinning strength alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0402","hypothesis":"A nonmagnetic defect near a magnetic domain wall could change wall mobility more than wall pinning strength.","test":"Measure both separately.","contrary_result":"Mobility follows pinning strength alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"magnetic domain wall nonmagnetic defect mobility pinning experiment","selection_reason":"Mobility and pinning are distinguishable quantities."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0403","id":"S9-0403","volume":"900v9","title":"A strained semiconductor grain could show a spatial inversion of photocurrent polarity before cracking.","prediction":"A strained semiconductor grain could show a spatial inversion of photocurrent polarity before cracking.","test":"Map photocurrent and strain.","contrary":"Inversion requires cracks.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0403","hypothesis":"A strained semiconductor grain could show a spatial inversion of photocurrent polarity before cracking.","test":"Map photocurrent and strain.","contrary_result":"Inversion requires cracks.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0404","id":"S9-0404","volume":"900v9","title":"An oxide capacitor could reveal mobile-ion crowding through a temporary decrease in low-frequency noise under bias.","prediction":"An oxide capacitor could reveal mobile-ion crowding through a temporary decrease in low-frequency noise under bias.","test":"Measure noise and ion profiles.","contrary":"Noise only increases.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0404","hypothesis":"An oxide capacitor could reveal mobile-ion crowding through a temporary decrease in low-frequency noise under bias.","test":"Measure noise and ion profiles.","contrary_result":"Noise only increases.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0405","id":"S9-0405","volume":"900v9","title":"A powder photocatalyst could regain activity during darkness through reversible oxygen redistribution without washing.","prediction":"A powder photocatalyst could regain activity during darkness through reversible oxygen redistribution without washing.","test":"Measure surface oxygen and repeated rates.","contrary":"Recovery requires material replacement.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0405","hypothesis":"A powder photocatalyst could regain activity during darkness through reversible oxygen redistribution without washing.","test":"Measure surface oxygen and repeated rates.","contrary_result":"Recovery requires material replacement.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0406","id":"S9-0406","volume":"900v9","title":"An inorganic phosphor could distinguish two equal-energy irradiation sequences through different delayed emission spectra.","prediction":"An inorganic phosphor could distinguish two equal-energy irradiation sequences through different delayed emission spectra.","test":"Swap sequence order.","contrary":"Spectra coincide after temperature correction.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0406","hypothesis":"An inorganic phosphor could distinguish two equal-energy irradiation sequences through different delayed emission spectra.","test":"Swap sequence order.","contrary_result":"Spectra coincide after temperature correction.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0406","hypothesis":"An inorganic phosphor could distinguish two equal-energy irradiation sequences through different delayed emission spectra.","test":"Swap sequence order.","contrary_result":"Spectra coincide after temperature correction.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"phosphor delayed luminescence irradiation sequence experiment","selection_reason":"Equal-dose sequences offer a strong comparison."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0407","id":"S9-0407","volume":"900v9","title":"A domain-wall junction could rectify weak alternating magnetic forcing through unequal waiting-time distributions.","prediction":"A domain-wall junction could rectify weak alternating magnetic forcing through unequal waiting-time distributions.","test":"Measure displacement and waiting times.","contrary":"Net motion vanishes.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0407","hypothesis":"A domain-wall junction could rectify weak alternating magnetic forcing through unequal waiting-time distributions.","test":"Measure displacement and waiting times.","contrary_result":"Net motion vanishes.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0408","id":"S9-0408","volume":"900v9","title":"A semiconductor nanowire could develop a photocurrent minimum at intermediate surface coverage by an inert gas.","prediction":"A semiconductor nanowire could develop a photocurrent minimum at intermediate surface coverage by an inert gas.","test":"Measure coverage and current.","contrary":"Current changes monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0408","hypothesis":"A semiconductor nanowire could develop a photocurrent minimum at intermediate surface coverage by an inert gas.","test":"Measure coverage and current.","contrary_result":"Current changes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0409","id":"S9-0409","volume":"900v9","title":"A reversible intercalation electrode could reveal hidden phase-boundary motion through acoustic phase before voltage steps.","prediction":"A reversible intercalation electrode could reveal hidden phase-boundary motion through acoustic phase before voltage steps.","test":"Synchronize acoustic and voltage traces.","contrary":"Voltage changes always lead.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0409","hypothesis":"A reversible intercalation electrode could reveal hidden phase-boundary motion through acoustic phase before voltage steps.","test":"Synchronize acoustic and voltage traces.","contrary_result":"Voltage changes always lead.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0410","id":"S9-0410","volume":"900v9","title":"An illuminated dielectric could redistribute surface charge against a weak imposed field through asymmetric trap emptying.","prediction":"An illuminated dielectric could redistribute surface charge against a weak imposed field through asymmetric trap emptying.","test":"Map charge under reversed illumination.","contrary":"Redistribution follows the field only.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0410","hypothesis":"An illuminated dielectric could redistribute surface charge against a weak imposed field through asymmetric trap emptying.","test":"Map charge under reversed illumination.","contrary_result":"Redistribution follows the field only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0410","hypothesis":"An illuminated dielectric could redistribute surface charge against a weak imposed field through asymmetric trap emptying.","test":"Map charge under reversed illumination.","contrary_result":"Redistribution follows the field only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"dielectric photoinduced surface charge trap redistribution experiment","selection_reason":"Charge maps can test motion against the applied field."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0411","id":"S9-0411","volume":"900v9","title":"A crystalline scintillator could reveal accumulated defect orientation through polarization of delayed light.","prediction":"A crystalline scintillator could reveal accumulated defect orientation through polarization of delayed light.","test":"Rotate detection polarization after controlled strain.","contrary":"Delayed light remains isotropic.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0411","hypothesis":"A crystalline scintillator could reveal accumulated defect orientation through polarization of delayed light.","test":"Rotate detection polarization after controlled strain.","contrary_result":"Delayed light remains isotropic.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0412","id":"S9-0412","volume":"900v9","title":"A thermoelectric junction could exhibit a transient voltage sign reversal during equal-temperature solvent adsorption.","prediction":"A thermoelectric junction could exhibit a transient voltage sign reversal during equal-temperature solvent adsorption.","test":"Measure temperature at both terminals.","contrary":"Residual temperature gradients explain reversal.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0412","hypothesis":"A thermoelectric junction could exhibit a transient voltage sign reversal during equal-temperature solvent adsorption.","test":"Measure temperature at both terminals.","contrary_result":"Residual temperature gradients explain reversal.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0413","id":"S9-0413","volume":"900v9","title":"A magnetic particle pair could maintain different reversal delays despite identical static hysteresis loops.","prediction":"A magnetic particle pair could maintain different reversal delays despite identical static hysteresis loops.","test":"Compare time-resolved reversal.","contrary":"Delays coincide after field calibration.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0413","hypothesis":"A magnetic particle pair could maintain different reversal delays despite identical static hysteresis loops.","test":"Compare time-resolved reversal.","contrary_result":"Delays coincide after field calibration.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0414","id":"S9-0414","volume":"900v9","title":"A thin insulating crystal could show stronger dielectric relaxation after a slower cooling ramp at equal final temperature.","prediction":"A thin insulating crystal could show stronger dielectric relaxation after a slower cooling ramp at equal final temperature.","test":"Measure loss spectra across ramps.","contrary":"Loss depends only on temperature.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0414","hypothesis":"A thin insulating crystal could show stronger dielectric relaxation after a slower cooling ramp at equal final temperature.","test":"Measure loss spectra across ramps.","contrary_result":"Loss depends only on temperature.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0415","id":"S9-0415","volume":"900v9","title":"A nonaqueous electrolyte could suppress electrode noise through reversible ion pairing before conductivity falls.","prediction":"A nonaqueous electrolyte could suppress electrode noise through reversible ion pairing before conductivity falls.","test":"Measure pairing spectroscopy and noise.","contrary":"Noise tracks conductivity exclusively.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0415","hypothesis":"A nonaqueous electrolyte could suppress electrode noise through reversible ion pairing before conductivity falls.","test":"Measure pairing spectroscopy and noise.","contrary_result":"Noise tracks conductivity exclusively.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0416","id":"S9-0416","volume":"900v9","title":"A ceramic heterointerface could concentrate photoexcited charge along a moving thermal boundary.","prediction":"A ceramic heterointerface could concentrate photoexcited charge along a moving thermal boundary.","test":"Map transient charge and temperature.","contrary":"Charge follows illumination only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0416","hypothesis":"A ceramic heterointerface could concentrate photoexcited charge along a moving thermal boundary.","test":"Map transient charge and temperature.","contrary_result":"Charge follows illumination only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0417","id":"S9-0417","volume":"900v9","title":"A porous electrode could reveal incomplete electrolyte exchange through an oscillatory open-circuit potential transient.","prediction":"A porous electrode could reveal incomplete electrolyte exchange through an oscillatory open-circuit potential transient.","test":"Measure composition and potential.","contrary":"Potential relaxes monotonically.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0417","hypothesis":"A porous electrode could reveal incomplete electrolyte exchange through an oscillatory open-circuit potential transient.","test":"Measure composition and potential.","contrary_result":"Potential relaxes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0418","id":"S9-0418","volume":"900v9","title":"A spin-coated inorganic film could retain deposition-direction anisotropy in thermal diffusivity after optical anisotropy disappears.","prediction":"A spin-coated inorganic film could retain deposition-direction anisotropy in thermal diffusivity after optical anisotropy disappears.","test":"Measure both tensors.","contrary":"Both anisotropies vanish together.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0418","hypothesis":"A spin-coated inorganic film could retain deposition-direction anisotropy in thermal diffusivity after optical anisotropy disappears.","test":"Measure both tensors.","contrary_result":"Both anisotropies vanish together.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0419","id":"S9-0419","volume":"900v9","title":"A weakly conducting crystal could show a current-noise minimum when two trap populations exchange dominance.","prediction":"A weakly conducting crystal could show a current-noise minimum when two trap populations exchange dominance.","test":"Fit independent trap lifetimes.","contrary":"Noise has no minimum.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0419","hypothesis":"A weakly conducting crystal could show a current-noise minimum when two trap populations exchange dominance.","test":"Fit independent trap lifetimes.","contrary_result":"Noise has no minimum.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0419","hypothesis":"A weakly conducting crystal could show a current-noise minimum when two trap populations exchange dominance.","test":"Fit independent trap lifetimes.","contrary_result":"Noise has no minimum.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"conductor trap populations current noise minimum experiment","selection_reason":"Independent lifetime estimates constrain interpretation."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0420","id":"S9-0420","volume":"900v9","title":"A layered magnetic crystal could exhibit acoustic hysteresis without measurable net magnetization hysteresis.","prediction":"A layered magnetic crystal could exhibit acoustic hysteresis without measurable net magnetization hysteresis.","test":"Measure ultrasound and magnetization simultaneously.","contrary":"Hysteresis thresholds coincide.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0420","hypothesis":"A layered magnetic crystal could exhibit acoustic hysteresis without measurable net magnetization hysteresis.","test":"Measure ultrasound and magnetization simultaneously.","contrary_result":"Hysteresis thresholds coincide.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0421","id":"S9-0421","volume":"900v9","title":"An ion-conducting glass could recover conductivity faster under alternating pressure than static pressure at equal mean load.","prediction":"An ion-conducting glass could recover conductivity faster under alternating pressure than static pressure at equal mean load.","test":"Measure recovery curves.","contrary":"Only mean pressure matters.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0421","hypothesis":"An ion-conducting glass could recover conductivity faster under alternating pressure than static pressure at equal mean load.","test":"Measure recovery curves.","contrary_result":"Only mean pressure matters.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0422","id":"S9-0422","volume":"900v9","title":"A semiconductor powder could distinguish water vapor from oxygen through opposite photoconductivity phase shifts.","prediction":"A semiconductor powder could distinguish water vapor from oxygen through opposite photoconductivity phase shifts.","test":"Expose separately at matched adsorption.","contrary":"Phase signatures coincide.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0422","hypothesis":"A semiconductor powder could distinguish water vapor from oxygen through opposite photoconductivity phase shifts.","test":"Expose separately at matched adsorption.","contrary_result":"Phase signatures coincide.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0423","id":"S9-0423","volume":"900v9","title":"A reversible redox film could display a transient transparency maximum during mixed-ion exchange.","prediction":"A reversible redox film could display a transient transparency maximum during mixed-ion exchange.","test":"Measure composition and transmission.","contrary":"Transmission stays between endpoint values.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0423","hypothesis":"A reversible redox film could display a transient transparency maximum during mixed-ion exchange.","test":"Measure composition and transmission.","contrary_result":"Transmission stays between endpoint values.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0424","id":"S9-0424","volume":"900v9","title":"A photothermal surface could suppress its own absorption through reversible nanogap expansion.","prediction":"A photothermal surface could suppress its own absorption through reversible nanogap expansion.","test":"Measure gap and absorption.","contrary":"Absorption follows temperature independently of gap.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0424","hypothesis":"A photothermal surface could suppress its own absorption through reversible nanogap expansion.","test":"Measure gap and absorption.","contrary_result":"Absorption follows temperature independently of gap.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0425","id":"S9-0425","volume":"900v9","title":"A piezoelectric crystal could distinguish adsorbed mass from surface charge through the sign of mixed-mode coupling.","prediction":"A piezoelectric crystal could distinguish adsorbed mass from surface charge through the sign of mixed-mode coupling.","test":"Calibrate both perturbations.","contrary":"Coupling signatures are identical.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0425","hypothesis":"A piezoelectric crystal could distinguish adsorbed mass from surface charge through the sign of mixed-mode coupling.","test":"Calibrate both perturbations.","contrary_result":"Coupling signatures are identical.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0426","id":"S9-0426","volume":"900v9","title":"A weakly disordered optical layer could exhibit a longer coherence lifetime under slight mechanical compression.","prediction":"A weakly disordered optical layer could exhibit a longer coherence lifetime under slight mechanical compression.","test":"Measure phase decorrelation and thickness.","contrary":"Compression always shortens coherence.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0426","hypothesis":"A weakly disordered optical layer could exhibit a longer coherence lifetime under slight mechanical compression.","test":"Measure phase decorrelation and thickness.","contrary_result":"Compression always shortens coherence.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0427","id":"S9-0427","volume":"900v9","title":"A semiconductor interface could reveal buried delamination through photocurrent noise before average current changes.","prediction":"A semiconductor interface could reveal buried delamination through photocurrent noise before average current changes.","test":"Correlate noise with independent imaging.","contrary":"Noise changes follow average current.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0427","hypothesis":"A semiconductor interface could reveal buried delamination through photocurrent noise before average current changes.","test":"Correlate noise with independent imaging.","contrary_result":"Noise changes follow average current.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0428","id":"S9-0428","volume":"900v9","title":"A ceramic electrolyte could have a minimum activation barrier at a finite concentration gradient.","prediction":"A ceramic electrolyte could have a minimum activation barrier at a finite concentration gradient.","test":"Measure temperature dependence across gradients.","contrary":"Barrier varies monotonically.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0428","hypothesis":"A ceramic electrolyte could have a minimum activation barrier at a finite concentration gradient.","test":"Measure temperature dependence across gradients.","contrary_result":"Barrier varies monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0429","id":"S9-0429","volume":"900v9","title":"An inorganic luminescent layer could encode irradiation spacing in the ratio of two delayed spectral bands.","prediction":"An inorganic luminescent layer could encode irradiation spacing in the ratio of two delayed spectral bands.","test":"Vary spacing at fixed dose.","contrary":"Ratio depends only on dose.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0429","hypothesis":"An inorganic luminescent layer could encode irradiation spacing in the ratio of two delayed spectral bands.","test":"Vary spacing at fixed dose.","contrary_result":"Ratio depends only on dose.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0430","id":"S9-0430","volume":"900v9","title":"A conductive crystal could exhibit anisotropic voltage relaxation after a hydrostatic pressure pulse.","prediction":"A conductive crystal could exhibit anisotropic voltage relaxation after a hydrostatic pressure pulse.","test":"Measure orthogonal contacts.","contrary":"Relaxation is isotropic after geometry correction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0430","hypothesis":"A conductive crystal could exhibit anisotropic voltage relaxation after a hydrostatic pressure pulse.","test":"Measure orthogonal contacts.","contrary_result":"Relaxation is isotropic after geometry correction.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0431","id":"S9-0431","volume":"900v9","title":"A suspended magnetic flake could transfer angular momentum to its support during reversible domain relaxation.","prediction":"A suspended magnetic flake could transfer angular momentum to its support during reversible domain relaxation.","test":"Measure torsion and magnetic evolution.","contrary":"Torsion requires irreversible heating.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0431","hypothesis":"A suspended magnetic flake could transfer angular momentum to its support during reversible domain relaxation.","test":"Measure torsion and magnetic evolution.","contrary_result":"Torsion requires irreversible heating.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0432","id":"S9-0432","volume":"900v9","title":"A photonic cavity could amplify a weak adsorption signal when uptake changes loss and resonance in opposite directions.","prediction":"A photonic cavity could amplify a weak adsorption signal when uptake changes loss and resonance in opposite directions.","test":"Measure complex spectral response.","contrary":"Sensitivity matches frequency-shift detection alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0432","hypothesis":"A photonic cavity could amplify a weak adsorption signal when uptake changes loss and resonance in opposite directions.","test":"Measure complex spectral response.","contrary_result":"Sensitivity matches frequency-shift detection alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0433","id":"S9-0433","volume":"900v9","title":"A solid-state ionic junction could show delayed polarity recovery after temperature-gradient reversal.","prediction":"A solid-state ionic junction could show delayed polarity recovery after temperature-gradient reversal.","test":"Measure thermovoltage and ion distributions.","contrary":"Recovery follows thermal equilibration immediately.","layers":[1,2],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0433","hypothesis":"A solid-state ionic junction could show delayed polarity recovery after temperature-gradient reversal.","test":"Measure thermovoltage and ion distributions.","contrary_result":"Recovery follows thermal equilibration immediately.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0433","hypothesis":"A solid-state ionic junction could show delayed polarity recovery after temperature-gradient reversal.","test":"Measure thermovoltage and ion distributions.","contrary_result":"Recovery follows thermal equilibration immediately.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"solid ionic junction thermovoltage relaxation gradient reversal experiment","selection_reason":"Thermal and voltage equilibration can be timed separately."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0434","id":"S9-0434","volume":"900v9","title":"An oxide nanograin could show reversible light-induced softening before detectable heating.","prediction":"An oxide nanograin could show reversible light-induced softening before detectable heating.","test":"Measure modulus with temperature controls.","contrary":"Softening disappears at matched temperature.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0434","hypothesis":"An oxide nanograin could show reversible light-induced softening before detectable heating.","test":"Measure modulus with temperature controls.","contrary_result":"Softening disappears at matched temperature.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0435","id":"S9-0435","volume":"900v9","title":"A charged dielectric powder could exhibit a crossover from attractive to repulsive aggregation during humidification.","prediction":"A charged dielectric powder could exhibit a crossover from attractive to repulsive aggregation during humidification.","test":"Measure forces and water uptake.","contrary":"Aggregation changes monotonically.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0435","hypothesis":"A charged dielectric powder could exhibit a crossover from attractive to repulsive aggregation during humidification.","test":"Measure forces and water uptake.","contrary_result":"Aggregation changes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0436","id":"S9-0436","volume":"900v9","title":"A magnetic ceramic could distinguish tensile from compressive residual stress through asymmetric harmonic generation.","prediction":"A magnetic ceramic could distinguish tensile from compressive residual stress through asymmetric harmonic generation.","test":"Calibrate signed stress.","contrary":"Harmonics depend only on stress magnitude.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0436","hypothesis":"A magnetic ceramic could distinguish tensile from compressive residual stress through asymmetric harmonic generation.","test":"Calibrate signed stress.","contrary_result":"Harmonics depend only on stress magnitude.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0437","id":"S9-0437","volume":"900v9","title":"A nanoporous conductor could exhibit a thermopower overshoot during inert-gas exchange.","prediction":"A nanoporous conductor could exhibit a thermopower overshoot during inert-gas exchange.","test":"Measure gas composition and voltage.","contrary":"Voltage remains between endpoint values.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0437","hypothesis":"A nanoporous conductor could exhibit a thermopower overshoot during inert-gas exchange.","test":"Measure gas composition and voltage.","contrary_result":"Voltage remains between endpoint values.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0438","id":"S9-0438","volume":"900v9","title":"A narrow-band optical absorber could switch its preferred polarization after reversible vapor adsorption.","prediction":"A narrow-band optical absorber could switch its preferred polarization after reversible vapor adsorption.","test":"Measure full polarization spectra.","contrary":"Adsorption changes strength only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0438","hypothesis":"A narrow-band optical absorber could switch its preferred polarization after reversible vapor adsorption.","test":"Measure full polarization spectra.","contrary_result":"Adsorption changes strength only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0439","id":"S9-0439","volume":"900v9","title":"A low-conductivity mineral could exhibit a temporary negative differential resistance through reversible trap release.","prediction":"A low-conductivity mineral could exhibit a temporary negative differential resistance through reversible trap release.","test":"Measure local heating and current.","contrary":"Thermal runaway explains the effect.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0439","hypothesis":"A low-conductivity mineral could exhibit a temporary negative differential resistance through reversible trap release.","test":"Measure local heating and current.","contrary_result":"Thermal runaway explains the effect.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0440","id":"S9-0440","volume":"900v9","title":"A crystalline waveguide could separate mechanical damage from defect charging through different recovery under dark annealing.","prediction":"A crystalline waveguide could separate mechanical damage from defect charging through different recovery under dark annealing.","test":"Measure loss and charge relaxation.","contrary":"Both recover identically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0440","hypothesis":"A crystalline waveguide could separate mechanical damage from defect charging through different recovery under dark annealing.","test":"Measure loss and charge relaxation.","contrary_result":"Both recover identically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0441","id":"S9-0441","volume":"900v9","title":"A layered electrode could reveal unequal ion diffusivities through a nonmonotonic thickness transient during open-circuit relaxation.","prediction":"A layered electrode could reveal unequal ion diffusivities through a nonmonotonic thickness transient during open-circuit relaxation.","test":"Measure thickness and concentration.","contrary":"Thickness relaxes monotonically.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0441","hypothesis":"A layered electrode could reveal unequal ion diffusivities through a nonmonotonic thickness transient during open-circuit relaxation.","test":"Measure thickness and concentration.","contrary_result":"Thickness relaxes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0442","id":"S9-0442","volume":"900v9","title":"An inorganic photochromic film could show a pulse-width window of maximum switching per absorbed joule.","prediction":"An inorganic photochromic film could show a pulse-width window of maximum switching per absorbed joule.","test":"Measure absorbed energy and switching.","contrary":"Efficiency depends only on total dose.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0442","hypothesis":"An inorganic photochromic film could show a pulse-width window of maximum switching per absorbed joule.","test":"Measure absorbed energy and switching.","contrary_result":"Efficiency depends only on total dose.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0443","id":"S9-0443","volume":"900v9","title":"A magnetic domain boundary could lower local thermal resistance when weakly oscillated below depinning.","prediction":"A magnetic domain boundary could lower local thermal resistance when weakly oscillated below depinning.","test":"Measure heat transfer and wall motion.","contrary":"Changes require depinning.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0443","hypothesis":"A magnetic domain boundary could lower local thermal resistance when weakly oscillated below depinning.","test":"Measure heat transfer and wall motion.","contrary_result":"Changes require depinning.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0444","id":"S9-0444","volume":"900v9","title":"A piezoelectric powder could generate opposite charge signs during compression and shear at the same contact network.","prediction":"A piezoelectric powder could generate opposite charge signs during compression and shear at the same contact network.","test":"Measure orientation and charge.","contrary":"Signals follow contact electrification only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0444","hypothesis":"A piezoelectric powder could generate opposite charge signs during compression and shear at the same contact network.","test":"Measure orientation and charge.","contrary_result":"Signals follow contact electrification only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0445","id":"S9-0445","volume":"900v9","title":"A dielectric resonator could discriminate trapped charge from adsorbed dipoles through response to field reversal.","prediction":"A dielectric resonator could discriminate trapped charge from adsorbed dipoles through response to field reversal.","test":"Measure both calibrated states.","contrary":"Responses remain degenerate.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0445","hypothesis":"A dielectric resonator could discriminate trapped charge from adsorbed dipoles through response to field reversal.","test":"Measure both calibrated states.","contrary_result":"Responses remain degenerate.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0446","id":"S9-0446","volume":"900v9","title":"A semiconductor crystal could develop a reversible absorption edge splitting under a nonuniform pressure field.","prediction":"A semiconductor crystal could develop a reversible absorption edge splitting under a nonuniform pressure field.","test":"Map pressure and spectra.","contrary":"Splitting follows temperature alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0446","hypothesis":"A semiconductor crystal could develop a reversible absorption edge splitting under a nonuniform pressure field.","test":"Map pressure and spectra.","contrary_result":"Splitting follows temperature alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0447","id":"S9-0447","volume":"900v9","title":"A disordered conductor could show reduced low-frequency noise immediately after a weak acoustic pulse.","prediction":"A disordered conductor could show reduced low-frequency noise immediately after a weak acoustic pulse.","test":"Measure noise and resistance.","contrary":"Noise changes require permanent resistance changes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0447","hypothesis":"A disordered conductor could show reduced low-frequency noise immediately after a weak acoustic pulse.","test":"Measure noise and resistance.","contrary_result":"Noise changes require permanent resistance changes.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0448","id":"S9-0448","volume":"900v9","title":"A magnetically textured film could exhibit a delayed change in optical rotation after strain release.","prediction":"A magnetically textured film could exhibit a delayed change in optical rotation after strain release.","test":"Measure strain, magnetization, and rotation.","contrary":"Rotation tracks strain instantaneously.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0448","hypothesis":"A magnetically textured film could exhibit a delayed change in optical rotation after strain release.","test":"Measure strain, magnetization, and rotation.","contrary_result":"Rotation tracks strain instantaneously.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0449","id":"S9-0449","volume":"900v9","title":"An ionic crystal could reveal defect clustering through a change in the skewness of current fluctuations.","prediction":"An ionic crystal could reveal defect clustering through a change in the skewness of current fluctuations.","test":"Measure fluctuation distributions and defect spectroscopy.","contrary":"Only variance changes.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0449","hypothesis":"An ionic crystal could reveal defect clustering through a change in the skewness of current fluctuations.","test":"Measure fluctuation distributions and defect spectroscopy.","contrary_result":"Only variance changes.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0450","id":"S9-0450","volume":"900v9","title":"A solar-free infrared emitter could tune its spectral width through reversible pore filling by inert liquid.","prediction":"A solar-free infrared emitter could tune its spectral width through reversible pore filling by inert liquid.","test":"Measure emissivity and filling.","contrary":"Only total emissivity changes.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0450","hypothesis":"A solar-free infrared emitter could tune its spectral width through reversible pore filling by inert liquid.","test":"Measure emissivity and filling.","contrary_result":"Only total emissivity changes.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0451","id":"S9-0451","volume":"900v9","title":"A catalytic mineral could retain a dissolved-gas pulse's duration in its subsequent reaction induction time.","prediction":"A catalytic mineral could retain a dissolved-gas pulse's duration in its subsequent reaction induction time.","test":"Compare pulses at equal exposure.","contrary":"Induction depends only on integrated exposure.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0451","hypothesis":"A catalytic mineral could retain a dissolved-gas pulse's duration in its subsequent reaction induction time.","test":"Compare pulses at equal exposure.","contrary_result":"Induction depends only on integrated exposure.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0451","hypothesis":"A catalytic mineral could retain a dissolved-gas pulse's duration in its subsequent reaction induction time.","test":"Compare pulses at equal exposure.","contrary_result":"Induction depends only on integrated exposure.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"mineral catalyst dissolved gas pulse induction time experiment","selection_reason":"Equal exposure tests pulse duration independently."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0452","id":"S9-0452","volume":"900v9","title":"A binary salt solution could nucleate fewer crystals after a weak shear pulse delivered before supersaturation.","prediction":"A binary salt solution could nucleate fewer crystals after a weak shear pulse delivered before supersaturation.","test":"Control shear timing.","contrary":"Only contemporaneous shear matters.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0452","hypothesis":"A binary salt solution could nucleate fewer crystals after a weak shear pulse delivered before supersaturation.","test":"Control shear timing.","contrary_result":"Only contemporaneous shear matters.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0453","id":"S9-0453","volume":"900v9","title":"An inorganic catalyst could display a reversible rate minimum during exchange between two inert carrier gases.","prediction":"An inorganic catalyst could display a reversible rate minimum during exchange between two inert carrier gases.","test":"Measure surface coverage and thermal state.","contrary":"Rates stay between endpoint rates.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0453","hypothesis":"An inorganic catalyst could display a reversible rate minimum during exchange between two inert carrier gases.","test":"Measure surface coverage and thermal state.","contrary_result":"Rates stay between endpoint rates.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0454","id":"S9-0454","volume":"900v9","title":"A crystal seed could promote opposite polymorph selection depending on its reversible elastic strain.","prediction":"A crystal seed could promote opposite polymorph selection depending on its reversible elastic strain.","test":"Hold chemistry constant and vary strain.","contrary":"Polymorph distribution ignores strain.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0454","hypothesis":"A crystal seed could promote opposite polymorph selection depending on its reversible elastic strain.","test":"Hold chemistry constant and vary strain.","contrary_result":"Polymorph distribution ignores strain.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0454","hypothesis":"A crystal seed could promote opposite polymorph selection depending on its reversible elastic strain.","test":"Hold chemistry constant and vary strain.","contrary_result":"Polymorph distribution ignores strain.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"seed crystal strain polymorph nucleation experiment","selection_reason":"Elastic strain can vary at constant solution chemistry."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0455","id":"S9-0455","volume":"900v9","title":"A dissolving precipitate could regenerate its original hollow structure after one controlled concentration cycle.","prediction":"A dissolving precipitate could regenerate its original hollow structure after one controlled concentration cycle.","test":"Image repeated growth and dissolution.","contrary":"Hollow structure requires a fresh template.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0455","hypothesis":"A dissolving precipitate could regenerate its original hollow structure after one controlled concentration cycle.","test":"Image repeated growth and dissolution.","contrary_result":"Hollow structure requires a fresh template.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0456","id":"S9-0456","volume":"900v9","title":"A porous catalyst could distinguish diffusion limitation from site poisoning through recovery after pressure oscillations.","prediction":"A porous catalyst could distinguish diffusion limitation from site poisoning through recovery after pressure oscillations.","test":"Measure rate and adsorption independently.","contrary":"Both mechanisms recover identically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0456","hypothesis":"A porous catalyst could distinguish diffusion limitation from site poisoning through recovery after pressure oscillations.","test":"Measure rate and adsorption independently.","contrary_result":"Both mechanisms recover identically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0457","id":"S9-0457","volume":"900v9","title":"A mineral surface could accelerate isotope exchange at a strained edge without increasing net dissolution.","prediction":"A mineral surface could accelerate isotope exchange at a strained edge without increasing net dissolution.","test":"Measure isotope transfer and mass loss.","contrary":"Exchange tracks dissolution strictly.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0457","hypothesis":"A mineral surface could accelerate isotope exchange at a strained edge without increasing net dissolution.","test":"Measure isotope transfer and mass loss.","contrary_result":"Exchange tracks dissolution strictly.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0458","id":"S9-0458","volume":"900v9","title":"A salt hydrate could release water in two distinct bursts selected by heating-ramp curvature.","prediction":"A salt hydrate could release water in two distinct bursts selected by heating-ramp curvature.","test":"Compare matched endpoint ramps.","contrary":"Burst pattern follows peak temperature only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0458","hypothesis":"A salt hydrate could release water in two distinct bursts selected by heating-ramp curvature.","test":"Compare matched endpoint ramps.","contrary_result":"Burst pattern follows peak temperature only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0459","id":"S9-0459","volume":"900v9","title":"A colloidal inorganic catalyst could exhibit maximum activity when aggregate rotation matches reactant diffusion time.","prediction":"A colloidal inorganic catalyst could exhibit maximum activity when aggregate rotation matches reactant diffusion time.","test":"Measure rotation and rates.","contrary":"Activity follows aggregate area alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0459","hypothesis":"A colloidal inorganic catalyst could exhibit maximum activity when aggregate rotation matches reactant diffusion time.","test":"Measure rotation and rates.","contrary_result":"Activity follows aggregate area alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0460","id":"S9-0460","volume":"900v9","title":"A weak electric field could shift crystallization induction variability without shifting its mean.","prediction":"A weak electric field could shift crystallization induction variability without shifting its mean.","test":"Measure many onset distributions.","contrary":"Variance changes only with mean.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0460","hypothesis":"A weak electric field could shift crystallization induction variability without shifting its mean.","test":"Measure many onset distributions.","contrary_result":"Variance changes only with mean.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0461","id":"S9-0461","volume":"900v9","title":"A mineral pore could sustain a transient pH extremum during exchange of two equal-pH salt solutions.","prediction":"A mineral pore could sustain a transient pH extremum during exchange of two equal-pH salt solutions.","test":"Map local pH and composition.","contrary":"pH remains at boundary value.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0461","hypothesis":"A mineral pore could sustain a transient pH extremum during exchange of two equal-pH salt solutions.","test":"Map local pH and composition.","contrary_result":"pH remains at boundary value.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0462","id":"S9-0462","volume":"900v9","title":"A catalytic oxide could recover selectivity faster than activity after reversible surface hydration.","prediction":"A catalytic oxide could recover selectivity faster than activity after reversible surface hydration.","test":"Measure both after dry recovery.","contrary":"Both recover with one timescale.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0462","hypothesis":"A catalytic oxide could recover selectivity faster than activity after reversible surface hydration.","test":"Measure both after dry recovery.","contrary_result":"Both recover with one timescale.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0463","id":"S9-0463","volume":"900v9","title":"A growing crystal could exclude an impurity more effectively after a brief undersaturation interval than steady growth.","prediction":"A growing crystal could exclude an impurity more effectively after a brief undersaturation interval than steady growth.","test":"Match net growth and assay impurities.","contrary":"Exclusion depends only on growth rate.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0463","hypothesis":"A growing crystal could exclude an impurity more effectively after a brief undersaturation interval than steady growth.","test":"Match net growth and assay impurities.","contrary_result":"Exclusion depends only on growth rate.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0463","hypothesis":"A growing crystal could exclude an impurity more effectively after a brief undersaturation interval than steady growth.","test":"Match net growth and assay impurities.","contrary_result":"Exclusion depends only on growth rate.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"crystal impurity rejection undersaturation growth cycle experiment","selection_reason":"Net-growth matching tests a process-history effect."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0464","id":"S9-0464","volume":"900v9","title":"A binary precipitate could reverse its layering order when concentration ramps have equal endpoints but opposite curvature.","prediction":"A binary precipitate could reverse its layering order when concentration ramps have equal endpoints but opposite curvature.","test":"Map final composition profiles.","contrary":"Layer order depends only on endpoints.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0464","hypothesis":"A binary precipitate could reverse its layering order when concentration ramps have equal endpoints but opposite curvature.","test":"Map final composition profiles.","contrary_result":"Layer order depends only on endpoints.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0465","id":"S9-0465","volume":"900v9","title":"A nonreactive gas bubble could prolong a nearby supersaturated solution's induction time through depletion of dissolved gas.","prediction":"A nonreactive gas bubble could prolong a nearby supersaturated solution's induction time through depletion of dissolved gas.","test":"Measure gas profiles and nucleation.","contrary":"Effect disappears after thermal correction only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0465","hypothesis":"A nonreactive gas bubble could prolong a nearby supersaturated solution's induction time through depletion of dissolved gas.","test":"Measure gas profiles and nucleation.","contrary_result":"Effect disappears after thermal correction only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0466","id":"S9-0466","volume":"900v9","title":"An inorganic adsorption bed could release a narrow solute pulse during a monotonic temperature ramp.","prediction":"An inorganic adsorption bed could release a narrow solute pulse during a monotonic temperature ramp.","test":"Measure effluent concentration.","contrary":"Release broadens monotonically.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0466","hypothesis":"An inorganic adsorption bed could release a narrow solute pulse during a monotonic temperature ramp.","test":"Measure effluent concentration.","contrary_result":"Release broadens monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0466","hypothesis":"An inorganic adsorption bed could release a narrow solute pulse during a monotonic temperature ramp.","test":"Measure effluent concentration.","contrary_result":"Release broadens monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"inorganic adsorption bed thermal ramp solute release pulse experiment","selection_reason":"Effluent concentration directly tests pulse narrowing."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0467","id":"S9-0467","volume":"900v9","title":"A crystalline hydrate could reveal prior subthreshold pressure through later dehydration-front roughness.","prediction":"A crystalline hydrate could reveal prior subthreshold pressure through later dehydration-front roughness.","test":"Match final strain and heat.","contrary":"Roughness depends only on current state.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0467","hypothesis":"A crystalline hydrate could reveal prior subthreshold pressure through later dehydration-front roughness.","test":"Match final strain and heat.","contrary_result":"Roughness depends only on current state.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0468","id":"S9-0468","volume":"900v9","title":"A catalyst's acoustic emission could distinguish reversible surface restructuring from irreversible particle fracture.","prediction":"A catalyst's acoustic emission could distinguish reversible surface restructuring from irreversible particle fracture.","test":"Compare sound with microscopy and recovery.","contrary":"Both produce indistinguishable signatures.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0468","hypothesis":"A catalyst's acoustic emission could distinguish reversible surface restructuring from irreversible particle fracture.","test":"Compare sound with microscopy and recovery.","contrary_result":"Both produce indistinguishable signatures.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0469","id":"S9-0469","volume":"900v9","title":"A solution could exhibit a transient optical-rotation signal from aligned achiral crystallites before visible precipitation.","prediction":"A solution could exhibit a transient optical-rotation signal from aligned achiral crystallites before visible precipitation.","test":"Measure scattering and rotation.","contrary":"Signal requires chiral contamination.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0469","hypothesis":"A solution could exhibit a transient optical-rotation signal from aligned achiral crystallites before visible precipitation.","test":"Measure scattering and rotation.","contrary_result":"Signal requires chiral contamination.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0470","id":"S9-0470","volume":"900v9","title":"A mineral coating could selectively suppress secondary nucleation while preserving primary nucleation rate.","prediction":"A mineral coating could selectively suppress secondary nucleation while preserving primary nucleation rate.","test":"Measure both populations separately.","contrary":"Both rates change proportionally.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0470","hypothesis":"A mineral coating could selectively suppress secondary nucleation while preserving primary nucleation rate.","test":"Measure both populations separately.","contrary_result":"Both rates change proportionally.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0470","hypothesis":"A mineral coating could selectively suppress secondary nucleation while preserving primary nucleation rate.","test":"Measure both populations separately.","contrary_result":"Both rates change proportionally.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"mineral coating primary secondary nucleation suppression experiment","selection_reason":"The two nucleation populations can be counted separately."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0471","id":"S9-0471","volume":"900v9","title":"A slowly oxidizing particle could develop a moving conductivity ring ahead of its visible oxide front.","prediction":"A slowly oxidizing particle could develop a moving conductivity ring ahead of its visible oxide front.","test":"Map electrical response and oxide.","contrary":"Ring follows the visible front.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0471","hypothesis":"A slowly oxidizing particle could develop a moving conductivity ring ahead of its visible oxide front.","test":"Map electrical response and oxide.","contrary_result":"Ring follows the visible front.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0472","id":"S9-0472","volume":"900v9","title":"A salt bridge could retain different impedance after reversed concentration pulses despite equal final ion inventory.","prediction":"A salt bridge could retain different impedance after reversed concentration pulses despite equal final ion inventory.","test":"Measure inventory and impedance recovery.","contrary":"Inventory fully predicts impedance.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0472","hypothesis":"A salt bridge could retain different impedance after reversed concentration pulses despite equal final ion inventory.","test":"Measure inventory and impedance recovery.","contrary_result":"Inventory fully predicts impedance.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0473","id":"S9-0473","volume":"900v9","title":"A mixed inorganic vapor could deposit a transiently inverted composition gradient under constant source composition.","prediction":"A mixed inorganic vapor could deposit a transiently inverted composition gradient under constant source composition.","test":"Depth-profile films over time.","contrary":"Composition gradients remain monotonic.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0473","hypothesis":"A mixed inorganic vapor could deposit a transiently inverted composition gradient under constant source composition.","test":"Depth-profile films over time.","contrary_result":"Composition gradients remain monotonic.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0474","id":"S9-0474","volume":"900v9","title":"A porous crystal could adsorb a gas faster after a desorption pause at intermediate coverage.","prediction":"A porous crystal could adsorb a gas faster after a desorption pause at intermediate coverage.","test":"Measure uptake with coverage controls.","contrary":"Only initial coverage predicts rate.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0474","hypothesis":"A porous crystal could adsorb a gas faster after a desorption pause at intermediate coverage.","test":"Measure uptake with coverage controls.","contrary_result":"Only initial coverage predicts rate.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0475","id":"S9-0475","volume":"900v9","title":"A reversible complexation reaction could produce a delayed heat pulse after external mixing ceases.","prediction":"A reversible complexation reaction could produce a delayed heat pulse after external mixing ceases.","test":"Measure calorimetry and concentration.","contrary":"Heat release follows mixing immediately.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0475","hypothesis":"A reversible complexation reaction could produce a delayed heat pulse after external mixing ceases.","test":"Measure calorimetry and concentration.","contrary_result":"Heat release follows mixing immediately.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0476","id":"S9-0476","volume":"900v9","title":"A mineral catalyst could exhibit a selectivity crossover during a pressure ramp at constant reactant chemical potential.","prediction":"A mineral catalyst could exhibit a selectivity crossover during a pressure ramp at constant reactant chemical potential.","test":"Control activities and measure products.","contrary":"Pressure has no independent effect.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0476","hypothesis":"A mineral catalyst could exhibit a selectivity crossover during a pressure ramp at constant reactant chemical potential.","test":"Control activities and measure products.","contrary_result":"Pressure has no independent effect.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0477","id":"S9-0477","volume":"900v9","title":"A precipitating solution could develop an acoustic scattering precursor before optical turbidity rises.","prediction":"A precipitating solution could develop an acoustic scattering precursor before optical turbidity rises.","test":"Measure both at matched sensitivity.","contrary":"Optical detection always leads.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0477","hypothesis":"A precipitating solution could develop an acoustic scattering precursor before optical turbidity rises.","test":"Measure both at matched sensitivity.","contrary_result":"Optical detection always leads.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0478","id":"S9-0478","volume":"900v9","title":"An inorganic gel could release retained ions in an order different from equilibrium affinity during slow compression.","prediction":"An inorganic gel could release retained ions in an order different from equilibrium affinity during slow compression.","test":"Measure sequential effluent.","contrary":"Release order follows equilibrium affinity.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0478","hypothesis":"An inorganic gel could release retained ions in an order different from equilibrium affinity during slow compression.","test":"Measure sequential effluent.","contrary_result":"Release order follows equilibrium affinity.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0478","hypothesis":"An inorganic gel could release retained ions in an order different from equilibrium affinity during slow compression.","test":"Measure sequential effluent.","contrary_result":"Release order follows equilibrium affinity.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"inorganic gel compression ion release affinity experiment","selection_reason":"Effluent order is a direct measurable endpoint."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0479","id":"S9-0479","volume":"900v9","title":"A crystal facet could switch dissolution mechanism after a brief inert-gas pressure pulse without pH change.","prediction":"A crystal facet could switch dissolution mechanism after a brief inert-gas pressure pulse without pH change.","test":"Image steps and monitor chemistry.","contrary":"Step kinetics remain unchanged.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0479","hypothesis":"A crystal facet could switch dissolution mechanism after a brief inert-gas pressure pulse without pH change.","test":"Image steps and monitor chemistry.","contrary_result":"Step kinetics remain unchanged.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0480","id":"S9-0480","volume":"900v9","title":"A porous oxide could store a reversible reactive intermediate preferentially at internal strain hotspots.","prediction":"A porous oxide could store a reversible reactive intermediate preferentially at internal strain hotspots.","test":"Map strain and intermediate spectroscopy.","contrary":"Storage follows surface area only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0480","hypothesis":"A porous oxide could store a reversible reactive intermediate preferentially at internal strain hotspots.","test":"Map strain and intermediate spectroscopy.","contrary_result":"Storage follows surface area only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0481","id":"S9-0481","volume":"900v9","title":"A layered salt deposit could resist redissolution longest at an intermediate layer-period thickness.","prediction":"A layered salt deposit could resist redissolution longest at an intermediate layer-period thickness.","test":"Measure dissolution across periods.","contrary":"Resistance changes monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0481","hypothesis":"A layered salt deposit could resist redissolution longest at an intermediate layer-period thickness.","test":"Measure dissolution across periods.","contrary_result":"Resistance changes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0482","id":"S9-0482","volume":"900v9","title":"A concentrated electrolyte could display a temporary minimum in diffusion coefficient during dilution.","prediction":"A concentrated electrolyte could display a temporary minimum in diffusion coefficient during dilution.","test":"Measure diffusion and composition.","contrary":"Diffusivity changes monotonically.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0482","hypothesis":"A concentrated electrolyte could display a temporary minimum in diffusion coefficient during dilution.","test":"Measure diffusion and composition.","contrary_result":"Diffusivity changes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0483","id":"S9-0483","volume":"900v9","title":"A catalytic particle could oscillate between product-selective states under constant feed through internal oxygen storage.","prediction":"A catalytic particle could oscillate between product-selective states under constant feed through internal oxygen storage.","test":"Measure internal oxygen and products.","contrary":"Oscillation requires feed instability.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0483","hypothesis":"A catalytic particle could oscillate between product-selective states under constant feed through internal oxygen storage.","test":"Measure internal oxygen and products.","contrary_result":"Oscillation requires feed instability.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0484","id":"S9-0484","volume":"900v9","title":"A mineral grain could retain a hydration-cycle count in its subsequent induction time before structural damage appears.","prediction":"A mineral grain could retain a hydration-cycle count in its subsequent induction time before structural damage appears.","test":"Compare matched final hydration.","contrary":"Only final hydration matters.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0484","hypothesis":"A mineral grain could retain a hydration-cycle count in its subsequent induction time before structural damage appears.","test":"Compare matched final hydration.","contrary_result":"Only final hydration matters.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0484","hypothesis":"A mineral grain could retain a hydration-cycle count in its subsequent induction time before structural damage appears.","test":"Compare matched final hydration.","contrary_result":"Only final hydration matters.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"mineral hydration cycles crystallization induction memory experiment","selection_reason":"Matched final hydration isolates history."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0485","id":"S9-0485","volume":"900v9","title":"An inorganic adsorbent could show enhanced desorption after a small reverse-pressure step.","prediction":"An inorganic adsorbent could show enhanced desorption after a small reverse-pressure step.","test":"Measure release at equal final pressure.","contrary":"Release follows pressure monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0485","hypothesis":"An inorganic adsorbent could show enhanced desorption after a small reverse-pressure step.","test":"Measure release at equal final pressure.","contrary_result":"Release follows pressure monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0486","id":"S9-0486","volume":"900v9","title":"A seed crystal could amplify tiny thermal asymmetry into different impurity distributions without changing external shape.","prediction":"A seed crystal could amplify tiny thermal asymmetry into different impurity distributions without changing external shape.","test":"Map temperature and internal impurities.","contrary":"Shape changes are necessary.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0486","hypothesis":"A seed crystal could amplify tiny thermal asymmetry into different impurity distributions without changing external shape.","test":"Map temperature and internal impurities.","contrary_result":"Shape changes are necessary.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0487","id":"S9-0487","volume":"900v9","title":"A weakly buffered mineral suspension could form a moving pH plateau during dissolution.","prediction":"A weakly buffered mineral suspension could form a moving pH plateau during dissolution.","test":"Map pH and dissolved species.","contrary":"pH profiles remain smoothly graded.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0487","hypothesis":"A weakly buffered mineral suspension could form a moving pH plateau during dissolution.","test":"Map pH and dissolved species.","contrary_result":"pH profiles remain smoothly graded.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0487","hypothesis":"A weakly buffered mineral suspension could form a moving pH plateau during dissolution.","test":"Map pH and dissolved species.","contrary_result":"pH profiles remain smoothly graded.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"mineral dissolution pH plateau reaction diffusion experiment","selection_reason":"Spatial pH maps test the proposed plateau."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0488","id":"S9-0488","volume":"900v9","title":"A nonaqueous crystallizing solution could exhibit fewer inclusions after intermittent illumination below photochemical thresholds.","prediction":"A nonaqueous crystallizing solution could exhibit fewer inclusions after intermittent illumination below photochemical thresholds.","test":"Measure temperature, chemistry, and inclusions.","contrary":"Only heating explains differences.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0488","hypothesis":"A nonaqueous crystallizing solution could exhibit fewer inclusions after intermittent illumination below photochemical thresholds.","test":"Measure temperature, chemistry, and inclusions.","contrary_result":"Only heating explains differences.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0489","id":"S9-0489","volume":"900v9","title":"A reversible surface reaction could sharpen an initially broad concentration pulse through coverage-dependent uptake.","prediction":"A reversible surface reaction could sharpen an initially broad concentration pulse through coverage-dependent uptake.","test":"Measure inlet and outlet pulse widths.","contrary":"All pulses broaden.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0489","hypothesis":"A reversible surface reaction could sharpen an initially broad concentration pulse through coverage-dependent uptake.","test":"Measure inlet and outlet pulse widths.","contrary_result":"All pulses broaden.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0490","id":"S9-0490","volume":"900v9","title":"A metal oxide could reveal hidden adsorbate competition through delayed isotope release after a carrier switch.","prediction":"A metal oxide could reveal hidden adsorbate competition through delayed isotope release after a carrier switch.","test":"Measure isotope-resolved effluent.","contrary":"Release follows one independent adsorption timescale.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0490","hypothesis":"A metal oxide could reveal hidden adsorbate competition through delayed isotope release after a carrier switch.","test":"Measure isotope-resolved effluent.","contrary_result":"Release follows one independent adsorption timescale.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0491","id":"S9-0491","volume":"900v9","title":"A crystallization front could become smoother after adding trace inert particles that remain excluded from the solid.","prediction":"A crystallization front could become smoother after adding trace inert particles that remain excluded from the solid.","test":"Map front roughness and particle exclusion.","contrary":"Smoothing requires particle incorporation.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0491","hypothesis":"A crystallization front could become smoother after adding trace inert particles that remain excluded from the solid.","test":"Map front roughness and particle exclusion.","contrary_result":"Smoothing requires particle incorporation.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0491","hypothesis":"A crystallization front could become smoother after adding trace inert particles that remain excluded from the solid.","test":"Map front roughness and particle exclusion.","contrary_result":"Smoothing requires particle incorporation.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"crystallization front inert excluded particles roughness experiment","selection_reason":"Microscopy can verify exclusion while measuring roughness."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0492","id":"S9-0492","volume":"900v9","title":"A salt hydrate pair could exchange water through vapor in alternating bursts under constant temperature.","prediction":"A salt hydrate pair could exchange water through vapor in alternating bursts under constant temperature.","test":"Measure each mass independently.","contrary":"Exchange decays monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0492","hypothesis":"A salt hydrate pair could exchange water through vapor in alternating bursts under constant temperature.","test":"Measure each mass independently.","contrary_result":"Exchange decays monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0493","id":"S9-0493","volume":"900v9","title":"A porous catalyst could develop a traveling activity maximum during uniform reactant introduction.","prediction":"A porous catalyst could develop a traveling activity maximum during uniform reactant introduction.","test":"Map local reaction rates.","contrary":"Activity rises uniformly.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0493","hypothesis":"A porous catalyst could develop a traveling activity maximum during uniform reactant introduction.","test":"Map local reaction rates.","contrary_result":"Activity rises uniformly.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0494","id":"S9-0494","volume":"900v9","title":"A mineral dissolution front could retain the direction of a previous weak electric field through defect redistribution.","prediction":"A mineral dissolution front could retain the direction of a previous weak electric field through defect redistribution.","test":"Reverse field histories and image fronts.","contrary":"Fronts depend only on current field.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0494","hypothesis":"A mineral dissolution front could retain the direction of a previous weak electric field through defect redistribution.","test":"Reverse field histories and image fronts.","contrary_result":"Fronts depend only on current field.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0494","hypothesis":"A mineral dissolution front could retain the direction of a previous weak electric field through defect redistribution.","test":"Reverse field histories and image fronts.","contrary_result":"Fronts depend only on current field.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"mineral dissolution electric field history defect redistribution experiment","selection_reason":"Reversed conditioning fields test directional memory."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0495","id":"S9-0495","volume":"900v9","title":"A reversible inorganic color reaction could distinguish mixing order even after bulk concentrations equilibrate.","prediction":"A reversible inorganic color reaction could distinguish mixing order even after bulk concentrations equilibrate.","test":"Measure color and local speciation.","contrary":"Color depends only on final concentrations.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0495","hypothesis":"A reversible inorganic color reaction could distinguish mixing order even after bulk concentrations equilibrate.","test":"Measure color and local speciation.","contrary_result":"Color depends only on final concentrations.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0496","id":"S9-0496","volume":"900v9","title":"A crystal surface could exhibit a nonmonotonic step-density response to increasing dissolved inert gas.","prediction":"A crystal surface could exhibit a nonmonotonic step-density response to increasing dissolved inert gas.","test":"Measure step density at fixed chemistry.","contrary":"Response is monotonic.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0496","hypothesis":"A crystal surface could exhibit a nonmonotonic step-density response to increasing dissolved inert gas.","test":"Measure step density at fixed chemistry.","contrary_result":"Response is monotonic.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0497","id":"S9-0497","volume":"900v9","title":"A drying salt solution could form a protective crust that temporarily increases rather than decreases interior mixing.","prediction":"A drying salt solution could form a protective crust that temporarily increases rather than decreases interior mixing.","test":"Measure internal flow and crust growth.","contrary":"Crust always suppresses mixing.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0497","hypothesis":"A drying salt solution could form a protective crust that temporarily increases rather than decreases interior mixing.","test":"Measure internal flow and crust growth.","contrary_result":"Crust always suppresses mixing.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0498","id":"S9-0498","volume":"900v9","title":"A catalyst pellet could show a reaction-rate overshoot after a short inert interruption without stored reactant accumulation.","prediction":"A catalyst pellet could show a reaction-rate overshoot after a short inert interruption without stored reactant accumulation.","test":"Measure uptake and heat.","contrary":"Stored reactant fully explains overshoot.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0498","hypothesis":"A catalyst pellet could show a reaction-rate overshoot after a short inert interruption without stored reactant accumulation.","test":"Measure uptake and heat.","contrary_result":"Stored reactant fully explains overshoot.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0499","id":"S9-0499","volume":"900v9","title":"A precipitate's magnetic susceptibility could reveal ion sorting before crystalline phases become diffraction-resolvable.","prediction":"A precipitate's magnetic susceptibility could reveal ion sorting before crystalline phases become diffraction-resolvable.","test":"Measure susceptibility and diffraction together.","contrary":"Magnetic changes follow resolved phases.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0499","hypothesis":"A precipitate's magnetic susceptibility could reveal ion sorting before crystalline phases become diffraction-resolvable.","test":"Measure susceptibility and diffraction together.","contrary_result":"Magnetic changes follow resolved phases.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0500","id":"S9-0500","volume":"900v9","title":"A reversible ion-exchange solid could release latent strain in discrete acoustic events during otherwise smooth uptake.","prediction":"A reversible ion-exchange solid could release latent strain in discrete acoustic events during otherwise smooth uptake.","test":"Measure strain, uptake, and sound.","contrary":"Events require fractures.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0500","hypothesis":"A reversible ion-exchange solid could release latent strain in discrete acoustic events during otherwise smooth uptake.","test":"Measure strain, uptake, and sound.","contrary_result":"Events require fractures.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0501","id":"S9-0501","volume":"900v9","title":"A detached leaf's cooling pattern could reveal stomatal closure synchrony before mean transpiration changes.","prediction":"A detached leaf's cooling pattern could reveal stomatal closure synchrony before mean transpiration changes.","test":"Measure thermal maps and water loss.","contrary":"Mean transpiration changes first.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0501","hypothesis":"A detached leaf's cooling pattern could reveal stomatal closure synchrony before mean transpiration changes.","test":"Measure thermal maps and water loss.","contrary_result":"Mean transpiration changes first.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0502","id":"S9-0502","volume":"900v9","title":"A seed coat could redirect swelling stress away from its germination pore through anisotropic microcrack closure.","prediction":"A seed coat could redirect swelling stress away from its germination pore through anisotropic microcrack closure.","test":"Image hydration and strain.","contrary":"Stress remains isotropic.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0502","hypothesis":"A seed coat could redirect swelling stress away from its germination pore through anisotropic microcrack closure.","test":"Image hydration and strain.","contrary_result":"Stress remains isotropic.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0503","id":"S9-0503","volume":"900v9","title":"A moss cushion could retain rainfall direction in its later evaporation pattern.","prediction":"A moss cushion could retain rainfall direction in its later evaporation pattern.","test":"Apply equal water from reversed angles.","contrary":"Evaporation depends only on total water.","layers":[1,2],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0503","hypothesis":"A moss cushion could retain rainfall direction in its later evaporation pattern.","test":"Apply equal water from reversed angles.","contrary_result":"Evaporation depends only on total water.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0503","hypothesis":"A moss cushion could retain rainfall direction in its later evaporation pattern.","test":"Apply equal water from reversed angles.","contrary_result":"Evaporation depends only on total water.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"moss rainfall direction evaporation spatial pattern experiment","selection_reason":"Water delivery can be reversed at equal dose."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0504","id":"S9-0504","volume":"900v9","title":"A plant root cap could alter local soil acoustics before detectable root displacement.","prediction":"A plant root cap could alter local soil acoustics before detectable root displacement.","test":"Measure acoustic transmission and root imaging.","contrary":"Changes follow displacement.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0504","hypothesis":"A plant root cap could alter local soil acoustics before detectable root displacement.","test":"Measure acoustic transmission and root imaging.","contrary_result":"Changes follow displacement.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0505","id":"S9-0505","volume":"900v9","title":"A pine needle cluster could suppress dew loss through vapor recapture between neighboring needles.","prediction":"A pine needle cluster could suppress dew loss through vapor recapture between neighboring needles.","test":"Measure isolated and clustered water budgets.","contrary":"Clustering changes only radiative cooling.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0505","hypothesis":"A pine needle cluster could suppress dew loss through vapor recapture between neighboring needles.","test":"Measure isolated and clustered water budgets.","contrary_result":"Clustering changes only radiative cooling.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0506","id":"S9-0506","volume":"900v9","title":"A lichen-covered stone could show a reversible thermal phase shift before bulk water uptake becomes measurable.","prediction":"A lichen-covered stone could show a reversible thermal phase shift before bulk water uptake becomes measurable.","test":"Measure temperature and microbalance signals.","contrary":"Phase shifts track bulk uptake only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0506","hypothesis":"A lichen-covered stone could show a reversible thermal phase shift before bulk water uptake becomes measurable.","test":"Measure temperature and microbalance signals.","contrary_result":"Phase shifts track bulk uptake only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0507","id":"S9-0507","volume":"900v9","title":"A pollen-free flower petal could change mechanical damping during reversible hydration before its curvature changes.","prediction":"A pollen-free flower petal could change mechanical damping during reversible hydration before its curvature changes.","test":"Measure ringdown and shape.","contrary":"Damping follows curvature.","layers":[1,2],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0507","hypothesis":"A pollen-free flower petal could change mechanical damping during reversible hydration before its curvature changes.","test":"Measure ringdown and shape.","contrary_result":"Damping follows curvature.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0507","hypothesis":"A pollen-free flower petal could change mechanical damping during reversible hydration before its curvature changes.","test":"Measure ringdown and shape.","contrary_result":"Damping follows curvature.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"petal hydration mechanical damping curvature experiment","selection_reason":"Mechanical and shape recovery can be measured separately."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0508","id":"S9-0508","volume":"900v9","title":"A fallen leaf could channel rain toward its vein junctions despite locally hydrophobic surfaces.","prediction":"A fallen leaf could channel rain toward its vein junctions despite locally hydrophobic surfaces.","test":"Image flow and surface chemistry.","contrary":"Flow follows wettability alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0508","hypothesis":"A fallen leaf could channel rain toward its vein junctions despite locally hydrophobic surfaces.","test":"Image flow and surface chemistry.","contrary_result":"Flow follows wettability alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0509","id":"S9-0509","volume":"900v9","title":"A tree-bark fragment could distinguish fog wetting from rainfall through different acoustic relaxation paths.","prediction":"A tree-bark fragment could distinguish fog wetting from rainfall through different acoustic relaxation paths.","test":"Match final water content.","contrary":"Paths coincide after moisture matching.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0509","hypothesis":"A tree-bark fragment could distinguish fog wetting from rainfall through different acoustic relaxation paths.","test":"Match final water content.","contrary_result":"Paths coincide after moisture matching.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0510","id":"S9-0510","volume":"900v9","title":"A nonviable seed could reveal internal pore connectivity through the phase of humidity-driven expansion.","prediction":"A nonviable seed could reveal internal pore connectivity through the phase of humidity-driven expansion.","test":"Measure expansion and tomography.","contrary":"Phase follows coat thickness only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0510","hypothesis":"A nonviable seed could reveal internal pore connectivity through the phase of humidity-driven expansion.","test":"Measure expansion and tomography.","contrary_result":"Phase follows coat thickness only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0511","id":"S9-0511","volume":"900v9","title":"A grass awn could switch its torsional response after partial rather than complete wetting.","prediction":"A grass awn could switch its torsional response after partial rather than complete wetting.","test":"Image water distribution and twist.","contrary":"Twist depends only on mean moisture.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0511","hypothesis":"A grass awn could switch its torsional response after partial rather than complete wetting.","test":"Image water distribution and twist.","contrary_result":"Twist depends only on mean moisture.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0512","id":"S9-0512","volume":"900v9","title":"A dry wood cross-section could retain pulse-heating direction in its subsequent moisture redistribution.","prediction":"A dry wood cross-section could retain pulse-heating direction in its subsequent moisture redistribution.","test":"Reverse heating histories.","contrary":"Redistribution follows final temperature only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0512","hypothesis":"A dry wood cross-section could retain pulse-heating direction in its subsequent moisture redistribution.","test":"Reverse heating histories.","contrary_result":"Redistribution follows final temperature only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0513","id":"S9-0513","volume":"900v9","title":"A benign algal film could redistribute absorbed light laterally before its total photosynthetic rate changes.","prediction":"A benign algal film could redistribute absorbed light laterally before its total photosynthetic rate changes.","test":"Map fluorescence and local illumination.","contrary":"Fluorescence changes stay local.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0513","hypothesis":"A benign algal film could redistribute absorbed light laterally before its total photosynthetic rate changes.","test":"Map fluorescence and local illumination.","contrary_result":"Fluorescence changes stay local.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0514","id":"S9-0514","volume":"900v9","title":"A fruit skin could reveal internal turgor redistribution through changes in surface-wave dispersion.","prediction":"A fruit skin could reveal internal turgor redistribution through changes in surface-wave dispersion.","test":"Measure waves and internal pressure.","contrary":"Dispersion follows skin thickness alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0514","hypothesis":"A fruit skin could reveal internal turgor redistribution through changes in surface-wave dispersion.","test":"Measure waves and internal pressure.","contrary_result":"Dispersion follows skin thickness alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0515","id":"S9-0515","volume":"900v9","title":"A dormant bud scale could delay freezing by redirecting condensation away from its hinge.","prediction":"A dormant bud scale could delay freezing by redirecting condensation away from its hinge.","test":"Image condensation and freeze onset.","contrary":"Delay follows insulation alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0515","hypothesis":"A dormant bud scale could delay freezing by redirecting condensation away from its hinge.","test":"Image condensation and freeze onset.","contrary_result":"Delay follows insulation alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0516","id":"S9-0516","volume":"900v9","title":"A fern frond could shed droplets more effectively after a weak torsional oscillation than equal-energy bending.","prediction":"A fern frond could shed droplets more effectively after a weak torsional oscillation than equal-energy bending.","test":"Compare retained water.","contrary":"Motion type makes no difference.","layers":[1,2],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0516","hypothesis":"A fern frond could shed droplets more effectively after a weak torsional oscillation than equal-energy bending.","test":"Compare retained water.","contrary_result":"Motion type makes no difference.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0516","hypothesis":"A fern frond could shed droplets more effectively after a weak torsional oscillation than equal-energy bending.","test":"Compare retained water.","contrary_result":"Motion type makes no difference.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"fern frond torsion bending droplet shedding experiment","selection_reason":"Equal-energy motions test the proposed advantage."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0517","id":"S9-0517","volume":"900v9","title":"A mushroom-free decomposing wood sample could show acoustic precursors of capillary bridge collapse during drying.","prediction":"A mushroom-free decomposing wood sample could show acoustic precursors of capillary bridge collapse during drying.","test":"Measure sound and water loss.","contrary":"Events follow visible collapse.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0517","hypothesis":"A mushroom-free decomposing wood sample could show acoustic precursors of capillary bridge collapse during drying.","test":"Measure sound and water loss.","contrary_result":"Events follow visible collapse.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0518","id":"S9-0518","volume":"900v9","title":"A plant stem's acoustic modes could distinguish embolized conduits from uniformly reduced hydration.","prediction":"A plant stem's acoustic modes could distinguish embolized conduits from uniformly reduced hydration.","test":"Compare imaging and modes.","contrary":"Modes reveal only total water.","layers":[1],"categories":["physical","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0518","hypothesis":"A plant stem's acoustic modes could distinguish embolized conduits from uniformly reduced hydration.","test":"Compare imaging and modes.","contrary_result":"Modes reveal only total water.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0519","id":"S9-0519","volume":"900v9","title":"A seed hair array could collect fog preferentially at intermediate flexibility through droplet-mediated bending.","prediction":"A seed hair array could collect fog preferentially at intermediate flexibility through droplet-mediated bending.","test":"Measure collection across stiffness.","contrary":"Capture increases monotonically with flexibility.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0519","hypothesis":"A seed hair array could collect fog preferentially at intermediate flexibility through droplet-mediated bending.","test":"Measure collection across stiffness.","contrary_result":"Capture increases monotonically with flexibility.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0520","id":"S9-0520","volume":"900v9","title":"A moss layer could cool a stone faster after a brief dry interval than continuously wet conditions at equal water input.","prediction":"A moss layer could cool a stone faster after a brief dry interval than continuously wet conditions at equal water input.","test":"Measure heat and water budgets.","contrary":"Continuous wetting always cools faster.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0520","hypothesis":"A moss layer could cool a stone faster after a brief dry interval than continuously wet conditions at equal water input.","test":"Measure heat and water budgets.","contrary_result":"Continuous wetting always cools faster.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0521","id":"S9-0521","volume":"900v9","title":"A leaf vein network could delay local freezing through pressure redistribution ahead of the ice front.","prediction":"A leaf vein network could delay local freezing through pressure redistribution ahead of the ice front.","test":"Measure local pressure and freezing.","contrary":"Pressure changes follow ice arrival.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0521","hypothesis":"A leaf vein network could delay local freezing through pressure redistribution ahead of the ice front.","test":"Measure local pressure and freezing.","contrary_result":"Pressure changes follow ice arrival.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0522","id":"S9-0522","volume":"900v9","title":"A piece of cork could reveal compression history through anisotropic vapor uptake after shape recovery.","prediction":"A piece of cork could reveal compression history through anisotropic vapor uptake after shape recovery.","test":"Measure orthogonal uptake fronts.","contrary":"Uptake follows recovered geometry alone.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0522","hypothesis":"A piece of cork could reveal compression history through anisotropic vapor uptake after shape recovery.","test":"Measure orthogonal uptake fronts.","contrary_result":"Uptake follows recovered geometry alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0522","hypothesis":"A piece of cork could reveal compression history through anisotropic vapor uptake after shape recovery.","test":"Measure orthogonal uptake fronts.","contrary_result":"Uptake follows recovered geometry alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"cork compression humidity sorption anisotropy experiment","selection_reason":"Shape recovery can be checked before uptake measurement."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0523","id":"S9-0523","volume":"900v9","title":"A benign freshwater biofilm could show reversible optical intermittency during nutrient-free hydration cycles.","prediction":"A benign freshwater biofilm could show reversible optical intermittency during nutrient-free hydration cycles.","test":"Measure fluorescence and thickness.","contrary":"Intermittency requires growth.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0523","hypothesis":"A benign freshwater biofilm could show reversible optical intermittency during nutrient-free hydration cycles.","test":"Measure fluorescence and thickness.","contrary_result":"Intermittency requires growth.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0524","id":"S9-0524","volume":"900v9","title":"A dry grass stem could twist toward a humidity source before its mean mass changes measurably.","prediction":"A dry grass stem could twist toward a humidity source before its mean mass changes measurably.","test":"Measure twist and mass sensitivity.","contrary":"Twist follows uniform uptake.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0524","hypothesis":"A dry grass stem could twist toward a humidity source before its mean mass changes measurably.","test":"Measure twist and mass sensitivity.","contrary_result":"Twist follows uniform uptake.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0525","id":"S9-0525","volume":"900v9","title":"A leaf litter layer could develop a preferred thermal conduction direction after repeated dew cycles without settling.","prediction":"A leaf litter layer could develop a preferred thermal conduction direction after repeated dew cycles without settling.","test":"Measure geometry and thermal tensor.","contrary":"Anisotropy requires compaction.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0525","hypothesis":"A leaf litter layer could develop a preferred thermal conduction direction after repeated dew cycles without settling.","test":"Measure geometry and thermal tensor.","contrary_result":"Anisotropy requires compaction.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0526","id":"S9-0526","volume":"900v9","title":"A plant cuticle could exhibit lower vapor permeability at intermediate mechanical tension.","prediction":"A plant cuticle could exhibit lower vapor permeability at intermediate mechanical tension.","test":"Measure flux across tension.","contrary":"Flux varies monotonically.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0526","hypothesis":"A plant cuticle could exhibit lower vapor permeability at intermediate mechanical tension.","test":"Measure flux across tension.","contrary_result":"Flux varies monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0527","id":"S9-0527","volume":"900v9","title":"A seed's internal moisture front could pause at an interface that has no visible density contrast.","prediction":"A seed's internal moisture front could pause at an interface that has no visible density contrast.","test":"Map hydration and microstructure.","contrary":"Pauses coincide only with coat boundaries.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0527","hypothesis":"A seed's internal moisture front could pause at an interface that has no visible density contrast.","test":"Map hydration and microstructure.","contrary_result":"Pauses coincide only with coat boundaries.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0528","id":"S9-0528","volume":"900v9","title":"A nonliving cellulose vein scaffold could retain mineral particles through reversible wetting-induced torsion.","prediction":"A nonliving cellulose vein scaffold could retain mineral particles through reversible wetting-induced torsion.","test":"Measure retention and torsion.","contrary":"Capture follows surface adhesion only.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0528","hypothesis":"A nonliving cellulose vein scaffold could retain mineral particles through reversible wetting-induced torsion.","test":"Measure retention and torsion.","contrary_result":"Capture follows surface adhesion only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0529","id":"S9-0529","volume":"900v9","title":"A submerged aquatic leaf could create a transient oxygen supersaturation shell after illumination ends.","prediction":"A submerged aquatic leaf could create a transient oxygen supersaturation shell after illumination ends.","test":"Map dissolved oxygen and flow.","contrary":"Oxygen decreases everywhere immediately.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0529","hypothesis":"A submerged aquatic leaf could create a transient oxygen supersaturation shell after illumination ends.","test":"Map dissolved oxygen and flow.","contrary_result":"Oxygen decreases everywhere immediately.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0530","id":"S9-0530","volume":"900v9","title":"A bark fissure could concentrate dew at its cooler side while directing later evaporation toward its warmer side.","prediction":"A bark fissure could concentrate dew at its cooler side while directing later evaporation toward its warmer side.","test":"Image both transitions.","contrary":"Both follow the same geometric pathway.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0530","hypothesis":"A bark fissure could concentrate dew at its cooler side while directing later evaporation toward its warmer side.","test":"Image both transitions.","contrary_result":"Both follow the same geometric pathway.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0531","id":"S9-0531","volume":"900v9","title":"A dry cone scale could encode humidity-ramp speed in its mechanical relaxation after identical endpoints.","prediction":"A dry cone scale could encode humidity-ramp speed in its mechanical relaxation after identical endpoints.","test":"Measure angle recovery.","contrary":"Only endpoint moisture matters.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0531","hypothesis":"A dry cone scale could encode humidity-ramp speed in its mechanical relaxation after identical endpoints.","test":"Measure angle recovery.","contrary_result":"Only endpoint moisture matters.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0531","hypothesis":"A dry cone scale could encode humidity-ramp speed in its mechanical relaxation after identical endpoints.","test":"Measure angle recovery.","contrary_result":"Only endpoint moisture matters.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"pine cone scale humidity ramp rate relaxation hysteresis experiment","selection_reason":"Cheap nonliving specimens and angle tracking enable repeated controls."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0532","id":"S9-0532","volume":"900v9","title":"A root-free soil crust could resist erosion longer after alternating mist and drying than continuous wetting at equal water dose.","prediction":"A root-free soil crust could resist erosion longer after alternating mist and drying than continuous wetting at equal water dose.","test":"Measure structure and erosion.","contrary":"Dose alone predicts strength.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0532","hypothesis":"A root-free soil crust could resist erosion longer after alternating mist and drying than continuous wetting at equal water dose.","test":"Measure structure and erosion.","contrary_result":"Dose alone predicts strength.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0533","id":"S9-0533","volume":"900v9","title":"A living moss edge could propagate a hydration-induced electrical signal faster than its water front.","prediction":"A living moss edge could propagate a hydration-induced electrical signal faster than its water front.","test":"Measure potential and moisture.","contrary":"Potential changes follow water arrival.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0533","hypothesis":"A living moss edge could propagate a hydration-induced electrical signal faster than its water front.","test":"Measure potential and moisture.","contrary_result":"Potential changes follow water arrival.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0534","id":"S9-0534","volume":"900v9","title":"A detached petal could show wavelength-specific transmission changes before visible wilting.","prediction":"A detached petal could show wavelength-specific transmission changes before visible wilting.","test":"Measure spectra and water status.","contrary":"Spectra change only after shape changes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0534","hypothesis":"A detached petal could show wavelength-specific transmission changes before visible wilting.","test":"Measure spectra and water status.","contrary_result":"Spectra change only after shape changes.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0535","id":"S9-0535","volume":"900v9","title":"A wood knot could focus ultrasonic energy differently during adsorption and desorption at equal moisture.","prediction":"A wood knot could focus ultrasonic energy differently during adsorption and desorption at equal moisture.","test":"Map acoustic fields.","contrary":"Fields depend only on moisture.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0535","hypothesis":"A wood knot could focus ultrasonic energy differently during adsorption and desorption at equal moisture.","test":"Map acoustic fields.","contrary_result":"Fields depend only on moisture.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0536","id":"S9-0536","volume":"900v9","title":"A leaf's upper and lower surfaces could exchange their dominant condensation role during progressive cooling.","prediction":"A leaf's upper and lower surfaces could exchange their dominant condensation role during progressive cooling.","test":"Measure surface temperatures and droplets.","contrary":"One surface always dominates.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0536","hypothesis":"A leaf's upper and lower surfaces could exchange their dominant condensation role during progressive cooling.","test":"Measure surface temperatures and droplets.","contrary_result":"One surface always dominates.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0537","id":"S9-0537","volume":"900v9","title":"A seed coat could reduce imbibition damage through a temporary inward buckle rather than gradual expansion.","prediction":"A seed coat could reduce imbibition damage through a temporary inward buckle rather than gradual expansion.","test":"Image strains and leakage.","contrary":"Protection occurs without buckling.","layers":[1],"categories":["energy","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0537","hypothesis":"A seed coat could reduce imbibition damage through a temporary inward buckle rather than gradual expansion.","test":"Image strains and leakage.","contrary_result":"Protection occurs without buckling.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0538","id":"S9-0538","volume":"900v9","title":"A moss canopy could synchronize droplet release through elastic coupling across neighboring stems.","prediction":"A moss canopy could synchronize droplet release through elastic coupling across neighboring stems.","test":"Measure release times and stem motion.","contrary":"Release timing is independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0538","hypothesis":"A moss canopy could synchronize droplet release through elastic coupling across neighboring stems.","test":"Measure release times and stem motion.","contrary_result":"Release timing is independent.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0539","id":"S9-0539","volume":"900v9","title":"A plant-derived porous shell could separate vapor uptake from liquid intrusion through opposite vibration-frequency shifts.","prediction":"A plant-derived porous shell could separate vapor uptake from liquid intrusion through opposite vibration-frequency shifts.","test":"Calibrate both routes.","contrary":"Frequency follows total uptake only.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0539","hypothesis":"A plant-derived porous shell could separate vapor uptake from liquid intrusion through opposite vibration-frequency shifts.","test":"Calibrate both routes.","contrary_result":"Frequency follows total uptake only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0540","id":"S9-0540","volume":"900v9","title":"A detached grass blade could exhibit a reversible stiffness maximum during drying.","prediction":"A detached grass blade could exhibit a reversible stiffness maximum during drying.","test":"Measure modulus versus water content.","contrary":"Stiffness changes monotonically.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0540","hypothesis":"A detached grass blade could exhibit a reversible stiffness maximum during drying.","test":"Measure modulus versus water content.","contrary_result":"Stiffness changes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0540","hypothesis":"A detached grass blade could exhibit a reversible stiffness maximum during drying.","test":"Measure modulus versus water content.","contrary_result":"Stiffness changes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"grass blade drying stiffness water content experiment","selection_reason":"A moisture-resolved modulus curve tests the extremum directly."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0541","id":"S9-0541","volume":"900v9","title":"A benign algal suspension could show a light-dependent acoustic attenuation change before concentration changes.","prediction":"A benign algal suspension could show a light-dependent acoustic attenuation change before concentration changes.","test":"Measure attenuation with thermal controls.","contrary":"Changes follow heating only.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0541","hypothesis":"A benign algal suspension could show a light-dependent acoustic attenuation change before concentration changes.","test":"Measure attenuation with thermal controls.","contrary_result":"Changes follow heating only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0542","id":"S9-0542","volume":"900v9","title":"A dry leaf skeleton could stabilize a water bridge against vibration through vein flexure.","prediction":"A dry leaf skeleton could stabilize a water bridge against vibration through vein flexure.","test":"Measure rupture thresholds and vein motion.","contrary":"Flexure only lowers stability.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0542","hypothesis":"A dry leaf skeleton could stabilize a water bridge against vibration through vein flexure.","test":"Measure rupture thresholds and vein motion.","contrary_result":"Flexure only lowers stability.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0543","id":"S9-0543","volume":"900v9","title":"A bark plate could retain different thermal diffusivity after reversed freeze-thaw sequences with equal cycle count.","prediction":"A bark plate could retain different thermal diffusivity after reversed freeze-thaw sequences with equal cycle count.","test":"Measure microstructure and diffusivity.","contrary":"Count alone predicts changes.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0543","hypothesis":"A bark plate could retain different thermal diffusivity after reversed freeze-thaw sequences with equal cycle count.","test":"Measure microstructure and diffusivity.","contrary_result":"Count alone predicts changes.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0544","id":"S9-0544","volume":"900v9","title":"A root hair-free root segment could redistribute water laterally under weak bending before injury.","prediction":"A root hair-free root segment could redistribute water laterally under weak bending before injury.","test":"Image water and strain.","contrary":"Redistribution requires damage.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0544","hypothesis":"A root hair-free root segment could redistribute water laterally under weak bending before injury.","test":"Image water and strain.","contrary_result":"Redistribution requires damage.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0545","id":"S9-0545","volume":"900v9","title":"A fern spore case could exhibit an acoustic signature of humidity-rate sensitivity distinct from final humidity.","prediction":"A fern spore case could exhibit an acoustic signature of humidity-rate sensitivity distinct from final humidity.","test":"Measure sound and opening motion.","contrary":"Signals depend only on final humidity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0545","hypothesis":"A fern spore case could exhibit an acoustic signature of humidity-rate sensitivity distinct from final humidity.","test":"Measure sound and opening motion.","contrary_result":"Signals depend only on final humidity.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0546","id":"S9-0546","volume":"900v9","title":"A detached leaf could localize a hidden vein blockage through phase shifts in periodic heating.","prediction":"A detached leaf could localize a hidden vein blockage through phase shifts in periodic heating.","test":"Compare thermal maps and blockage imaging.","contrary":"Only steady temperature reveals blockage.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0546","hypothesis":"A detached leaf could localize a hidden vein blockage through phase shifts in periodic heating.","test":"Compare thermal maps and blockage imaging.","contrary_result":"Only steady temperature reveals blockage.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0547","id":"S9-0547","volume":"900v9","title":"A pine cone scale pair could desynchronize opening through asymmetric vapor shielding.","prediction":"A pine cone scale pair could desynchronize opening through asymmetric vapor shielding.","test":"Measure paired and isolated scales.","contrary":"Pairing changes amplitudes but not timing.","layers":[1,2,3],"categories":["measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0547","hypothesis":"A pine cone scale pair could desynchronize opening through asymmetric vapor shielding.","test":"Measure paired and isolated scales.","contrary_result":"Pairing changes amplitudes but not timing.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0547","hypothesis":"A pine cone scale pair could desynchronize opening through asymmetric vapor shielding.","test":"Measure paired and isolated scales.","contrary_result":"Pairing changes amplitudes but not timing.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"pine cone paired scale vapor shielding opening experiment","selection_reason":"Paired versus separated controls isolate vapor interaction."},"dossier":{"id":"S9-0547","hypothesis":"A pine cone scale pair could desynchronize opening through asymmetric vapor shielding.","test":"Measure paired and isolated scales.","contrary_result":"Pairing changes amplitudes but not timing.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"pine cone paired scale vapor shielding opening experiment","selection_reason":"Paired versus separated controls isolate vapor interaction.","rank":9,"title":"Vapor shielding between paired pine scales","reason":"Pair geometry and the time of opening are accessible independent variables. This question concerns external vapor interaction rather than the well-established internal hygromorph lag; exact novelty remains unresolved.","evidence":"The Structural and Mechanical Basis for Passive-Hydraulic Pine Cone Actuation and Journey of water in pine cones were returned as primary-paper abstracts describing internal actuation and water paths. Focused queries for paired-scale vapor shielding did not identify an exact matching experiment in the returned leads. This is not a systematic or exhaustive novelty search. Existing internal hysteresis is a confound, not evidence of external shielding.","sources":["https://pmc.ncbi.nlm.nih.gov/articles/PMC9284161/","https://doi.org/10.1038/srep09963","https://pmc.ncbi.nlm.nih.gov/articles/PMC12498252/"],"protocol":"Equilibrate individually tracked nonliving scales, then apply the same drying humidity step. Compare isolated scales, symmetric pairs and asymmetric pairs at controlled gaps, avoiding mechanical contact. Reverse which scale is sheltered. Measure each angle, mass where feasible, local humidity, temperature and airflow. Use inert shape-matched shields and open frames to separate vapor shielding from aerodynamic drag and radiative heating.","analysis":"Assume each normalized moisture state satisfies tau_i*m_i'=h-m_i. After a humidity step, the time to any common fractional recovery f is -tau_i*ln(1-f). Different external transfer resistance can therefore create an opening-time difference if it changes tau_i and angle tracks moisture. Identical time constants predict no desynchronization. This is a conditional transport consequence; no measurement establishes that the chosen pair geometry changes transfer resistance sufficiently.","counterexample":"Internal specimen variability can dominate timing even in isolation. Equal external shielding may slow both scales equally without desynchronizing them. Physical contact, unequal temperature or changing airflow could mimic the effect.","decision":"Predefine opening fraction and estimate each scale's isolated baseline time before pairing. Support requires a paired-minus-isolated timing interaction that reverses when sheltering is exchanged, beyond baseline specimen variation. Slowing both equally does not support asymmetric desynchronization. Report independent cones and never treat time samples as independent specimens.","data":"time_s,cone_id,scale_id,pair_layout,gap_m,local_humidity,temperature_C,air_speed_m_s,angle_rad"},"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0548","id":"S9-0548","volume":"900v9","title":"A naturally waxed plant surface could preserve directional droplet mobility after temporary wax softening.","prediction":"A naturally waxed plant surface could preserve directional droplet mobility after temporary wax softening.","test":"Measure texture and mobility recovery.","contrary":"Mobility loses all directionality.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0548","hypothesis":"A naturally waxed plant surface could preserve directional droplet mobility after temporary wax softening.","test":"Measure texture and mobility recovery.","contrary_result":"Mobility loses all directionality.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0549","id":"S9-0549","volume":"900v9","title":"A seed cluster could collectively delay cooling below freezing through humidity exchange without shared liquid contact.","prediction":"A seed cluster could collectively delay cooling below freezing through humidity exchange without shared liquid contact.","test":"Measure isolated and grouped temperatures.","contrary":"Delay is explained solely by thermal mass.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0549","hypothesis":"A seed cluster could collectively delay cooling below freezing through humidity exchange without shared liquid contact.","test":"Measure isolated and grouped temperatures.","contrary_result":"Delay is explained solely by thermal mass.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0550","id":"S9-0550","volume":"900v9","title":"A dry reed wall could show a humidity-dependent acoustic bandgap before visible swelling.","prediction":"A dry reed wall could show a humidity-dependent acoustic bandgap before visible swelling.","test":"Measure transmission and geometry.","contrary":"Bandgap changes follow geometric expansion only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0550","hypothesis":"A dry reed wall could show a humidity-dependent acoustic bandgap before visible swelling.","test":"Measure transmission and geometry.","contrary_result":"Bandgap changes follow geometric expansion only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0551","id":"S9-0551","volume":"900v9","title":"A detached leaf margin could concentrate crystallizing benign salts away from its interior during drying.","prediction":"A detached leaf margin could concentrate crystallizing benign salts away from its interior during drying.","test":"Map solute trajectories.","contrary":"Deposition follows evaporation rate only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0551","hypothesis":"A detached leaf margin could concentrate crystallizing benign salts away from its interior during drying.","test":"Map solute trajectories.","contrary_result":"Deposition follows evaporation rate only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0552","id":"S9-0552","volume":"900v9","title":"A moss substrate interface could reveal hydraulic disconnection through a sudden change in thermal fluctuation correlation.","prediction":"A moss substrate interface could reveal hydraulic disconnection through a sudden change in thermal fluctuation correlation.","test":"Measure correlation and water continuity.","contrary":"Correlation changes gradually with moisture only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0552","hypothesis":"A moss substrate interface could reveal hydraulic disconnection through a sudden change in thermal fluctuation correlation.","test":"Measure correlation and water continuity.","contrary_result":"Correlation changes gradually with moisture only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0553","id":"S9-0553","volume":"900v9","title":"A lignified plant fiber could show directional strain recovery under repeated low-amplitude wetting.","prediction":"A lignified plant fiber could show directional strain recovery under repeated low-amplitude wetting.","test":"Measure signed strain cycles.","contrary":"Recovery is symmetric.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0553","hypothesis":"A lignified plant fiber could show directional strain recovery under repeated low-amplitude wetting.","test":"Measure signed strain cycles.","contrary_result":"Recovery is symmetric.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0554","id":"S9-0554","volume":"900v9","title":"A leaf vein junction could act as a temporary water reservoir during rapid evaporation.","prediction":"A leaf vein junction could act as a temporary water reservoir during rapid evaporation.","test":"Image local water and flux.","contrary":"Junction water tracks adjacent tissue uniformly.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0554","hypothesis":"A leaf vein junction could act as a temporary water reservoir during rapid evaporation.","test":"Image local water and flux.","contrary_result":"Junction water tracks adjacent tissue uniformly.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0555","id":"S9-0555","volume":"900v9","title":"A nonliving plant stem could sort differently sized droplets by vibration through its tapered stiffness.","prediction":"A nonliving plant stem could sort differently sized droplets by vibration through its tapered stiffness.","test":"Measure droplet motion versus frequency.","contrary":"Sorting follows surface chemistry only.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0555","hypothesis":"A nonliving plant stem could sort differently sized droplets by vibration through its tapered stiffness.","test":"Measure droplet motion versus frequency.","contrary_result":"Sorting follows surface chemistry only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0556","id":"S9-0556","volume":"900v9","title":"A tree seed wing could retain a humidity-history-dependent flutter threshold after returning to the same shape.","prediction":"A tree seed wing could retain a humidity-history-dependent flutter threshold after returning to the same shape.","test":"Measure shape, moisture, and flutter.","contrary":"Threshold follows shape exclusively.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0556","hypothesis":"A tree seed wing could retain a humidity-history-dependent flutter threshold after returning to the same shape.","test":"Measure shape, moisture, and flutter.","contrary_result":"Threshold follows shape exclusively.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0557","id":"S9-0557","volume":"900v9","title":"A living root tip could produce a localized thermal signal before visible gravitropic bending.","prediction":"A living root tip could produce a localized thermal signal before visible gravitropic bending.","test":"Measure temperature with growth imaging.","contrary":"Signal follows bending.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0557","hypothesis":"A living root tip could produce a localized thermal signal before visible gravitropic bending.","test":"Measure temperature with growth imaging.","contrary_result":"Signal follows bending.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0558","id":"S9-0558","volume":"900v9","title":"A leaf cuticle's dielectric loss could distinguish surface dew from internal hydration.","prediction":"A leaf cuticle's dielectric loss could distinguish surface dew from internal hydration.","test":"Measure independent wetting routes.","contrary":"Loss spectra remain indistinguishable.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0558","hypothesis":"A leaf cuticle's dielectric loss could distinguish surface dew from internal hydration.","test":"Measure independent wetting routes.","contrary_result":"Loss spectra remain indistinguishable.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0559","id":"S9-0559","volume":"900v9","title":"A moss mat could retain fine mineral dust more strongly after one partial drying interval than after continuous saturation.","prediction":"A moss mat could retain fine mineral dust more strongly after one partial drying interval than after continuous saturation.","test":"Measure wash-off and water history.","contrary":"Retention depends only on final moisture.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0559","hypothesis":"A moss mat could retain fine mineral dust more strongly after one partial drying interval than after continuous saturation.","test":"Measure wash-off and water history.","contrary_result":"Retention depends only on final moisture.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0560","id":"S9-0560","volume":"900v9","title":"A wood surface could reveal fiber-level delamination through polarization changes in reflected ultrasound.","prediction":"A wood surface could reveal fiber-level delamination through polarization changes in reflected ultrasound.","test":"Compare signals with microscopy.","contrary":"Changes require macroscopic cracks.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0560","hypothesis":"A wood surface could reveal fiber-level delamination through polarization changes in reflected ultrasound.","test":"Compare signals with microscopy.","contrary_result":"Changes require macroscopic cracks.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0561","id":"S9-0561","volume":"900v9","title":"A dormant seed could exhibit a reversible dielectric overshoot during its first hydration without germination.","prediction":"A dormant seed could exhibit a reversible dielectric overshoot during its first hydration without germination.","test":"Measure dielectric response and water uptake.","contrary":"Response follows uptake monotonically.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0561","hypothesis":"A dormant seed could exhibit a reversible dielectric overshoot during its first hydration without germination.","test":"Measure dielectric response and water uptake.","contrary_result":"Response follows uptake monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0562","id":"S9-0562","volume":"900v9","title":"A detached succulent leaf could equalize internal pressure faster than water concentration after mild compression.","prediction":"A detached succulent leaf could equalize internal pressure faster than water concentration after mild compression.","test":"Measure both spatially.","contrary":"Both relax together.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0562","hypothesis":"A detached succulent leaf could equalize internal pressure faster than water concentration after mild compression.","test":"Measure both spatially.","contrary_result":"Both relax together.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0563","id":"S9-0563","volume":"900v9","title":"A bark microchannel could move condensate uphill through a sequence of mechanically opening scales.","prediction":"A bark microchannel could move condensate uphill through a sequence of mechanically opening scales.","test":"Image scale motion and liquid transport.","contrary":"Transport needs an external pressure source.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0563","hypothesis":"A bark microchannel could move condensate uphill through a sequence of mechanically opening scales.","test":"Image scale motion and liquid transport.","contrary_result":"Transport needs an external pressure source.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0564","id":"S9-0564","volume":"900v9","title":"A leaf litter fragment could show a thermal-noise signature of internal fungal-free decomposition before mass loss is resolved.","prediction":"A leaf litter fragment could show a thermal-noise signature of internal fungal-free decomposition before mass loss is resolved.","test":"Measure chemical change and noise.","contrary":"Noise follows humidity only.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0564","hypothesis":"A leaf litter fragment could show a thermal-noise signature of internal fungal-free decomposition before mass loss is resolved.","test":"Measure chemical change and noise.","contrary_result":"Noise follows humidity only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0565","id":"S9-0565","volume":"900v9","title":"A plant stem's outer sheath could redistribute an acoustic pulse around a damaged core.","prediction":"A plant stem's outer sheath could redistribute an acoustic pulse around a damaged core.","test":"Map wave paths.","contrary":"Transmission falls uniformly across the section.","layers":[1],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0565","hypothesis":"A plant stem's outer sheath could redistribute an acoustic pulse around a damaged core.","test":"Map wave paths.","contrary_result":"Transmission falls uniformly across the section.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0566","id":"S9-0566","volume":"900v9","title":"A dry moss branch could regain elasticity before completing water uptake.","prediction":"A dry moss branch could regain elasticity before completing water uptake.","test":"Measure modulus and mass simultaneously.","contrary":"Elasticity follows total uptake only.","layers":[1,2,3],"categories":["measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0566","hypothesis":"A dry moss branch could regain elasticity before completing water uptake.","test":"Measure modulus and mass simultaneously.","contrary_result":"Elasticity follows total uptake only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0566","hypothesis":"A dry moss branch could regain elasticity before completing water uptake.","test":"Measure modulus and mass simultaneously.","contrary_result":"Elasticity follows total uptake only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"moss rehydration elasticity water uptake kinetics experiment","selection_reason":"Mass and stiffness supply independent recovery clocks."},"dossier":{"id":"S9-0566","hypothesis":"A dry moss branch could regain elasticity before completing water uptake.","test":"Measure modulus and mass simultaneously.","contrary_result":"Elasticity follows total uptake only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"moss rehydration elasticity water uptake kinetics experiment","selection_reason":"Mass and stiffness supply independent recovery clocks.","rank":3,"title":"Mechanical recovery before complete moss rehydration","reason":"Two independent recovery clocks make the claim falsifiable. Suitable local nonprotected moss and careful handling are needed; species and branch geometry can dominate the result.","evidence":"Perera-Castro et al., Desiccation tolerance in bryophytes relates to elasticity but is independent of cell wall thickness and photosynthesis (2022), accessible primary abstract, links elasticity with desiccation tolerance across species. It does not report that branch stiffness recovers before water uptake in this experiment.","sources":["https://pmc.ncbi.nlm.nih.gov/articles/PMC9314017/"],"protocol":"Measure small-force bending stiffness and mass on the same branch during a standardized rehydration, using forces verified not to damage it. Correct for changing length and cross-section rather than using force alone. Include fully wet and dry baselines, nonliving cellulose controls, temperature monitoring and repeated cycles. Separate stiffness from turgor-driven shape changes using images.","analysis":"Assume a mechanically important compartment hydrates as xf=1-exp(-t/tauf), while a slower reservoir hydrates as xs=1-exp(-t/taus), taus>tauf. If normalized stiffness follows xf and normalized uptake is (1-a)*xf+a*xs with0<a<1, uptake is strictly below stiffness for finite positive time. The time for uptake to reach90% therefore exceeds tauf*ln(10). The assumed compartment-to-stiffness mapping is the untested part.","counterexample":"If load-bearing cell walls hydrate more slowly than storage pores, stiffness can recover last. Surface water biases mass upward; evolving geometry can falsely imply stiffness recovery.","decision":"Compare prespecified90% recovery times with uncertainty from mass and stiffness measurements. Recovery must be toward the original wet reference rather than a newly damaged state. Do not substitute photosynthesis recovery for mechanical recovery.","data":"time_s,branch_id,cycle,mass_g,length_m,section_m2,force_N,deflection_m,temperature_C"},"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0567","id":"S9-0567","volume":"900v9","title":"A seed surface could nucleate frost preferentially away from its water-entry pore.","prediction":"A seed surface could nucleate frost preferentially away from its water-entry pore.","test":"Map freezing sites and pore location.","contrary":"Sites are random after temperature correction.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0567","hypothesis":"A seed surface could nucleate frost preferentially away from its water-entry pore.","test":"Map freezing sites and pore location.","contrary_result":"Sites are random after temperature correction.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0568","id":"S9-0568","volume":"900v9","title":"A detached leaf could retain anisotropic residual tension after reversible osmotic cycling.","prediction":"A detached leaf could retain anisotropic residual tension after reversible osmotic cycling.","test":"Measure tension and final composition.","contrary":"Tension returns to its initial state.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0568","hypothesis":"A detached leaf could retain anisotropic residual tension after reversible osmotic cycling.","test":"Measure tension and final composition.","contrary_result":"Tension returns to its initial state.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0569","id":"S9-0569","volume":"900v9","title":"A cellulose-based natural membrane could exhibit a transient maximum in gas permeability during thawing.","prediction":"A cellulose-based natural membrane could exhibit a transient maximum in gas permeability during thawing.","test":"Measure gas flux and ice fraction.","contrary":"Flux rises monotonically.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0569","hypothesis":"A cellulose-based natural membrane could exhibit a transient maximum in gas permeability during thawing.","test":"Measure gas flux and ice fraction.","contrary_result":"Flux rises monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0570","id":"S9-0570","volume":"900v9","title":"A nonliving grass sheath could convert dew droplets into discrete torsional steps.","prediction":"A nonliving grass sheath could convert dew droplets into discrete torsional steps.","test":"Measure twist and individual droplets.","contrary":"Twist varies smoothly with water mass.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0570","hypothesis":"A nonliving grass sheath could convert dew droplets into discrete torsional steps.","test":"Measure twist and individual droplets.","contrary_result":"Twist varies smoothly with water mass.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0571","id":"S9-0571","volume":"900v9","title":"A benign algal aggregate could cool more slowly after illumination than an inert aggregate with matched absorption.","prediction":"A benign algal aggregate could cool more slowly after illumination than an inert aggregate with matched absorption.","test":"Measure heat and metabolic state.","contrary":"Matched absorption explains all cooling.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0571","hypothesis":"A benign algal aggregate could cool more slowly after illumination than an inert aggregate with matched absorption.","test":"Measure heat and metabolic state.","contrary_result":"Matched absorption explains all cooling.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0572","id":"S9-0572","volume":"900v9","title":"A plant root's mucilage-free exterior could retain the direction of mild abrasion in its later water spreading.","prediction":"A plant root's mucilage-free exterior could retain the direction of mild abrasion in its later water spreading.","test":"Map spreading and texture.","contrary":"Spreading is isotropic.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0572","hypothesis":"A plant root's mucilage-free exterior could retain the direction of mild abrasion in its later water spreading.","test":"Map spreading and texture.","contrary_result":"Spreading is isotropic.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0573","id":"S9-0573","volume":"900v9","title":"A dry wood lumen could refill through two separated fronts rather than one continuous meniscus.","prediction":"A dry wood lumen could refill through two separated fronts rather than one continuous meniscus.","test":"Image internal water.","contrary":"A single front accounts for filling.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0573","hypothesis":"A dry wood lumen could refill through two separated fronts rather than one continuous meniscus.","test":"Image internal water.","contrary_result":"A single front accounts for filling.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0574","id":"S9-0574","volume":"900v9","title":"A fallen conifer needle could detect internal freeze-thaw damage through a mode-ratio change before mass loss.","prediction":"A fallen conifer needle could detect internal freeze-thaw damage through a mode-ratio change before mass loss.","test":"Compare acoustic modes and microscopy.","contrary":"Ratios change only with external geometry.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0574","hypothesis":"A fallen conifer needle could detect internal freeze-thaw damage through a mode-ratio change before mass loss.","test":"Compare acoustic modes and microscopy.","contrary_result":"Ratios change only with external geometry.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0575","id":"S9-0575","volume":"900v9","title":"A leaf surface could shed dew earlier when adjacent droplets have unequal sizes at equal total water.","prediction":"A leaf surface could shed dew earlier when adjacent droplets have unequal sizes at equal total water.","test":"Measure release thresholds.","contrary":"Total water alone predicts shedding.","layers":[1,2],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0575","hypothesis":"A leaf surface could shed dew earlier when adjacent droplets have unequal sizes at equal total water.","test":"Measure release thresholds.","contrary_result":"Total water alone predicts shedding.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0575","hypothesis":"A leaf surface could shed dew earlier when adjacent droplets have unequal sizes at equal total water.","test":"Measure release thresholds.","contrary_result":"Total water alone predicts shedding.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"leaf droplet size distribution shedding threshold experiment","selection_reason":"Equal total water tests distribution rather than load."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0576","id":"S9-0576","volume":"900v9","title":"A seed coat could transmit pressure pulses differently before and after reversible pore swelling.","prediction":"A seed coat could transmit pressure pulses differently before and after reversible pore swelling.","test":"Measure wave speed and pore geometry.","contrary":"Only density predicts transmission.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0576","hypothesis":"A seed coat could transmit pressure pulses differently before and after reversible pore swelling.","test":"Measure wave speed and pore geometry.","contrary_result":"Only density predicts transmission.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0577","id":"S9-0577","volume":"900v9","title":"A moss colony could develop a ring of maximum evaporation inside its perimeter rather than at its edge.","prediction":"A moss colony could develop a ring of maximum evaporation inside its perimeter rather than at its edge.","test":"Map water loss spatially.","contrary":"Maximum remains at the outer edge.","layers":[1],"categories":["anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0577","hypothesis":"A moss colony could develop a ring of maximum evaporation inside its perimeter rather than at its edge.","test":"Map water loss spatially.","contrary_result":"Maximum remains at the outer edge.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0578","id":"S9-0578","volume":"900v9","title":"A detached petal could recover color before recovering mechanical stiffness after rehydration.","prediction":"A detached petal could recover color before recovering mechanical stiffness after rehydration.","test":"Measure spectrum and modulus.","contrary":"Both recover on the same curve.","layers":[1,2,3],"categories":["measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0578","hypothesis":"A detached petal could recover color before recovering mechanical stiffness after rehydration.","test":"Measure spectrum and modulus.","contrary_result":"Both recover on the same curve.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0578","hypothesis":"A detached petal could recover color before recovering mechanical stiffness after rehydration.","test":"Measure spectrum and modulus.","contrary_result":"Both recover on the same curve.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"petal rehydration color stiffness recovery kinetics experiment","selection_reason":"Optics and mechanical stiffness can be measured independently."},"dossier":{"id":"S9-0578","hypothesis":"A detached petal could recover color before recovering mechanical stiffness after rehydration.","test":"Measure spectrum and modulus.","contrary_result":"Both recover on the same curve.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"petal rehydration color stiffness recovery kinetics experiment","selection_reason":"Optics and mechanical stiffness can be measured independently.","rank":4,"title":"Separate optical and mechanical clocks in petal rehydration","reason":"The observables are accessible, but ordering is less strongly supported than feasibility. This is a screening experiment rather than an expectation that all petals recover.","evidence":"The organ-specific role for ethylene in rose petal expansion during dehydration and rehydration (2013), primary publisher search record, concerns rehydration and petal expansion. Direct opening failed. Additional pigment and drying searches returned related work but no verified color-versus-stiffness recovery ordering. The evidence gap is material.","sources":["https://academic.oup.com/jxb/article/64/8/2333/645315"],"protocol":"Use petals from the same flower source, mild reversible dehydration, calibrated diffuse illumination, a color reference and gentle bending measurements. Track reflectance spectra, water mass, geometry and stiffness during recovery. Compare paired petals when one cannot undergo both tests without damage. Include never-dried and permanently damaged controls. Correct apparent color for curvature, viewing angle and specular reflection.","analysis":"If normalized optical recovery C=1-exp(-t/tauc) and mechanical recovery M=1-exp(-t/taum), color reaches any common fractional threshold first exactly when tauc<taum. At90%, times are tauc*ln(10) and taum*ln(10). This is an identifiability condition, not evidence that the inequality holds. Multi-stage pigment changes may invalidate the first-order approximation.","counterexample":"Optics may recover slowly because of irreversible pigment change, or mechanics may recover rapidly through turgor. A color shift caused solely by changing viewing geometry would not support the physiological interpretation.","decision":"Predeclare a spectral distance from the original hydrated state and a mechanical recovery fraction. Fit each curve separately and report uncertainty and nonrecovering specimens. Treat unsuccessful restoration as a result, not an excluded trial.","data":"time_s,petal_id,mass_g,spectral_distance,stiffness_N_per_m,curvature_per_m,temperature_C"},"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0579","id":"S9-0579","volume":"900v9","title":"A natural fiber bundle could show greater capillary uptake after untwisting than before twisting at equal final geometry.","prediction":"A natural fiber bundle could show greater capillary uptake after untwisting than before twisting at equal final geometry.","test":"Image contact network and uptake.","contrary":"Final geometry fully predicts uptake.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0579","hypothesis":"A natural fiber bundle could show greater capillary uptake after untwisting than before twisting at equal final geometry.","test":"Image contact network and uptake.","contrary_result":"Final geometry fully predicts uptake.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0580","id":"S9-0580","volume":"900v9","title":"A root-free wet soil aggregate could retain the direction of compression in its subsequent ice-growth pattern.","prediction":"A root-free wet soil aggregate could retain the direction of compression in its subsequent ice-growth pattern.","test":"Compare reversed loading histories.","contrary":"Ice follows current temperature only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0580","hypothesis":"A root-free wet soil aggregate could retain the direction of compression in its subsequent ice-growth pattern.","test":"Compare reversed loading histories.","contrary_result":"Ice follows current temperature only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0581","id":"S9-0581","volume":"900v9","title":"A leaf's trapped surface air layer could change its acoustic signature before visible collapse underwater.","prediction":"A leaf's trapped surface air layer could change its acoustic signature before visible collapse underwater.","test":"Measure sound and reflected light.","contrary":"Acoustic change follows collapse.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0581","hypothesis":"A leaf's trapped surface air layer could change its acoustic signature before visible collapse underwater.","test":"Measure sound and reflected light.","contrary_result":"Acoustic change follows collapse.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0582","id":"S9-0582","volume":"900v9","title":"A cone scale could have maximum humidity-actuation efficiency at an intermediate rate of water delivery.","prediction":"A cone scale could have maximum humidity-actuation efficiency at an intermediate rate of water delivery.","test":"Measure work and uptake.","contrary":"Efficiency changes monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0582","hypothesis":"A cone scale could have maximum humidity-actuation efficiency at an intermediate rate of water delivery.","test":"Measure work and uptake.","contrary_result":"Efficiency changes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0583","id":"S9-0583","volume":"900v9","title":"A detached grass root could distinguish salt uptake from simple dehydration through opposite torsional transients.","prediction":"A detached grass root could distinguish salt uptake from simple dehydration through opposite torsional transients.","test":"Control osmotic pressure and composition.","contrary":"Torsion follows water loss alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0583","hypothesis":"A detached grass root could distinguish salt uptake from simple dehydration through opposite torsional transients.","test":"Control osmotic pressure and composition.","contrary_result":"Torsion follows water loss alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0584","id":"S9-0584","volume":"900v9","title":"A bark cavity could sustain a cooler interior by cycling condensation and evaporation under steady ambient humidity.","prediction":"A bark cavity could sustain a cooler interior by cycling condensation and evaporation under steady ambient humidity.","test":"Measure heat and moisture flows.","contrary":"Cooling vanishes after transient equilibration.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0584","hypothesis":"A bark cavity could sustain a cooler interior by cycling condensation and evaporation under steady ambient humidity.","test":"Measure heat and moisture flows.","contrary_result":"Cooling vanishes after transient equilibration.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0585","id":"S9-0585","volume":"900v9","title":"A seed wing could shift its aerodynamic damping sign during a reversible hydration gradient.","prediction":"A seed wing could shift its aerodynamic damping sign during a reversible hydration gradient.","test":"Measure gradients and flutter.","contrary":"Damping remains positive throughout.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0585","hypothesis":"A seed wing could shift its aerodynamic damping sign during a reversible hydration gradient.","test":"Measure gradients and flutter.","contrary_result":"Damping remains positive throughout.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0586","id":"S9-0586","volume":"900v9","title":"A moss stem junction could preferentially retain the smallest droplets through elastic closure.","prediction":"A moss stem junction could preferentially retain the smallest droplets through elastic closure.","test":"Image contacts and retention.","contrary":"Retention increases monotonically with droplet size.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0586","hypothesis":"A moss stem junction could preferentially retain the smallest droplets through elastic closure.","test":"Image contacts and retention.","contrary_result":"Retention increases monotonically with droplet size.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0587","id":"S9-0587","volume":"900v9","title":"A leaf's thermal phase map could reveal a previous mild dehydration after bulk hydration recovers.","prediction":"A leaf's thermal phase map could reveal a previous mild dehydration after bulk hydration recovers.","test":"Compare recovered and untreated leaves.","contrary":"Maps coincide after water matching.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0587","hypothesis":"A leaf's thermal phase map could reveal a previous mild dehydration after bulk hydration recovers.","test":"Compare recovered and untreated leaves.","contrary_result":"Maps coincide after water matching.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0588","id":"S9-0588","volume":"900v9","title":"A dry bamboo-like culm section could focus moisture-induced strain near internal partitions.","prediction":"A dry bamboo-like culm section could focus moisture-induced strain near internal partitions.","test":"Map strain and water uptake.","contrary":"Strain follows wall thickness alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0588","hypothesis":"A dry bamboo-like culm section could focus moisture-induced strain near internal partitions.","test":"Map strain and water uptake.","contrary_result":"Strain follows wall thickness alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0589","id":"S9-0589","volume":"900v9","title":"A plant wax film could show a reversible minimum in droplet contact-line noise near its softening interval.","prediction":"A plant wax film could show a reversible minimum in droplet contact-line noise near its softening interval.","test":"Measure noise and modulus.","contrary":"Noise varies monotonically.","layers":[1],"categories":["biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0589","hypothesis":"A plant wax film could show a reversible minimum in droplet contact-line noise near its softening interval.","test":"Measure noise and modulus.","contrary_result":"Noise varies monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0590","id":"S9-0590","volume":"900v9","title":"A nonliving seed coat could separate two equal-viscosity liquids through swelling-induced pore closure.","prediction":"A nonliving seed coat could separate two equal-viscosity liquids through swelling-induced pore closure.","test":"Measure flux and pore motion.","contrary":"Flux differences follow wettability only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0590","hypothesis":"A nonliving seed coat could separate two equal-viscosity liquids through swelling-induced pore closure.","test":"Measure flux and pore motion.","contrary_result":"Flux differences follow wettability only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0591","id":"S9-0591","volume":"900v9","title":"A detached leaf could redirect an advancing ice front around a vein through local elastic deformation.","prediction":"A detached leaf could redirect an advancing ice front around a vein through local elastic deformation.","test":"Image strain ahead of ice.","contrary":"Routing requires preexisting temperature differences.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0591","hypothesis":"A detached leaf could redirect an advancing ice front around a vein through local elastic deformation.","test":"Image strain ahead of ice.","contrary_result":"Routing requires preexisting temperature differences.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0592","id":"S9-0592","volume":"900v9","title":"A moss layer could absorb more acoustic energy immediately after misting than after equilibration at equal water mass.","prediction":"A moss layer could absorb more acoustic energy immediately after misting than after equilibration at equal water mass.","test":"Measure spectra and distribution.","contrary":"Only total water matters.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0592","hypothesis":"A moss layer could absorb more acoustic energy immediately after misting than after equilibration at equal water mass.","test":"Measure spectra and distribution.","contrary_result":"Only total water matters.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0593","id":"S9-0593","volume":"900v9","title":"A wood fiber crossing could retain a mechanical load's ordering in its subsequent humidity response.","prediction":"A wood fiber crossing could retain a mechanical load's ordering in its subsequent humidity response.","test":"Exchange loading order.","contrary":"Response depends only on maximum load.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0593","hypothesis":"A wood fiber crossing could retain a mechanical load's ordering in its subsequent humidity response.","test":"Exchange loading order.","contrary_result":"Response depends only on maximum load.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0594","id":"S9-0594","volume":"900v9","title":"A living plant tendril could exhibit a thermal precursor localized to its future bend site.","prediction":"A living plant tendril could exhibit a thermal precursor localized to its future bend site.","test":"Measure thermal maps and later curvature.","contrary":"Temperature changes follow bending.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0594","hypothesis":"A living plant tendril could exhibit a thermal precursor localized to its future bend site.","test":"Measure thermal maps and later curvature.","contrary_result":"Temperature changes follow bending.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0595","id":"S9-0595","volume":"900v9","title":"A dry leaf edge could collect neutral dust through oscillating thermal plumes without net ambient airflow.","prediction":"A dry leaf edge could collect neutral dust through oscillating thermal plumes without net ambient airflow.","test":"Measure flow and deposition.","contrary":"Deposition is explained by settling alone.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0595","hypothesis":"A dry leaf edge could collect neutral dust through oscillating thermal plumes without net ambient airflow.","test":"Measure flow and deposition.","contrary_result":"Deposition is explained by settling alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0596","id":"S9-0596","volume":"900v9","title":"A seed coat could become more permeable after a subfreezing excursion without forming detectable cracks.","prediction":"A seed coat could become more permeable after a subfreezing excursion without forming detectable cracks.","test":"Measure transport and high-resolution structure.","contrary":"Permeability changes require cracks.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0596","hypothesis":"A seed coat could become more permeable after a subfreezing excursion without forming detectable cracks.","test":"Measure transport and high-resolution structure.","contrary_result":"Permeability changes require cracks.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0597","id":"S9-0597","volume":"900v9","title":"A detached petal's polarization pattern could distinguish internal water redistribution from pigment concentration change.","prediction":"A detached petal's polarization pattern could distinguish internal water redistribution from pigment concentration change.","test":"Measure spectra and independent water maps.","contrary":"Polarization follows pigment only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0597","hypothesis":"A detached petal's polarization pattern could distinguish internal water redistribution from pigment concentration change.","test":"Measure spectra and independent water maps.","contrary_result":"Polarization follows pigment only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0598","id":"S9-0598","volume":"900v9","title":"A natural hollow stem could reveal internal condensation by splitting otherwise degenerate vibration modes.","prediction":"A natural hollow stem could reveal internal condensation by splitting otherwise degenerate vibration modes.","test":"Measure mode splitting and condensate location.","contrary":"Splitting reflects supports alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0598","hypothesis":"A natural hollow stem could reveal internal condensation by splitting otherwise degenerate vibration modes.","test":"Measure mode splitting and condensate location.","contrary_result":"Splitting reflects supports alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0599","id":"S9-0599","volume":"900v9","title":"A leaf litter stack could exhibit a maximum oxygen diffusivity at intermediate compression.","prediction":"A leaf litter stack could exhibit a maximum oxygen diffusivity at intermediate compression.","test":"Measure gas diffusion and pore connectivity.","contrary":"Diffusivity falls monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0599","hypothesis":"A leaf litter stack could exhibit a maximum oxygen diffusivity at intermediate compression.","test":"Measure gas diffusion and pore connectivity.","contrary_result":"Diffusivity falls monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0600","id":"S9-0600","volume":"900v9","title":"A benign algal film could recover optical orientation faster than photosynthetic efficiency after gentle shear.","prediction":"A benign algal film could recover optical orientation faster than photosynthetic efficiency after gentle shear.","test":"Measure scattering anisotropy and fluorescence.","contrary":"Both recover together.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0600","hypothesis":"A benign algal film could recover optical orientation faster than photosynthetic efficiency after gentle shear.","test":"Measure scattering anisotropy and fluorescence.","contrary_result":"Both recover together.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0601","id":"S9-0601","volume":"900v9","title":"A tilted sediment layer could trap a dissolved-gas lens above a permeability discontinuity before free bubbles form.","prediction":"A tilted sediment layer could trap a dissolved-gas lens above a permeability discontinuity before free bubbles form.","test":"Map gas concentration and pressure.","contrary":"Gas accumulates only after bubbling.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0601","hypothesis":"A tilted sediment layer could trap a dissolved-gas lens above a permeability discontinuity before free bubbles form.","test":"Map gas concentration and pressure.","contrary_result":"Gas accumulates only after bubbling.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0602","id":"S9-0602","volume":"900v9","title":"A sandy slope could emit a directional acoustic precursor before a humidity-triggered microfailure.","prediction":"A sandy slope could emit a directional acoustic precursor before a humidity-triggered microfailure.","test":"Measure sound arrays and displacement.","contrary":"Directionality begins after movement.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0602","hypothesis":"A sandy slope could emit a directional acoustic precursor before a humidity-triggered microfailure.","test":"Measure sound arrays and displacement.","contrary_result":"Directionality begins after movement.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0603","id":"S9-0603","volume":"900v9","title":"A layered clay sample could show a temporary increase in vertical permeability during initial drying.","prediction":"A layered clay sample could show a temporary increase in vertical permeability during initial drying.","test":"Measure flux and pore geometry.","contrary":"Permeability decreases monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0603","hypothesis":"A layered clay sample could show a temporary increase in vertical permeability during initial drying.","test":"Measure flux and pore geometry.","contrary_result":"Permeability decreases monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0604","id":"S9-0604","volume":"900v9","title":"A saline ice lens could migrate opposite an imposed pressure gradient under cyclic temperature forcing.","prediction":"A saline ice lens could migrate opposite an imposed pressure gradient under cyclic temperature forcing.","test":"Track lens position and heat flow.","contrary":"Motion follows pressure only.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0604","hypothesis":"A saline ice lens could migrate opposite an imposed pressure gradient under cyclic temperature forcing.","test":"Track lens position and heat flow.","contrary_result":"Motion follows pressure only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0605","id":"S9-0605","volume":"900v9","title":"A granular channel could self-select a stable erosion width through delayed bank wetting.","prediction":"A granular channel could self-select a stable erosion width through delayed bank wetting.","test":"Measure width and bank moisture.","contrary":"Width follows discharge without moisture delay.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0605","hypothesis":"A granular channel could self-select a stable erosion width through delayed bank wetting.","test":"Measure width and bank moisture.","contrary_result":"Width follows discharge without moisture delay.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0606","id":"S9-0606","volume":"900v9","title":"A porous rock could show a frequency-dependent reversal in acoustic anisotropy during gas invasion.","prediction":"A porous rock could show a frequency-dependent reversal in acoustic anisotropy during gas invasion.","test":"Measure broadband waves and gas distribution.","contrary":"Anisotropy retains its sign.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0606","hypothesis":"A porous rock could show a frequency-dependent reversal in acoustic anisotropy during gas invasion.","test":"Measure broadband waves and gas distribution.","contrary_result":"Anisotropy retains its sign.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0607","id":"S9-0607","volume":"900v9","title":"A thin sediment crust could suppress dust emission more after one partial rewetting than after full saturation and drying.","prediction":"A thin sediment crust could suppress dust emission more after one partial rewetting than after full saturation and drying.","test":"Match final moisture.","contrary":"Strength depends only on final density.","layers":[1,2,3],"categories":[],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0607","hypothesis":"A thin sediment crust could suppress dust emission more after one partial rewetting than after full saturation and drying.","test":"Match final moisture.","contrary_result":"Strength depends only on final density.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0607","hypothesis":"A thin sediment crust could suppress dust emission more after one partial rewetting than after full saturation and drying.","test":"Match final moisture.","contrary_result":"Strength depends only on final density.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"soil crust wetting drying history wind erosion experiment","selection_reason":"Water history can be changed while matching final moisture."},"dossier":{"id":"S9-0607","hypothesis":"A thin sediment crust could suppress dust emission more after one partial rewetting than after full saturation and drying.","test":"Match final moisture.","contrary_result":"Strength depends only on final density.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"soil crust wetting drying history wind erosion experiment","selection_reason":"Water history can be changed while matching final moisture.","rank":5,"title":"Partial wetting versus full wetting in sediment-crust protection","reason":"Direct erosion measurements and controlled final moisture are feasible. Mineral composition may reverse the effect, and related crust-history research makes broad novelty unlikely.","evidence":"Ishizuka et al. (2008), accessible primary abstract, relates weak raindroplet crusts and moisture to dust emission. A2026 primary publisher lead addresses wetting-drying alternation in sodium-sulfate crusts; direct access was rate-limited and its findings were not verified. Neither source is taken as proof of a partial-versus-full optimum.","sources":["https://doi.org/10.1029/2008JD009955","https://www.mdpi.com/2073-4433/17/8/794"],"protocol":"Prepare identical trays of clean nonhazardous sediment. Compare partial wetting, complete saturation and untreated controls, then condition to the same measured final water content. Keep droplet impact, salt inventory, drying temperature and packing history recorded. Measure crust strength and mass loss under the same enclosed airflow. Capture emitted material rather than dispersing dust into the room.","analysis":"A phenomenological strength S(w)=S0+a*w-b*w^2, a,b>0, has a maximum at w=a/(2b). For partial dose p and full dose f with0<p<f, S(p)>S(f) exactly when b*(p+f)>a. This illustrates competing consolidation and damage, but assumes their signs and functional form. It supplies no fitted soil constants and no physical proof.","counterexample":"If full wetting cements more strongly without slaking, b may be negligible and the proposed advantage disappears. Equal water content is insufficient if final density or salt distribution differs.","decision":"Primary outcome is captured mass loss at a specified airflow, with crust strength a secondary mechanism measure. Report moisture, density and cracks. Support needs replicated lower erosion after partial wetting; do not infer the result from indentation strength alone.","data":"tray_id,wetting_history,water_dose_g,final_water_fraction,dry_density_kg_m3,air_speed_m_s,mass_loss_g,crust_strength_Pa"},"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0608","id":"S9-0608","volume":"900v9","title":"A mineral vein could redirect a freezing front through its thermal expansion rather than conductivity.","prediction":"A mineral vein could redirect a freezing front through its thermal expansion rather than conductivity.","test":"Measure strain and matched thermal controls.","contrary":"Conductivity alone explains routing.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0608","hypothesis":"A mineral vein could redirect a freezing front through its thermal expansion rather than conductivity.","test":"Measure strain and matched thermal controls.","contrary_result":"Conductivity alone explains routing.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0609","id":"S9-0609","volume":"900v9","title":"A submerged sand ripple could migrate upstream briefly after flow cessation because pore pressure relaxes asymmetrically.","prediction":"A submerged sand ripple could migrate upstream briefly after flow cessation because pore pressure relaxes asymmetrically.","test":"Track ripple and pore pressure.","contrary":"Migration stops immediately.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0609","hypothesis":"A submerged sand ripple could migrate upstream briefly after flow cessation because pore pressure relaxes asymmetrically.","test":"Track ripple and pore pressure.","contrary_result":"Migration stops immediately.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0610","id":"S9-0610","volume":"900v9","title":"A soil aggregate could reveal disconnected pore water through a low-frequency dielectric phase maximum.","prediction":"A soil aggregate could reveal disconnected pore water through a low-frequency dielectric phase maximum.","test":"Measure connectivity and spectra.","contrary":"Phase follows total water alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0610","hypothesis":"A soil aggregate could reveal disconnected pore water through a low-frequency dielectric phase maximum.","test":"Measure connectivity and spectra.","contrary_result":"Phase follows total water alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0611","id":"S9-0611","volume":"900v9","title":"A sediment bed could retain the order of two mild floods in its subsequent entrainment threshold.","prediction":"A sediment bed could retain the order of two mild floods in its subsequent entrainment threshold.","test":"Exchange flow sequence.","contrary":"Only maximum shear predicts threshold.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0611","hypothesis":"A sediment bed could retain the order of two mild floods in its subsequent entrainment threshold.","test":"Exchange flow sequence.","contrary_result":"Only maximum shear predicts threshold.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0612","id":"S9-0612","volume":"900v9","title":"A fractured rock analogue could have a permeability maximum at intermediate confining pressure through contact rearrangement.","prediction":"A fractured rock analogue could have a permeability maximum at intermediate confining pressure through contact rearrangement.","test":"Measure aperture and flow.","contrary":"Permeability decreases monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0612","hypothesis":"A fractured rock analogue could have a permeability maximum at intermediate confining pressure through contact rearrangement.","test":"Measure aperture and flow.","contrary_result":"Permeability decreases monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0613","id":"S9-0613","volume":"900v9","title":"A salt-flat analogue could develop cooler stripes before visible polygonal cracks.","prediction":"A salt-flat analogue could develop cooler stripes before visible polygonal cracks.","test":"Map temperature and later fracture.","contrary":"Stripes follow existing cracks.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0613","hypothesis":"A salt-flat analogue could develop cooler stripes before visible polygonal cracks.","test":"Map temperature and later fracture.","contrary_result":"Stripes follow existing cracks.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0614","id":"S9-0614","volume":"900v9","title":"A weakly cemented sand could fail first where acoustic attenuation is lowest rather than highest.","prediction":"A weakly cemented sand could fail first where acoustic attenuation is lowest rather than highest.","test":"Map attenuation and failure.","contrary":"Attenuation has no predictive relation.","layers":[1],"categories":["physical","anomalies"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0614","hypothesis":"A weakly cemented sand could fail first where acoustic attenuation is lowest rather than highest.","test":"Map attenuation and failure.","contrary_result":"Attenuation has no predictive relation.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0615","id":"S9-0615","volume":"900v9","title":"A porous stone could release dissolved gas in synchronized bursts during slow warming.","prediction":"A porous stone could release dissolved gas in synchronized bursts during slow warming.","test":"Measure pressure and bubble timing.","contrary":"Release remains smooth.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0615","hypothesis":"A porous stone could release dissolved gas in synchronized bursts during slow warming.","test":"Measure pressure and bubble timing.","contrary_result":"Release remains smooth.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0616","id":"S9-0616","volume":"900v9","title":"A layered sediment column could show a transient salinity inversion during freshwater infiltration.","prediction":"A layered sediment column could show a transient salinity inversion during freshwater infiltration.","test":"Map concentration with depth.","contrary":"Salinity remains monotonic.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0616","hypothesis":"A layered sediment column could show a transient salinity inversion during freshwater infiltration.","test":"Map concentration with depth.","contrary_result":"Salinity remains monotonic.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0617","id":"S9-0617","volume":"900v9","title":"A bed of angular grains could reduce its dilation under a small transverse oscillation.","prediction":"A bed of angular grains could reduce its dilation under a small transverse oscillation.","test":"Measure volume and contact motion.","contrary":"Oscillation always increases dilation.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0617","hypothesis":"A bed of angular grains could reduce its dilation under a small transverse oscillation.","test":"Measure volume and contact motion.","contrary_result":"Oscillation always increases dilation.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0618","id":"S9-0618","volume":"900v9","title":"A shallow water layer could maintain alternating sediment bands under a temporally constant but spatially rotating flow.","prediction":"A shallow water layer could maintain alternating sediment bands under a temporally constant but spatially rotating flow.","test":"Map bed evolution.","contrary":"Bands require temporal forcing.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0618","hypothesis":"A shallow water layer could maintain alternating sediment bands under a temporally constant but spatially rotating flow.","test":"Map bed evolution.","contrary_result":"Bands require temporal forcing.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0619","id":"S9-0619","volume":"900v9","title":"A mineral-coated fracture could show flow-direction-dependent heat transfer while retaining equal hydraulic conductance.","prediction":"A mineral-coated fracture could show flow-direction-dependent heat transfer while retaining equal hydraulic conductance.","test":"Reverse flow and measure both.","contrary":"Heat transfer is reciprocal after correction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0619","hypothesis":"A mineral-coated fracture could show flow-direction-dependent heat transfer while retaining equal hydraulic conductance.","test":"Reverse flow and measure both.","contrary_result":"Heat transfer is reciprocal after correction.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0620","id":"S9-0620","volume":"900v9","title":"A frozen soil analogue could transmit shear waves faster during partial thaw than when fully frozen.","prediction":"A frozen soil analogue could transmit shear waves faster during partial thaw than when fully frozen.","test":"Measure ice connectivity and wave speed.","contrary":"Speed falls monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0620","hypothesis":"A frozen soil analogue could transmit shear waves faster during partial thaw than when fully frozen.","test":"Measure ice connectivity and wave speed.","contrary_result":"Speed falls monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0621","id":"S9-0621","volume":"900v9","title":"A drying mud layer could develop a subsurface crack network before surface strain localization.","prediction":"A drying mud layer could develop a subsurface crack network before surface strain localization.","test":"Image interior and surface strain.","contrary":"Surface localization always leads.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0621","hypothesis":"A drying mud layer could develop a subsurface crack network before surface strain localization.","test":"Image interior and surface strain.","contrary_result":"Surface localization always leads.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0622","id":"S9-0622","volume":"900v9","title":"A fine-grained sediment could show a pressure-relaxation minimum when two drainage paths weakly communicate.","prediction":"A fine-grained sediment could show a pressure-relaxation minimum when two drainage paths weakly communicate.","test":"Vary coupling and measure relaxation.","contrary":"Relaxation varies monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0622","hypothesis":"A fine-grained sediment could show a pressure-relaxation minimum when two drainage paths weakly communicate.","test":"Vary coupling and measure relaxation.","contrary_result":"Relaxation varies monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0623","id":"S9-0623","volume":"900v9","title":"A rock pore could retain a volatile tracer pulse longer after pressure cycling than after static equilibration.","prediction":"A rock pore could retain a volatile tracer pulse longer after pressure cycling than after static equilibration.","test":"Match final pressure and inventory.","contrary":"Retention depends only on final state.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0623","hypothesis":"A rock pore could retain a volatile tracer pulse longer after pressure cycling than after static equilibration.","test":"Match final pressure and inventory.","contrary_result":"Retention depends only on final state.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0624","id":"S9-0624","volume":"900v9","title":"A curved erosion channel could alternate between inner-bank and outer-bank deposition under constant mean flow.","prediction":"A curved erosion channel could alternate between inner-bank and outer-bank deposition under constant mean flow.","test":"Measure sediment and secondary circulation.","contrary":"Deposition pattern remains fixed.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0624","hypothesis":"A curved erosion channel could alternate between inner-bank and outer-bank deposition under constant mean flow.","test":"Measure sediment and secondary circulation.","contrary_result":"Deposition pattern remains fixed.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0625","id":"S9-0625","volume":"900v9","title":"A granular fault analogue could weaken under repeated sub-slip thermal pulses without net strain.","prediction":"A granular fault analogue could weaken under repeated sub-slip thermal pulses without net strain.","test":"Measure friction and contacts.","contrary":"Weakening requires accumulated slip.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0625","hypothesis":"A granular fault analogue could weaken under repeated sub-slip thermal pulses without net strain.","test":"Measure friction and contacts.","contrary_result":"Weakening requires accumulated slip.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0626","id":"S9-0626","volume":"900v9","title":"A sand lens could create a subsurface evaporation maximum below a finer layer.","prediction":"A sand lens could create a subsurface evaporation maximum below a finer layer.","test":"Map vapor flux and temperature.","contrary":"Evaporation remains at the exposed surface.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0626","hypothesis":"A sand lens could create a subsurface evaporation maximum below a finer layer.","test":"Map vapor flux and temperature.","contrary_result":"Evaporation remains at the exposed surface.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0627","id":"S9-0627","volume":"900v9","title":"A floating pumice-like particle could switch its preferred orientation during gas dissolution before sinking.","prediction":"A floating pumice-like particle could switch its preferred orientation during gas dissolution before sinking.","test":"Track gas and orientation.","contrary":"Orientation changes only after sinking begins.","layers":[1,2,3],"categories":[],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0627","hypothesis":"A floating pumice-like particle could switch its preferred orientation during gas dissolution before sinking.","test":"Track gas and orientation.","contrary_result":"Orientation changes only after sinking begins.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0627","hypothesis":"A floating pumice-like particle could switch its preferred orientation during gas dissolution before sinking.","test":"Track gas and orientation.","contrary_result":"Orientation changes only after sinking begins.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"pumice flotation orientation gas dissolution experiment","selection_reason":"Buoyant orientation and sinking onset are imageable."},"dossier":{"id":"S9-0627","hypothesis":"A floating pumice-like particle could switch its preferred orientation during gas dissolution before sinking.","test":"Track gas and orientation.","contrary_result":"Orientation changes only after sinking begins.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"pumice flotation orientation gas dissolution experiment","selection_reason":"Buoyant orientation and sinking onset are imageable.","rank":2,"title":"Orientation change of a floating porous clast before sinking","reason":"Rotation and sinking can be observed directly. Published gas-trapping work supplies a plausible changing mass-distribution mechanism, but the proposed orientation switch is not established.","evidence":"Trapped bubbles keep pumice afloat and gas diffusion makes pumice sink, EPSL (2017), primary search-returned abstract and article excerpts, reports gas trapping and diffusion-controlled loss of flotation. A later direct publisher request returned403. The source supports buoyancy evolution, not the claimed orientation switch.","sources":["https://doi.org/10.1016/j.epsl.2016.11.055"],"protocol":"Float naturally porous clasts individually in covered, temperature-controlled water. Mark axes with minimal added mass; photograph from above and the side. Track angle, submerged fraction and first loss of flotation. Measure dry geometry and final water uptake. Include dense nonporous replicas and clasts with more symmetric pore structure. Gentle release and quiescent-water controls exclude placement torque and circulation.","analysis":"For small angle theta, an assumed hydrostatic energy U=(K(t)/2)*theta^2+(B/4)*theta^4, B>0, has theta=0 stable for K>0. If K becomes negative, stable minima occur at plus or minus sqrt(-K/B). An orientation bifurcation can therefore precede sinking if K crosses zero while positive buoyancy reserve remains. That ordering is a condition to test, not a prediction derived for real pumice. Hydrostatic coefficients and mass distributions have not been measured.","counterexample":"Uniform gas loss may leave the stability coefficient positive until sinking. Surface tension, nonspherical contact geometry and water motion may dominate apparent rotation. Rotation alone does not establish diffusion causation.","decision":"Specify an angle threshold from tracking error before observation. Count a switch only while the clast still has an air-water contact and positive flotation reserve. Report every clast and elapsed observation limits; long flotation times may make this slower than other experiments.","data":"time_s,clast_id,angle_rad,submerged_fraction,temperature_C,floating,estimated_water_uptake_g"},"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0628","id":"S9-0628","volume":"900v9","title":"A mineral fracture could close acoustically before closing hydraulically during swelling.","prediction":"A mineral fracture could close acoustically before closing hydraulically during swelling.","test":"Measure wave transmission and flow.","contrary":"Both closure thresholds coincide.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0628","hypothesis":"A mineral fracture could close acoustically before closing hydraulically during swelling.","test":"Measure wave transmission and flow.","contrary_result":"Both closure thresholds coincide.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0629","id":"S9-0629","volume":"900v9","title":"A saturated sediment could support a temporary density wave without grain displacement under oscillating pore pressure.","prediction":"A saturated sediment could support a temporary density wave without grain displacement under oscillating pore pressure.","test":"Measure concentration and grain motion.","contrary":"Density variation requires grain motion.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0629","hypothesis":"A saturated sediment could support a temporary density wave without grain displacement under oscillating pore pressure.","test":"Measure concentration and grain motion.","contrary_result":"Density variation requires grain motion.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0630","id":"S9-0630","volume":"900v9","title":"A thin frost crust could protect loose dust more effectively when discontinuous than continuous.","prediction":"A thin frost crust could protect loose dust more effectively when discontinuous than continuous.","test":"Measure wind erosion at equal ice mass.","contrary":"Continuous crust always protects more.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0630","hypothesis":"A thin frost crust could protect loose dust more effectively when discontinuous than continuous.","test":"Measure wind erosion at equal ice mass.","contrary_result":"Continuous crust always protects more.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0631","id":"S9-0631","volume":"900v9","title":"A sloping clay film could develop uphill-moving drying wrinkles through delayed substrate slip.","prediction":"A sloping clay film could develop uphill-moving drying wrinkles through delayed substrate slip.","test":"Track wrinkle motion and slip.","contrary":"Wrinkles move only downhill.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0631","hypothesis":"A sloping clay film could develop uphill-moving drying wrinkles through delayed substrate slip.","test":"Track wrinkle motion and slip.","contrary_result":"Wrinkles move only downhill.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0632","id":"S9-0632","volume":"900v9","title":"A gravel bed could show less tracer dispersion after slight armoring despite unchanged mean pore size.","prediction":"A gravel bed could show less tracer dispersion after slight armoring despite unchanged mean pore size.","test":"Measure tracer transit and structure.","contrary":"Pore size alone predicts dispersion.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0632","hypothesis":"A gravel bed could show less tracer dispersion after slight armoring despite unchanged mean pore size.","test":"Measure tracer transit and structure.","contrary_result":"Pore size alone predicts dispersion.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0633","id":"S9-0633","volume":"900v9","title":"A dissolving rock surface could retain a previous flow direction in its later no-flow convection pattern.","prediction":"A dissolving rock surface could retain a previous flow direction in its later no-flow convection pattern.","test":"Reverse conditioning flow.","contrary":"Convection depends only on current shape.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0633","hypothesis":"A dissolving rock surface could retain a previous flow direction in its later no-flow convection pattern.","test":"Reverse conditioning flow.","contrary_result":"Convection depends only on current shape.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0634","id":"S9-0634","volume":"900v9","title":"A silt layer could reveal incipient liquefaction through a reversal in acoustic phase-gradient direction.","prediction":"A silt layer could reveal incipient liquefaction through a reversal in acoustic phase-gradient direction.","test":"Measure phase and pore pressure.","contrary":"Phase reversal occurs after liquefaction.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0634","hypothesis":"A silt layer could reveal incipient liquefaction through a reversal in acoustic phase-gradient direction.","test":"Measure phase and pore pressure.","contrary_result":"Phase reversal occurs after liquefaction.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0635","id":"S9-0635","volume":"900v9","title":"A porous mineral column could release an adsorbed tracer in a narrower pulse after a short flow interruption.","prediction":"A porous mineral column could release an adsorbed tracer in a narrower pulse after a short flow interruption.","test":"Measure breakthrough widths.","contrary":"Interruptions only broaden release.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0635","hypothesis":"A porous mineral column could release an adsorbed tracer in a narrower pulse after a short flow interruption.","test":"Measure breakthrough widths.","contrary_result":"Interruptions only broaden release.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0636","id":"S9-0636","volume":"900v9","title":"A dry sediment bed could become less erodible after weak acoustic forcing below grain motion threshold.","prediction":"A dry sediment bed could become less erodible after weak acoustic forcing below grain motion threshold.","test":"Measure cohesion and erosion.","contrary":"Protection requires visible rearrangement.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0636","hypothesis":"A dry sediment bed could become less erodible after weak acoustic forcing below grain motion threshold.","test":"Measure cohesion and erosion.","contrary_result":"Protection requires visible rearrangement.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0637","id":"S9-0637","volume":"900v9","title":"A freezing brine pocket could undergo repeated pressure drops before any visible fracture.","prediction":"A freezing brine pocket could undergo repeated pressure drops before any visible fracture.","test":"Measure pressure and internal ice.","contrary":"Drops require fracture.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0637","hypothesis":"A freezing brine pocket could undergo repeated pressure drops before any visible fracture.","test":"Measure pressure and internal ice.","contrary_result":"Drops require fracture.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0638","id":"S9-0638","volume":"900v9","title":"A fine-over-coarse soil interface could store a water pulse's duration in later drainage intermittency.","prediction":"A fine-over-coarse soil interface could store a water pulse's duration in later drainage intermittency.","test":"Match retained water and vary pulse duration.","contrary":"Intermittency depends only on retained water.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0638","hypothesis":"A fine-over-coarse soil interface could store a water pulse's duration in later drainage intermittency.","test":"Match retained water and vary pulse duration.","contrary_result":"Intermittency depends only on retained water.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0639","id":"S9-0639","volume":"900v9","title":"A layered rock analogue could redirect stress waves around a wet inclusion more than around an equal-modulus dry inclusion.","prediction":"A layered rock analogue could redirect stress waves around a wet inclusion more than around an equal-modulus dry inclusion.","test":"Measure wave fields.","contrary":"Modulus and density fully explain differences.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0639","hypothesis":"A layered rock analogue could redirect stress waves around a wet inclusion more than around an equal-modulus dry inclusion.","test":"Measure wave fields.","contrary_result":"Modulus and density fully explain differences.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0640","id":"S9-0640","volume":"900v9","title":"A sediment column could show a temporary thermal conductivity increase when gas first invades.","prediction":"A sediment column could show a temporary thermal conductivity increase when gas first invades.","test":"Measure conductivity and gas geometry.","contrary":"Conductivity decreases from first invasion.","layers":[1,2],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0640","hypothesis":"A sediment column could show a temporary thermal conductivity increase when gas first invades.","test":"Measure conductivity and gas geometry.","contrary_result":"Conductivity decreases from first invasion.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0640","hypothesis":"A sediment column could show a temporary thermal conductivity increase when gas first invades.","test":"Measure conductivity and gas geometry.","contrary_result":"Conductivity decreases from first invasion.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"sediment gas invasion thermal conductivity contact water bridges experiment","selection_reason":"Gas geometry and heat transfer can be measured together."},"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0641","id":"S9-0641","volume":"900v9","title":"A shallow pond analogue could produce bottom-focused cooling during clear-sky radiative loss before overturning.","prediction":"A shallow pond analogue could produce bottom-focused cooling during clear-sky radiative loss before overturning.","test":"Measure temperature profiles and circulation.","contrary":"Cooling starts only at the surface.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0641","hypothesis":"A shallow pond analogue could produce bottom-focused cooling during clear-sky radiative loss before overturning.","test":"Measure temperature profiles and circulation.","contrary_result":"Cooling starts only at the surface.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0642","id":"S9-0642","volume":"900v9","title":"A thin snow layer could reveal basal liquid connectivity through changes in microwave polarization before meltwater exits.","prediction":"A thin snow layer could reveal basal liquid connectivity through changes in microwave polarization before meltwater exits.","test":"Measure polarization and drainage.","contrary":"Polarization tracks melt fraction only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0642","hypothesis":"A thin snow layer could reveal basal liquid connectivity through changes in microwave polarization before meltwater exits.","test":"Measure polarization and drainage.","contrary_result":"Polarization tracks melt fraction only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0643","id":"S9-0643","volume":"900v9","title":"A snow-like ice aggregate could sinter faster under alternating weak loads than constant load at equal mean pressure.","prediction":"A snow-like ice aggregate could sinter faster under alternating weak loads than constant load at equal mean pressure.","test":"Measure neck growth.","contrary":"Only mean pressure matters.","layers":[1,2,3],"categories":["physical","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0643","hypothesis":"A snow-like ice aggregate could sinter faster under alternating weak loads than constant load at equal mean pressure.","test":"Measure neck growth.","contrary_result":"Only mean pressure matters.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0643","hypothesis":"A snow-like ice aggregate could sinter faster under alternating weak loads than constant load at equal mean pressure.","test":"Measure neck growth.","contrary_result":"Only mean pressure matters.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"ice sintering cyclic load neck growth experiment","selection_reason":"Matched mean pressure tests the role of loading variation."},"dossier":{"id":"S9-0643","hypothesis":"A snow-like ice aggregate could sinter faster under alternating weak loads than constant load at equal mean pressure.","test":"Measure neck growth.","contrary_result":"Only mean pressure matters.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"ice sintering cyclic load neck growth experiment","selection_reason":"Matched mean pressure tests the role of loading variation.","rank":6,"title":"Ice-neck growth under alternating weak load","reason":"Microscopy can measure neck growth directly. Mean-load matching gives a precise comparison, but vapor transport, temperature drift and contact damage can overwhelm any nonlinear loading benefit.","evidence":"Demmenie, Woutersen and Bonn, Ice Sintering by Sublimation and Condensation (2025), accessible primary abstract, identifies vapor-mediated sintering under equilibrium conditions. It explicitly cautions against conflating ice sintering and snow densification. The proposed cyclic-load benefit is not reported by the accessed abstract.","sources":["https://pmc.ncbi.nlm.nih.gov/articles/PMC11874037/"],"protocol":"Observe matched ice-particle contacts in a stable cold, humidity-controlled chamber. Apply constant load or small alternating load with the same mean and duration. Record force, displacement, neck radius, particle size, temperature and vapor conditions. Include unloaded and vibration-only controls. Verify that loading does not create fracture, frictional heating or bulk melting.","analysis":"If neck-area growth is assumed to obey dA/dt=k*F^n at fixed thermal and vapor conditions, convexity gives mean(F^n)>=mean(F)^n for n>1. Cyclic load can then increase growth relative to its mean load. For n=1 the model predicts equality; for0<n<1 it predicts a decrease. Neither n nor a force-only growth law has been established here.","counterexample":"Vapor-dominated growth may be effectively force independent. Load reversals can break new necks, and cyclic frictional heating can mimic faster growth without the proposed mechanism.","decision":"Predefine a neck-area growth interval and retain damaged contacts as a separate reported outcome. Estimate rather than assume the force dependence. A faster change in bulk height alone is not evidence of faster sintering.","data":"time_s,contact_id,load_history,force_N,displacement_m,neck_radius_m,particle_radius_m,temperature_C,relative_humidity"},"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0644","id":"S9-0644","volume":"900v9","title":"A wet granular slope could stabilize temporarily as evaporation increases pore-air suction ahead of drying.","prediction":"A wet granular slope could stabilize temporarily as evaporation increases pore-air suction ahead of drying.","test":"Measure suction and failure threshold.","contrary":"Strength follows water content alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0644","hypothesis":"A wet granular slope could stabilize temporarily as evaporation increases pore-air suction ahead of drying.","test":"Measure suction and failure threshold.","contrary_result":"Strength follows water content alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0645","id":"S9-0645","volume":"900v9","title":"A mineral channel could amplify concentration fluctuations at a dissolution front without increasing mean dissolution.","prediction":"A mineral channel could amplify concentration fluctuations at a dissolution front without increasing mean dissolution.","test":"Measure fluctuations and mean flux.","contrary":"Fluctuation changes track mean flux.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0645","hypothesis":"A mineral channel could amplify concentration fluctuations at a dissolution front without increasing mean dissolution.","test":"Measure fluctuations and mean flux.","contrary_result":"Fluctuation changes track mean flux.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0646","id":"S9-0646","volume":"900v9","title":"A salt-encrusted soil could show a minimum infrared emissivity at intermediate hydration.","prediction":"A salt-encrusted soil could show a minimum infrared emissivity at intermediate hydration.","test":"Measure emissivity and water content.","contrary":"Emissivity changes monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0646","hypothesis":"A salt-encrusted soil could show a minimum infrared emissivity at intermediate hydration.","test":"Measure emissivity and water content.","contrary_result":"Emissivity changes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0647","id":"S9-0647","volume":"900v9","title":"A sediment ripple could preserve storm-order information in subsurface permeability after surface morphology is erased.","prediction":"A sediment ripple could preserve storm-order information in subsurface permeability after surface morphology is erased.","test":"Exchange forcing order and level surfaces.","contrary":"Permeability depends only on final surface.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0647","hypothesis":"A sediment ripple could preserve storm-order information in subsurface permeability after surface morphology is erased.","test":"Exchange forcing order and level surfaces.","contrary_result":"Permeability depends only on final surface.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0648","id":"S9-0648","volume":"900v9","title":"A porous rock could show a reversible mechanical loss peak during inert-gas pressure equilibration.","prediction":"A porous rock could show a reversible mechanical loss peak during inert-gas pressure equilibration.","test":"Measure damping and gas distributions.","contrary":"Loss follows pressure instantaneously.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0648","hypothesis":"A porous rock could show a reversible mechanical loss peak during inert-gas pressure equilibration.","test":"Measure damping and gas distributions.","contrary_result":"Loss follows pressure instantaneously.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0649","id":"S9-0649","volume":"900v9","title":"A frozen layered soil could develop a lateral liquid pathway at a thermally uniform interface.","prediction":"A frozen layered soil could develop a lateral liquid pathway at a thermally uniform interface.","test":"Image water paths and temperature.","contrary":"Paths require lateral thermal gradients.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0649","hypothesis":"A frozen layered soil could develop a lateral liquid pathway at a thermally uniform interface.","test":"Image water paths and temperature.","contrary_result":"Paths require lateral thermal gradients.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0650","id":"S9-0650","volume":"900v9","title":"A granular bed could reverse its preferred fracture direction after weak alternating shear without density change.","prediction":"A granular bed could reverse its preferred fracture direction after weak alternating shear without density change.","test":"Measure contact anisotropy and fracture.","contrary":"Direction depends only on density.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0650","hypothesis":"A granular bed could reverse its preferred fracture direction after weak alternating shear without density change.","test":"Measure contact anisotropy and fracture.","contrary_result":"Direction depends only on density.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0651","id":"S9-0651","volume":"900v9","title":"A mist-exposed rock face could localize weathering at vibration antinodes despite uniform mean wetness.","prediction":"A mist-exposed rock face could localize weathering at vibration antinodes despite uniform mean wetness.","test":"Measure wetness and damage.","contrary":"Weathering follows mean wetness only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0651","hypothesis":"A mist-exposed rock face could localize weathering at vibration antinodes despite uniform mean wetness.","test":"Measure wetness and damage.","contrary_result":"Weathering follows mean wetness only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0652","id":"S9-0652","volume":"900v9","title":"A small meltwater channel could split around an obstacle and rejoin with unequal dissolved-gas contents.","prediction":"A small meltwater channel could split around an obstacle and rejoin with unequal dissolved-gas contents.","test":"Measure both branches.","contrary":"Gas content follows residence time alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0652","hypothesis":"A small meltwater channel could split around an obstacle and rejoin with unequal dissolved-gas contents.","test":"Measure both branches.","contrary_result":"Gas content follows residence time alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0653","id":"S9-0653","volume":"900v9","title":"A sediment suspension could settle more slowly after a weak pressure pulse without changing particle-size distribution.","prediction":"A sediment suspension could settle more slowly after a weak pressure pulse without changing particle-size distribution.","test":"Measure structure and settling.","contrary":"Rate follows size distribution only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0653","hypothesis":"A sediment suspension could settle more slowly after a weak pressure pulse without changing particle-size distribution.","test":"Measure structure and settling.","contrary_result":"Rate follows size distribution only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0654","id":"S9-0654","volume":"900v9","title":"A clay-rich fracture could show electrical recovery before hydraulic recovery after drying.","prediction":"A clay-rich fracture could show electrical recovery before hydraulic recovery after drying.","test":"Measure impedance and permeability.","contrary":"Recoveries coincide.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0654","hypothesis":"A clay-rich fracture could show electrical recovery before hydraulic recovery after drying.","test":"Measure impedance and permeability.","contrary_result":"Recoveries coincide.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0655","id":"S9-0655","volume":"900v9","title":"A carbonate-like porous analogue could develop reaction fingers under a spatially uniform pH step.","prediction":"A carbonate-like porous analogue could develop reaction fingers under a spatially uniform pH step.","test":"Image reaction and flow.","contrary":"Fingers require preexisting flow heterogeneity.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0655","hypothesis":"A carbonate-like porous analogue could develop reaction fingers under a spatially uniform pH step.","test":"Image reaction and flow.","contrary_result":"Fingers require preexisting flow heterogeneity.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0656","id":"S9-0656","volume":"900v9","title":"A compacted powder could reveal a buried weak seam through temperature fluctuation correlations.","prediction":"A compacted powder could reveal a buried weak seam through temperature fluctuation correlations.","test":"Compare thermal signals and seam location.","contrary":"Correlations follow surface conditions only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0656","hypothesis":"A compacted powder could reveal a buried weak seam through temperature fluctuation correlations.","test":"Compare thermal signals and seam location.","contrary_result":"Correlations follow surface conditions only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0657","id":"S9-0657","volume":"900v9","title":"A sand bed could suppress gas-bubble escape at intermediate rather than maximum saturation.","prediction":"A sand bed could suppress gas-bubble escape at intermediate rather than maximum saturation.","test":"Measure bubble thresholds across saturation.","contrary":"Threshold varies monotonically.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0657","hypothesis":"A sand bed could suppress gas-bubble escape at intermediate rather than maximum saturation.","test":"Measure bubble thresholds across saturation.","contrary_result":"Threshold varies monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0658","id":"S9-0658","volume":"900v9","title":"A frost-heaved granular layer could retain less residual strain after asymmetric warming than symmetric warming.","prediction":"A frost-heaved granular layer could retain less residual strain after asymmetric warming than symmetric warming.","test":"Match heat input.","contrary":"Residual strain depends only on peak temperature.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0658","hypothesis":"A frost-heaved granular layer could retain less residual strain after asymmetric warming than symmetric warming.","test":"Match heat input.","contrary_result":"Residual strain depends only on peak temperature.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0659","id":"S9-0659","volume":"900v9","title":"A buried oblique impermeable chip could split a drying front and leave a persistent solute-depleted shadow after rejoining.","prediction":"A buried oblique impermeable chip could split a drying front and leave a persistent solute-depleted shadow after rejoining.","test":"Map front position and final solute concentration.","contrary":"The shadow vanishes when fronts rejoin.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0659","hypothesis":"A buried oblique impermeable chip could split a drying front and leave a persistent solute-depleted shadow after rejoining.","test":"Map front position and final solute concentration.","contrary_result":"The shadow vanishes when fronts rejoin.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0660","id":"S9-0660","volume":"900v9","title":"A porous slope could drain faster after a short interruption in rainfall despite equal cumulative input.","prediction":"A porous slope could drain faster after a short interruption in rainfall despite equal cumulative input.","test":"Measure drainage and internal pressure.","contrary":"Only cumulative input matters.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0660","hypothesis":"A porous slope could drain faster after a short interruption in rainfall despite equal cumulative input.","test":"Measure drainage and internal pressure.","contrary_result":"Only cumulative input matters.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0661","id":"S9-0661","volume":"900v9","title":"A small erosion basin could exhibit a sediment-output overshoot after flow decreases.","prediction":"A small erosion basin could exhibit a sediment-output overshoot after flow decreases.","test":"Measure bed storage and outflow.","contrary":"Output declines immediately with flow.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0661","hypothesis":"A small erosion basin could exhibit a sediment-output overshoot after flow decreases.","test":"Measure bed storage and outflow.","contrary_result":"Output declines immediately with flow.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0662","id":"S9-0662","volume":"900v9","title":"A dry fractured rock analogue could show acoustic directionality from unequal crack-wall friction despite symmetric geometry.","prediction":"A dry fractured rock analogue could show acoustic directionality from unequal crack-wall friction despite symmetric geometry.","test":"Reverse wave propagation.","contrary":"Transmission is reciprocal within uncertainty.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0662","hypothesis":"A dry fractured rock analogue could show acoustic directionality from unequal crack-wall friction despite symmetric geometry.","test":"Reverse wave propagation.","contrary_result":"Transmission is reciprocal within uncertainty.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0663","id":"S9-0663","volume":"900v9","title":"A saturated granular plug could display a temporary negative lateral strain during axial unloading.","prediction":"A saturated granular plug could display a temporary negative lateral strain during axial unloading.","test":"Measure three-dimensional strain and pressure.","contrary":"Lateral strain remains positive.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0663","hypothesis":"A saturated granular plug could display a temporary negative lateral strain during axial unloading.","test":"Measure three-dimensional strain and pressure.","contrary_result":"Lateral strain remains positive.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0664","id":"S9-0664","volume":"900v9","title":"A snow crust could fail through a traveling bond-loss front before visible displacement.","prediction":"A snow crust could fail through a traveling bond-loss front before visible displacement.","test":"Measure acoustic localization and imaging.","contrary":"Bond-loss signals follow displacement.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0664","hypothesis":"A snow crust could fail through a traveling bond-loss front before visible displacement.","test":"Measure acoustic localization and imaging.","contrary_result":"Bond-loss signals follow displacement.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0665","id":"S9-0665","volume":"900v9","title":"A mineral surface could accumulate finer particles preferentially at intermediate evaporation rates.","prediction":"A mineral surface could accumulate finer particles preferentially at intermediate evaporation rates.","test":"Measure deposits across rates.","contrary":"Finer-particle enrichment changes monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0665","hypothesis":"A mineral surface could accumulate finer particles preferentially at intermediate evaporation rates.","test":"Measure deposits across rates.","contrary_result":"Finer-particle enrichment changes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0666","id":"S9-0666","volume":"900v9","title":"A sediment bed could distinguish upstream gas release from water-flow acceleration through opposite pressure-noise correlations.","prediction":"A sediment bed could distinguish upstream gas release from water-flow acceleration through opposite pressure-noise correlations.","test":"Apply perturbations separately.","contrary":"Noise signatures coincide.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0666","hypothesis":"A sediment bed could distinguish upstream gas release from water-flow acceleration through opposite pressure-noise correlations.","test":"Apply perturbations separately.","contrary_result":"Noise signatures coincide.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0667","id":"S9-0667","volume":"900v9","title":"A clay membrane could retain concentration-step direction in its later osmotic relaxation at equal composition.","prediction":"A clay membrane could retain concentration-step direction in its later osmotic relaxation at equal composition.","test":"Reverse preparation histories.","contrary":"Relaxation depends only on composition.","layers":[1],"categories":["biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0667","hypothesis":"A clay membrane could retain concentration-step direction in its later osmotic relaxation at equal composition.","test":"Reverse preparation histories.","contrary_result":"Relaxation depends only on composition.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0668","id":"S9-0668","volume":"900v9","title":"A porous stone could become mechanically stiffer during initial salt removal through contact stress redistribution.","prediction":"A porous stone could become mechanically stiffer during initial salt removal through contact stress redistribution.","test":"Measure stiffness and salt inventory.","contrary":"Stiffness decreases monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0668","hypothesis":"A porous stone could become mechanically stiffer during initial salt removal through contact stress redistribution.","test":"Measure stiffness and salt inventory.","contrary_result":"Stiffness decreases monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0669","id":"S9-0669","volume":"900v9","title":"A granular chute could exhibit maximum sound coherence just below intermittent jamming.","prediction":"A granular chute could exhibit maximum sound coherence just below intermittent jamming.","test":"Measure coherence and flow states.","contrary":"Coherence follows flow rate smoothly.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0669","hypothesis":"A granular chute could exhibit maximum sound coherence just below intermittent jamming.","test":"Measure coherence and flow states.","contrary_result":"Coherence follows flow rate smoothly.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0670","id":"S9-0670","volume":"900v9","title":"A partially frozen pore network could reroute solute against the dominant liquid flux through local freezing rejection.","prediction":"A partially frozen pore network could reroute solute against the dominant liquid flux through local freezing rejection.","test":"Map solute and velocity.","contrary":"Solute follows liquid flux everywhere.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0670","hypothesis":"A partially frozen pore network could reroute solute against the dominant liquid flux through local freezing rejection.","test":"Map solute and velocity.","contrary_result":"Solute follows liquid flux everywhere.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0671","id":"S9-0671","volume":"900v9","title":"A mineral dust layer could suppress condensation on the underlying surface while increasing total collected water.","prediction":"A mineral dust layer could suppress condensation on the underlying surface while increasing total collected water.","test":"Measure separate water inventories.","contrary":"Substrate and total collection change together.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0671","hypothesis":"A mineral dust layer could suppress condensation on the underlying surface while increasing total collected water.","test":"Measure separate water inventories.","contrary_result":"Substrate and total collection change together.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0672","id":"S9-0672","volume":"900v9","title":"A buried permeable layer could reverse the sign of surface thermal lag during drainage.","prediction":"A buried permeable layer could reverse the sign of surface thermal lag during drainage.","test":"Measure thermal phase and water paths.","contrary":"Lag retains its sign.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0672","hypothesis":"A buried permeable layer could reverse the sign of surface thermal lag during drainage.","test":"Measure thermal phase and water paths.","contrary_result":"Lag retains its sign.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0673","id":"S9-0673","volume":"900v9","title":"A gravel contact could reveal salt crystallization pressure through vibration harmonics before visible displacement.","prediction":"A gravel contact could reveal salt crystallization pressure through vibration harmonics before visible displacement.","test":"Measure harmonics and crystal growth.","contrary":"Harmonics appear only after displacement.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0673","hypothesis":"A gravel contact could reveal salt crystallization pressure through vibration harmonics before visible displacement.","test":"Measure harmonics and crystal growth.","contrary_result":"Harmonics appear only after displacement.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0674","id":"S9-0674","volume":"900v9","title":"A thin sediment cap could release pressure in pulses under a constant gas-generation analogue.","prediction":"A thin sediment cap could release pressure in pulses under a constant gas-generation analogue.","test":"Measure gas injection and pressure.","contrary":"Pressure reaches steady state without pulses.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0674","hypothesis":"A thin sediment cap could release pressure in pulses under a constant gas-generation analogue.","test":"Measure gas injection and pressure.","contrary_result":"Pressure reaches steady state without pulses.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0675","id":"S9-0675","volume":"900v9","title":"A sloped mineral film could maintain an uphill solute flux through asymmetric evaporation without liquid pumping.","prediction":"A sloped mineral film could maintain an uphill solute flux through asymmetric evaporation without liquid pumping.","test":"Measure net solute transport.","contrary":"Transport requires externally imposed liquid flow.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0675","hypothesis":"A sloped mineral film could maintain an uphill solute flux through asymmetric evaporation without liquid pumping.","test":"Measure net solute transport.","contrary_result":"Transport requires externally imposed liquid flow.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0676","id":"S9-0676","volume":"900v9","title":"A porous ice sample could show greater light transmission during early melting despite increasing internal interfaces.","prediction":"A porous ice sample could show greater light transmission during early melting despite increasing internal interfaces.","test":"Measure interfaces and transmission.","contrary":"Transmission decreases initially.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0676","hypothesis":"A porous ice sample could show greater light transmission during early melting despite increasing internal interfaces.","test":"Measure interfaces and transmission.","contrary_result":"Transmission decreases initially.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0677","id":"S9-0677","volume":"900v9","title":"A clay aggregate could recover permeability faster under alternating humidity than constant humidity at equal mean water activity.","prediction":"A clay aggregate could recover permeability faster under alternating humidity than constant humidity at equal mean water activity.","test":"Measure pores and flux.","contrary":"Mean humidity fully predicts recovery.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0677","hypothesis":"A clay aggregate could recover permeability faster under alternating humidity than constant humidity at equal mean water activity.","test":"Measure pores and flux.","contrary_result":"Mean humidity fully predicts recovery.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0678","id":"S9-0678","volume":"900v9","title":"A saturated sand column could reveal hidden particle rearrangement through acoustic coda changes before bulk strain.","prediction":"A saturated sand column could reveal hidden particle rearrangement through acoustic coda changes before bulk strain.","test":"Measure coda and strain.","contrary":"Coda changes follow strain.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0678","hypothesis":"A saturated sand column could reveal hidden particle rearrangement through acoustic coda changes before bulk strain.","test":"Measure coda and strain.","contrary_result":"Coda changes follow strain.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0679","id":"S9-0679","volume":"900v9","title":"A mineral weathering rind could redirect heat pulses circumferentially around an unaltered core.","prediction":"A mineral weathering rind could redirect heat pulses circumferentially around an unaltered core.","test":"Map transient temperature fields.","contrary":"Heat remains predominantly radial.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0679","hypothesis":"A mineral weathering rind could redirect heat pulses circumferentially around an unaltered core.","test":"Map transient temperature fields.","contrary_result":"Heat remains predominantly radial.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0680","id":"S9-0680","volume":"900v9","title":"A thin salt pan could form alternating dissolution and growth zones under uniform periodic humidity.","prediction":"A thin salt pan could form alternating dissolution and growth zones under uniform periodic humidity.","test":"Map local surface motion.","contrary":"All zones switch in phase.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0680","hypothesis":"A thin salt pan could form alternating dissolution and growth zones under uniform periodic humidity.","test":"Map local surface motion.","contrary_result":"All zones switch in phase.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0681","id":"S9-0681","volume":"900v9","title":"A granular bed could show a minimum in impact penetration at an intermediate trapped-gas pressure.","prediction":"A granular bed could show a minimum in impact penetration at an intermediate trapped-gas pressure.","test":"Measure penetration and pressure.","contrary":"Penetration changes monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0681","hypothesis":"A granular bed could show a minimum in impact penetration at an intermediate trapped-gas pressure.","test":"Measure penetration and pressure.","contrary_result":"Penetration changes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0682","id":"S9-0682","volume":"900v9","title":"A porous clay film could amplify a small humidity asymmetry into a traveling bending wave.","prediction":"A porous clay film could amplify a small humidity asymmetry into a traveling bending wave.","test":"Map humidity and curvature.","contrary":"Deformation remains static.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0682","hypothesis":"A porous clay film could amplify a small humidity asymmetry into a traveling bending wave.","test":"Map humidity and curvature.","contrary_result":"Deformation remains static.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0683","id":"S9-0683","volume":"900v9","title":"A freezing sediment could exhibit a transient electric-potential reversal before brine-channel connection.","prediction":"A freezing sediment could exhibit a transient electric-potential reversal before brine-channel connection.","test":"Measure potential and connectivity.","contrary":"Reversal occurs only after connection.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0683","hypothesis":"A freezing sediment could exhibit a transient electric-potential reversal before brine-channel connection.","test":"Measure potential and connectivity.","contrary_result":"Reversal occurs only after connection.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0684","id":"S9-0684","volume":"900v9","title":"A sediment layer could resist tracer mixing more after oscillatory than steady pre-shear at equal work.","prediction":"A sediment layer could resist tracer mixing more after oscillatory than steady pre-shear at equal work.","test":"Measure concentration decay.","contrary":"Mixing depends only on work.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0684","hypothesis":"A sediment layer could resist tracer mixing more after oscillatory than steady pre-shear at equal work.","test":"Measure concentration decay.","contrary_result":"Mixing depends only on work.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0685","id":"S9-0685","volume":"900v9","title":"A rock-like brittle composite could detect distributed microcracks through a thermal relaxation tail before ultrasound velocity changes.","prediction":"A rock-like brittle composite could detect distributed microcracks through a thermal relaxation tail before ultrasound velocity changes.","test":"Compare both signals with imaging.","contrary":"Ultrasound always changes first.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0685","hypothesis":"A rock-like brittle composite could detect distributed microcracks through a thermal relaxation tail before ultrasound velocity changes.","test":"Compare both signals with imaging.","contrary_result":"Ultrasound always changes first.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0686","id":"S9-0686","volume":"900v9","title":"A thin mud crust could retain pore-water pressure after surface wetness disappears.","prediction":"A thin mud crust could retain pore-water pressure after surface wetness disappears.","test":"Measure pressure and water maps.","contrary":"Pressure vanishes with surface wetness.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0686","hypothesis":"A thin mud crust could retain pore-water pressure after surface wetness disappears.","test":"Measure pressure and water maps.","contrary_result":"Pressure vanishes with surface wetness.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0687","id":"S9-0687","volume":"900v9","title":"A weakly cemented granular arch could strengthen during a short liquid-flow reversal.","prediction":"A weakly cemented granular arch could strengthen during a short liquid-flow reversal.","test":"Measure contacts and failure load.","contrary":"Reversal always weakens it.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0687","hypothesis":"A weakly cemented granular arch could strengthen during a short liquid-flow reversal.","test":"Measure contacts and failure load.","contrary_result":"Reversal always weakens it.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0688","id":"S9-0688","volume":"900v9","title":"A salt-coated fracture could exhibit transient reverse flow after pressure release through osmotic relaxation.","prediction":"A salt-coated fracture could exhibit transient reverse flow after pressure release through osmotic relaxation.","test":"Measure flow and concentration.","contrary":"Flow stops without reversal.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0688","hypothesis":"A salt-coated fracture could exhibit transient reverse flow after pressure release through osmotic relaxation.","test":"Measure flow and concentration.","contrary_result":"Flow stops without reversal.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0689","id":"S9-0689","volume":"900v9","title":"A porous mineral layer could segregate equal-size particles by density during cyclic vapor condensation.","prediction":"A porous mineral layer could segregate equal-size particles by density during cyclic vapor condensation.","test":"Measure particle trajectories.","contrary":"Segregation requires liquid flooding.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0689","hypothesis":"A porous mineral layer could segregate equal-size particles by density during cyclic vapor condensation.","test":"Measure particle trajectories.","contrary_result":"Segregation requires liquid flooding.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0690","id":"S9-0690","volume":"900v9","title":"A shallow sediment bed could form a stable permeable corridor around a buried thermal source.","prediction":"A shallow sediment bed could form a stable permeable corridor around a buried thermal source.","test":"Map flow and structure.","contrary":"Flow changes reflect viscosity alone.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0690","hypothesis":"A shallow sediment bed could form a stable permeable corridor around a buried thermal source.","test":"Map flow and structure.","contrary_result":"Flow changes reflect viscosity alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0691","id":"S9-0691","volume":"900v9","title":"A frozen porous column could distinguish basal melting from internal melting through opposite acoustic-noise skewness.","prediction":"A frozen porous column could distinguish basal melting from internal melting through opposite acoustic-noise skewness.","test":"Control melt geometry.","contrary":"Noise statistics coincide.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0691","hypothesis":"A frozen porous column could distinguish basal melting from internal melting through opposite acoustic-noise skewness.","test":"Control melt geometry.","contrary_result":"Noise statistics coincide.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0692","id":"S9-0692","volume":"900v9","title":"A wind-exposed granular surface could develop a subsurface temperature maximum from grain-scale recirculation.","prediction":"A wind-exposed granular surface could develop a subsurface temperature maximum from grain-scale recirculation.","test":"Map temperatures and pore-air flow.","contrary":"Maximum is always at the surface.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0692","hypothesis":"A wind-exposed granular surface could develop a subsurface temperature maximum from grain-scale recirculation.","test":"Map temperatures and pore-air flow.","contrary_result":"Maximum is always at the surface.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0693","id":"S9-0693","volume":"900v9","title":"A mineral crust could have a reversible fracture-toughness maximum at intermediate humidity.","prediction":"A mineral crust could have a reversible fracture-toughness maximum at intermediate humidity.","test":"Measure crack resistance across humidity.","contrary":"Toughness varies monotonically.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0693","hypothesis":"A mineral crust could have a reversible fracture-toughness maximum at intermediate humidity.","test":"Measure crack resistance across humidity.","contrary_result":"Toughness varies monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0694","id":"S9-0694","volume":"900v9","title":"A two-layer sediment could release fine particles in a narrow pulse after a weak unloading step.","prediction":"A two-layer sediment could release fine particles in a narrow pulse after a weak unloading step.","test":"Measure outflow size distributions.","contrary":"Release follows total flow only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0694","hypothesis":"A two-layer sediment could release fine particles in a narrow pulse after a weak unloading step.","test":"Measure outflow size distributions.","contrary_result":"Release follows total flow only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0695","id":"S9-0695","volume":"900v9","title":"A porous slope analogue could reveal an approaching drainage switch through increasing pressure-correlation length.","prediction":"A porous slope analogue could reveal an approaching drainage switch through increasing pressure-correlation length.","test":"Measure spatial pressure and flow paths.","contrary":"Correlation changes follow the switch.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0695","hypothesis":"A porous slope analogue could reveal an approaching drainage switch through increasing pressure-correlation length.","test":"Measure spatial pressure and flow paths.","contrary_result":"Correlation changes follow the switch.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0696","id":"S9-0696","volume":"900v9","title":"A frost-coated granular bed could exhibit anisotropic sound propagation without grain alignment.","prediction":"A frost-coated granular bed could exhibit anisotropic sound propagation without grain alignment.","test":"Map frost bridges and waves.","contrary":"Anisotropy requires grain alignment.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0696","hypothesis":"A frost-coated granular bed could exhibit anisotropic sound propagation without grain alignment.","test":"Map frost bridges and waves.","contrary_result":"Anisotropy requires grain alignment.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0697","id":"S9-0697","volume":"900v9","title":"A wet mineral interface could transmit heat faster after microslip while transmitting sound less effectively.","prediction":"A wet mineral interface could transmit heat faster after microslip while transmitting sound less effectively.","test":"Measure thermal and acoustic transfer.","contrary":"Both channels change together.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0697","hypothesis":"A wet mineral interface could transmit heat faster after microslip while transmitting sound less effectively.","test":"Measure thermal and acoustic transfer.","contrary_result":"Both channels change together.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0698","id":"S9-0698","volume":"900v9","title":"A drying sediment could show a plateau in vapor flux caused by internal heat redistribution before crust formation.","prediction":"A drying sediment could show a plateau in vapor flux caused by internal heat redistribution before crust formation.","test":"Measure heat and vapor fields.","contrary":"Plateau requires a crust.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0698","hypothesis":"A drying sediment could show a plateau in vapor flux caused by internal heat redistribution before crust formation.","test":"Measure heat and vapor fields.","contrary_result":"Plateau requires a crust.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0699","id":"S9-0699","volume":"900v9","title":"A granular layer could distinguish repeated weak impacts from static compaction through different thermal anisotropy at equal density.","prediction":"A granular layer could distinguish repeated weak impacts from static compaction through different thermal anisotropy at equal density.","test":"Measure tensors and contacts.","contrary":"Density predicts both identically.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0699","hypothesis":"A granular layer could distinguish repeated weak impacts from static compaction through different thermal anisotropy at equal density.","test":"Measure tensors and contacts.","contrary_result":"Density predicts both identically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0700","id":"S9-0700","volume":"900v9","title":"A porous stone could release trapped gas preferentially through warmer pores despite lower local gas pressure.","prediction":"A porous stone could release trapped gas preferentially through warmer pores despite lower local gas pressure.","test":"Map temperature and gas escape.","contrary":"Escape follows pressure only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0700","hypothesis":"A porous stone could release trapped gas preferentially through warmer pores despite lower local gas pressure.","test":"Map temperature and gas escape.","contrary_result":"Escape follows pressure only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0701","id":"S9-0701","volume":"900v9","title":"A passive fluidic junction could separate pulse amplitude from duration through two unequal inertial branches.","prediction":"A passive fluidic junction could separate pulse amplitude from duration through two unequal inertial branches.","test":"Measure branch responses.","contrary":"Responses depend only on pulse volume.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0701","hypothesis":"A passive fluidic junction could separate pulse amplitude from duration through two unequal inertial branches.","test":"Measure branch responses.","contrary_result":"Responses depend only on pulse volume.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0702","id":"S9-0702","volume":"900v9","title":"A bellows pair could reject uniform pressure drift while amplifying differential vapor adsorption strain.","prediction":"A bellows pair could reject uniform pressure drift while amplifying differential vapor adsorption strain.","test":"Calibrate both inputs.","contrary":"Drift rejection also removes adsorption sensitivity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0702","hypothesis":"A bellows pair could reject uniform pressure drift while amplifying differential vapor adsorption strain.","test":"Calibrate both inputs.","contrary_result":"Drift rejection also removes adsorption sensitivity.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0703","id":"S9-0703","volume":"900v9","title":"A thermally coupled resonator trio could identify which contact degraded from mode-shift ratios.","prediction":"A thermally coupled resonator trio could identify which contact degraded from mode-shift ratios.","test":"Alter one contact at a time.","contrary":"Different faults yield indistinguishable ratios.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0703","hypothesis":"A thermally coupled resonator trio could identify which contact degraded from mode-shift ratios.","test":"Alter one contact at a time.","contrary_result":"Different faults yield indistinguishable ratios.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0704","id":"S9-0704","volume":"900v9","title":"A compliant heat exchanger could lower thermal resistance during flow reversals through reversible channel opening.","prediction":"A compliant heat exchanger could lower thermal resistance during flow reversals through reversible channel opening.","test":"Measure geometry and heat flux.","contrary":"Improvement follows pumping power only.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0704","hypothesis":"A compliant heat exchanger could lower thermal resistance during flow reversals through reversible channel opening.","test":"Measure geometry and heat flux.","contrary_result":"Improvement follows pumping power only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0705","id":"S9-0705","volume":"900v9","title":"A dry friction oscillator could distinguish lubricant depletion from surface roughening through phase-dependent noise.","prediction":"A dry friction oscillator could distinguish lubricant depletion from surface roughening through phase-dependent noise.","test":"Calibrate faults separately.","contrary":"Noise signatures overlap.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0705","hypothesis":"A dry friction oscillator could distinguish lubricant depletion from surface roughening through phase-dependent noise.","test":"Calibrate faults separately.","contrary_result":"Noise signatures overlap.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0706","id":"S9-0706","volume":"900v9","title":"A liquid-filled vibration absorber could self-tune through temperature-dependent meniscus motion without changing total liquid mass.","prediction":"A liquid-filled vibration absorber could self-tune through temperature-dependent meniscus motion without changing total liquid mass.","test":"Measure tuning and meniscus position.","contrary":"Tuning follows viscosity alone.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0706","hypothesis":"A liquid-filled vibration absorber could self-tune through temperature-dependent meniscus motion without changing total liquid mass.","test":"Measure tuning and meniscus position.","contrary_result":"Tuning follows viscosity alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0707","id":"S9-0707","volume":"900v9","title":"A folded ceramic sheet could distribute a point heat source more uniformly through selective contact closure.","prediction":"A folded ceramic sheet could distribute a point heat source more uniformly through selective contact closure.","test":"Map contacts and temperature.","contrary":"Closure increases local hotspots.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0707","hypothesis":"A folded ceramic sheet could distribute a point heat source more uniformly through selective contact closure.","test":"Map contacts and temperature.","contrary_result":"Closure increases local hotspots.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0708","id":"S9-0708","volume":"900v9","title":"A pressure-balanced porous valve could respond to liquid composition before bulk pressure changes.","prediction":"A pressure-balanced porous valve could respond to liquid composition before bulk pressure changes.","test":"Measure opening and composition.","contrary":"Opening requires pressure change.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0708","hypothesis":"A pressure-balanced porous valve could respond to liquid composition before bulk pressure changes.","test":"Measure opening and composition.","contrary_result":"Opening requires pressure change.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0709","id":"S9-0709","volume":"900v9","title":"A spring-supported thermal contact could exhibit a stable intermediate conductance under repeated thermal cycling.","prediction":"A spring-supported thermal contact could exhibit a stable intermediate conductance under repeated thermal cycling.","test":"Measure load and conductance.","contrary":"Conductance drifts to an endpoint.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0709","hypothesis":"A spring-supported thermal contact could exhibit a stable intermediate conductance under repeated thermal cycling.","test":"Measure load and conductance.","contrary_result":"Conductance drifts to an endpoint.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0710","id":"S9-0710","volume":"900v9","title":"A vibrating microchannel could distinguish partial blockage from viscosity increase through harmonic asymmetry.","prediction":"A vibrating microchannel could distinguish partial blockage from viscosity increase through harmonic asymmetry.","test":"Apply controlled perturbations.","contrary":"Harmonic signatures coincide.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0710","hypothesis":"A vibrating microchannel could distinguish partial blockage from viscosity increase through harmonic asymmetry.","test":"Apply controlled perturbations.","contrary_result":"Harmonic signatures coincide.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0711","id":"S9-0711","volume":"900v9","title":"A passive optical splitter could detect uneven solvent ingress through spectral anti-correlations.","prediction":"A passive optical splitter could detect uneven solvent ingress through spectral anti-correlations.","test":"Measure independently wetted branches.","contrary":"Signals share only common drift.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0711","hypothesis":"A passive optical splitter could detect uneven solvent ingress through spectral anti-correlations.","test":"Measure independently wetted branches.","contrary_result":"Signals share only common drift.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0712","id":"S9-0712","volume":"900v9","title":"A tapered compliant tube could delay pressure shocks more efficiently than steady-flow resistance predicts.","prediction":"A tapered compliant tube could delay pressure shocks more efficiently than steady-flow resistance predicts.","test":"Measure transfer and static resistance.","contrary":"Delay follows resistance alone.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0712","hypothesis":"A tapered compliant tube could delay pressure shocks more efficiently than steady-flow resistance predicts.","test":"Measure transfer and static resistance.","contrary_result":"Delay follows resistance alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0713","id":"S9-0713","volume":"900v9","title":"A closed-loop thermosiphon with unequal condensation heights could reverse circulation after a brief uniform heat-input reduction.","prediction":"A closed-loop thermosiphon with unequal condensation heights could reverse circulation after a brief uniform heat-input reduction.","test":"Measure branch temperatures and signed circulation.","contrary":"Flow weakens without reversing.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0713","hypothesis":"A closed-loop thermosiphon with unequal condensation heights could reverse circulation after a brief uniform heat-input reduction.","test":"Measure branch temperatures and signed circulation.","contrary_result":"Flow weakens without reversing.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0714","id":"S9-0714","volume":"900v9","title":"A contact-free acoustic probe could distinguish a loose surface particle from a subsurface void through resonance phase.","prediction":"A contact-free acoustic probe could distinguish a loose surface particle from a subsurface void through resonance phase.","test":"Test known defects.","contrary":"Phase signatures are degenerate.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0714","hypothesis":"A contact-free acoustic probe could distinguish a loose surface particle from a subsurface void through resonance phase.","test":"Test known defects.","contrary_result":"Phase signatures are degenerate.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0715","id":"S9-0715","volume":"900v9","title":"A vented elastic cavity could suppress one vibration mode while enhancing another through gas redistribution.","prediction":"A vented elastic cavity could suppress one vibration mode while enhancing another through gas redistribution.","test":"Measure modal damping.","contrary":"All modes change proportionally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0715","hypothesis":"A vented elastic cavity could suppress one vibration mode while enhancing another through gas redistribution.","test":"Measure modal damping.","contrary_result":"All modes change proportionally.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0716","id":"S9-0716","volume":"900v9","title":"A thermal switch using reversible contact buckling could retain conductance after its actuation temperature is removed.","prediction":"A thermal switch using reversible contact buckling could retain conductance after its actuation temperature is removed.","test":"Measure cycles and contact state.","contrary":"Conductance follows temperature uniquely.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0716","hypothesis":"A thermal switch using reversible contact buckling could retain conductance after its actuation temperature is removed.","test":"Measure cycles and contact state.","contrary_result":"Conductance follows temperature uniquely.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0717","id":"S9-0717","volume":"900v9","title":"A twisted hollow beam could separate internal pressure from axial force through opposite mode splitting.","prediction":"A twisted hollow beam could separate internal pressure from axial force through opposite mode splitting.","test":"Calibrate loads independently.","contrary":"Both perturbations shift splitting identically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0717","hypothesis":"A twisted hollow beam could separate internal pressure from axial force through opposite mode splitting.","test":"Calibrate loads independently.","contrary_result":"Both perturbations shift splitting identically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0718","id":"S9-0718","volume":"900v9","title":"A passive droplet counter could infer droplet viscosity from rebound timing at equal volume and surface tension.","prediction":"A passive droplet counter could infer droplet viscosity from rebound timing at equal volume and surface tension.","test":"Control fluid properties.","contrary":"Timing follows surface tension only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0718","hypothesis":"A passive droplet counter could infer droplet viscosity from rebound timing at equal volume and surface tension.","test":"Control fluid properties.","contrary_result":"Timing follows surface tension only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0719","id":"S9-0719","volume":"900v9","title":"A porous evaporator could recover from local dryout by redistributing elastic strain before liquid arrives.","prediction":"A porous evaporator could recover from local dryout by redistributing elastic strain before liquid arrives.","test":"Measure strain and rewetting fronts.","contrary":"Recovery begins only after wetting.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0719","hypothesis":"A porous evaporator could recover from local dryout by redistributing elastic strain before liquid arrives.","test":"Measure strain and rewetting fronts.","contrary_result":"Recovery begins only after wetting.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0720","id":"S9-0720","volume":"900v9","title":"A suspended foil pair could detect gas thermal diffusivity from differential phase rather than absolute temperature.","prediction":"A suspended foil pair could detect gas thermal diffusivity from differential phase rather than absolute temperature.","test":"Calibrate gas mixtures.","contrary":"Phase remains confounded with convection.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0720","hypothesis":"A suspended foil pair could detect gas thermal diffusivity from differential phase rather than absolute temperature.","test":"Calibrate gas mixtures.","contrary_result":"Phase remains confounded with convection.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0721","id":"S9-0721","volume":"900v9","title":"A particle separator could sort equal-density grains by elastic restitution through repeated weak wall taps.","prediction":"A particle separator could sort equal-density grains by elastic restitution through repeated weak wall taps.","test":"Measure trajectories and restitution.","contrary":"Sorting follows size only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0721","hypothesis":"A particle separator could sort equal-density grains by elastic restitution through repeated weak wall taps.","test":"Measure trajectories and restitution.","contrary_result":"Sorting follows size only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0722","id":"S9-0722","volume":"900v9","title":"A liquid bridge bearing could reduce friction noise when its contact-line relaxation matches sliding frequency.","prediction":"A liquid bridge bearing could reduce friction noise when its contact-line relaxation matches sliding frequency.","test":"Measure noise spectra and contact motion.","contrary":"Noise follows viscosity monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0722","hypothesis":"A liquid bridge bearing could reduce friction noise when its contact-line relaxation matches sliding frequency.","test":"Measure noise spectra and contact motion.","contrary_result":"Noise follows viscosity monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0723","id":"S9-0723","volume":"900v9","title":"A resonant cavity could detect a hidden hairline leak through cross-mode phase decorrelation before mean pressure loss.","prediction":"A resonant cavity could detect a hidden hairline leak through cross-mode phase decorrelation before mean pressure loss.","test":"Measure phase and pressure.","contrary":"Pressure detects leakage first.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0723","hypothesis":"A resonant cavity could detect a hidden hairline leak through cross-mode phase decorrelation before mean pressure loss.","test":"Measure phase and pressure.","contrary_result":"Pressure detects leakage first.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0724","id":"S9-0724","volume":"900v9","title":"A thermally expanding lattice could direct heat away from overloads by opening colder parallel contacts.","prediction":"A thermally expanding lattice could direct heat away from overloads by opening colder parallel contacts.","test":"Measure contact motion and heat paths.","contrary":"Heat remains concentrated at overloads.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0724","hypothesis":"A thermally expanding lattice could direct heat away from overloads by opening colder parallel contacts.","test":"Measure contact motion and heat paths.","contrary_result":"Heat remains concentrated at overloads.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0725","id":"S9-0725","volume":"900v9","title":"A fluid-filled flexible ring could distinguish translation from rotation through two internal wave arrival times.","prediction":"A fluid-filled flexible ring could distinguish translation from rotation through two internal wave arrival times.","test":"Apply calibrated motion.","contrary":"Arrival times remain ambiguous.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0725","hypothesis":"A fluid-filled flexible ring could distinguish translation from rotation through two internal wave arrival times.","test":"Apply calibrated motion.","contrary_result":"Arrival times remain ambiguous.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0726","id":"S9-0726","volume":"900v9","title":"A passive mineral coating could delay contact corrosion by steering condensation away from load-bearing junctions.","prediction":"A passive mineral coating could delay contact corrosion by steering condensation away from load-bearing junctions.","test":"Map droplets and contact degradation.","contrary":"Delay follows chemical inhibition only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0726","hypothesis":"A passive mineral coating could delay contact corrosion by steering condensation away from load-bearing junctions.","test":"Map droplets and contact degradation.","contrary_result":"Delay follows chemical inhibition only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0727","id":"S9-0727","volume":"900v9","title":"A bowed plate could measure liquid surface tension from a discontinuous snap-through threshold.","prediction":"A bowed plate could measure liquid surface tension from a discontinuous snap-through threshold.","test":"Calibrate known liquids and pressure.","contrary":"Threshold depends chiefly on wetting history.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0727","hypothesis":"A bowed plate could measure liquid surface tension from a discontinuous snap-through threshold.","test":"Calibrate known liquids and pressure.","contrary_result":"Threshold depends chiefly on wetting history.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0728","id":"S9-0728","volume":"900v9","title":"A bifurcated wick could detect a contaminated branch through anti-phase temperature fluctuations.","prediction":"A bifurcated wick could detect a contaminated branch through anti-phase temperature fluctuations.","test":"Measure branch flow and thermal correlations.","contrary":"Correlations reveal total flow only.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0728","hypothesis":"A bifurcated wick could detect a contaminated branch through anti-phase temperature fluctuations.","test":"Measure branch flow and thermal correlations.","contrary_result":"Correlations reveal total flow only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0729","id":"S9-0729","volume":"900v9","title":"A compliant acoustic shield could reduce narrowband noise by redistributing internal fluid rather than absorbing more energy.","prediction":"A compliant acoustic shield could reduce narrowband noise by redistributing internal fluid rather than absorbing more energy.","test":"Measure energy and fluid motion.","contrary":"Attenuation requires increased dissipation.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0729","hypothesis":"A compliant acoustic shield could reduce narrowband noise by redistributing internal fluid rather than absorbing more energy.","test":"Measure energy and fluid motion.","contrary_result":"Attenuation requires increased dissipation.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0730","id":"S9-0730","volume":"900v9","title":"A reversible granular clamp could retain more load after a small reverse displacement than after monotonic tightening.","prediction":"A reversible granular clamp could retain more load after a small reverse displacement than after monotonic tightening.","test":"Measure force and contact network.","contrary":"Tightening history gives no benefit.","layers":[1,2,3],"categories":["physical","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0730","hypothesis":"A reversible granular clamp could retain more load after a small reverse displacement than after monotonic tightening.","test":"Measure force and contact network.","contrary_result":"Tightening history gives no benefit.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0730","hypothesis":"A reversible granular clamp could retain more load after a small reverse displacement than after monotonic tightening.","test":"Measure force and contact network.","contrary_result":"Tightening history gives no benefit.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"granular clamp reverse displacement load retention experiment","selection_reason":"Force and contact rearrangement provide direct evidence."},"dossier":{"id":"S9-0730","hypothesis":"A reversible granular clamp could retain more load after a small reverse displacement than after monotonic tightening.","test":"Measure force and contact network.","contrary_result":"Tightening history gives no benefit.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"granular clamp reverse displacement load retention experiment","selection_reason":"Force and contact rearrangement provide direct evidence.","rank":1,"title":"A small reverse displacement before granular clamping","reason":"Holding force and imposed motion are direct measurements. The claim concerns a particular preparation path, while granular gripping itself is established prior art.","evidence":"Brown et al., Universal robotic gripper based on the jamming of granular material (2010), accessible primary abstract and experiment descriptions, separates friction, suction and interlocking contributions. It does not establish a benefit of the proposed reverse preparation displacement.","sources":["https://pmc.ncbi.nlm.nih.gov/articles/PMC2973877/"],"protocol":"Use a small granular sleeve and a rough, nonporous test object, with an additional porous-object control to reduce suction. Compare monotonic seating with seating followed by a short reverse displacement and return to the identical final position. Match confining pressure, dwell, peak seating load and total final geometry as closely as feasible. Record pullout force versus displacement, contact area, pressure and sleeve deformation. Randomize fresh packings and disclose differences in input work.","analysis":"A conditional friction model is F=mu*N+I+S, where I denotes interlocking and S suction. Reverse preparation improves F precisely when mu*DeltaN+DeltaI+DeltaS>0 for fixed mu. The equation identifies necessary measurements; it does not predict the signs. A positive force difference that disappears on the porous object implicates suction rather than contact-network improvement.","counterexample":"Reversal can dilate the bed, reduce normal force, or disengage interlocking and thus lower retention. Equal final position does not imply equal packing or equal mechanical work.","decision":"Primary endpoint is maximum pullout force. Report all force curves and packing replicates, not only the largest result. Support requires a reproducible benefit after pressure and geometry matching; attribute mechanism only with contact or suction controls. This remains an untested empirical inequality.","data":"packing_id,history,pressure_Pa,position_m,pullout_force_N,contact_area_m2,input_work_J"},"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0731","id":"S9-0731","volume":"900v9","title":"A soft optical spacer could distinguish thermal expansion from moisture swelling through different relaxation eigenmodes.","prediction":"A soft optical spacer could distinguish thermal expansion from moisture swelling through different relaxation eigenmodes.","test":"Calibrate independently.","contrary":"Eigenmodes remain indistinguishable.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0731","hypothesis":"A soft optical spacer could distinguish thermal expansion from moisture swelling through different relaxation eigenmodes.","test":"Calibrate independently.","contrary_result":"Eigenmodes remain indistinguishable.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0732","id":"S9-0732","volume":"900v9","title":"A microstructured drain could reject bubbles through pressure-induced shape changes without a surface-chemistry gradient.","prediction":"A microstructured drain could reject bubbles through pressure-induced shape changes without a surface-chemistry gradient.","test":"Measure bubble paths and shape.","contrary":"Rejection requires chemical contrast.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0732","hypothesis":"A microstructured drain could reject bubbles through pressure-induced shape changes without a surface-chemistry gradient.","test":"Measure bubble paths and shape.","contrary_result":"Rejection requires chemical contrast.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0733","id":"S9-0733","volume":"900v9","title":"A sealed thermal buffer could sharpen an outlet temperature step using internal phase-front motion.","prediction":"A sealed thermal buffer could sharpen an outlet temperature step using internal phase-front motion.","test":"Measure inlet, outlet, and stored energy.","contrary":"All outputs are smoother than inputs.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0733","hypothesis":"A sealed thermal buffer could sharpen an outlet temperature step using internal phase-front motion.","test":"Measure inlet, outlet, and stored energy.","contrary_result":"All outputs are smoother than inputs.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0734","id":"S9-0734","volume":"900v9","title":"A resonant torque sensor could distinguish deposited mass from altered bearing friction through sideband symmetry.","prediction":"A resonant torque sensor could distinguish deposited mass from altered bearing friction through sideband symmetry.","test":"Calibrate both effects.","contrary":"Sidebands remain symmetric for both.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0734","hypothesis":"A resonant torque sensor could distinguish deposited mass from altered bearing friction through sideband symmetry.","test":"Calibrate both effects.","contrary_result":"Sidebands remain symmetric for both.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0735","id":"S9-0735","volume":"900v9","title":"A porous heat sink could exhibit maximum heat removal before maximum liquid throughput.","prediction":"A porous heat sink could exhibit maximum heat removal before maximum liquid throughput.","test":"Measure heat and flow across pressure.","contrary":"Heat increases throughout the flow range.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0735","hypothesis":"A porous heat sink could exhibit maximum heat removal before maximum liquid throughput.","test":"Measure heat and flow across pressure.","contrary_result":"Heat increases throughout the flow range.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0736","id":"S9-0736","volume":"900v9","title":"A pressure-driven elastic splitter could produce alternating output pulses under a perfectly steady input.","prediction":"A pressure-driven elastic splitter could produce alternating output pulses under a perfectly steady input.","test":"Measure reservoir and channel dynamics.","contrary":"Alternation requires source instability.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0736","hypothesis":"A pressure-driven elastic splitter could produce alternating output pulses under a perfectly steady input.","test":"Measure reservoir and channel dynamics.","contrary_result":"Alternation requires source instability.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0737","id":"S9-0737","volume":"900v9","title":"A reversible solid-contact switch could reveal contamination through a mismatch between electrical and thermal closure thresholds.","prediction":"A reversible solid-contact switch could reveal contamination through a mismatch between electrical and thermal closure thresholds.","test":"Measure both channels.","contrary":"Thresholds shift together.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0737","hypothesis":"A reversible solid-contact switch could reveal contamination through a mismatch between electrical and thermal closure thresholds.","test":"Measure both channels.","contrary_result":"Thresholds shift together.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0738","id":"S9-0738","volume":"900v9","title":"A multilayer acoustic window could reject diffuse vibration while transmitting a coherent local pulse through phase alignment.","prediction":"A multilayer acoustic window could reject diffuse vibration while transmitting a coherent local pulse through phase alignment.","test":"Measure spatial coherence and transfer.","contrary":"Attenuation is coherence independent.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0738","hypothesis":"A multilayer acoustic window could reject diffuse vibration while transmitting a coherent local pulse through phase alignment.","test":"Measure spatial coherence and transfer.","contrary_result":"Attenuation is coherence independent.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0739","id":"S9-0739","volume":"900v9","title":"A moving thermal boundary could transport a trapped liquid plug against an adverse mean pressure.","prediction":"A moving thermal boundary could transport a trapped liquid plug against an adverse mean pressure.","test":"Track plug and thermal fields.","contrary":"Transport requires net pressure assistance.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0739","hypothesis":"A moving thermal boundary could transport a trapped liquid plug against an adverse mean pressure.","test":"Track plug and thermal fields.","contrary_result":"Transport requires net pressure assistance.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0740","id":"S9-0740","volume":"900v9","title":"A passive vapor sensor could reset faster through weak mechanical unloading than through dry purging alone.","prediction":"A passive vapor sensor could reset faster through weak mechanical unloading than through dry purging alone.","test":"Measure recovery and adsorption.","contrary":"Unloading changes only signal calibration.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0740","hypothesis":"A passive vapor sensor could reset faster through weak mechanical unloading than through dry purging alone.","test":"Measure recovery and adsorption.","contrary_result":"Unloading changes only signal calibration.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0741","id":"S9-0741","volume":"900v9","title":"A granular thermal interface could identify overcompression from rising resistance noise before mean resistance increases.","prediction":"A granular thermal interface could identify overcompression from rising resistance noise before mean resistance increases.","test":"Measure noise and load.","contrary":"Noise changes follow mean resistance.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0741","hypothesis":"A granular thermal interface could identify overcompression from rising resistance noise before mean resistance increases.","test":"Measure noise and load.","contrary_result":"Noise changes follow mean resistance.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0742","id":"S9-0742","volume":"900v9","title":"A liquid-coated pivot could have a minimum angular drift at intermediate wetted area.","prediction":"A liquid-coated pivot could have a minimum angular drift at intermediate wetted area.","test":"Measure drift across coverage.","contrary":"Drift changes monotonically.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0742","hypothesis":"A liquid-coated pivot could have a minimum angular drift at intermediate wetted area.","test":"Measure drift across coverage.","contrary_result":"Drift changes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0743","id":"S9-0743","volume":"900v9","title":"A resonator with two hidden cavities could locate condensation from the relative signs of frequency shifts.","prediction":"A resonator with two hidden cavities could locate condensation from the relative signs of frequency shifts.","test":"Wet cavities separately.","contrary":"Signs depend only on total water.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0743","hypothesis":"A resonator with two hidden cavities could locate condensation from the relative signs of frequency shifts.","test":"Wet cavities separately.","contrary_result":"Signs depend only on total water.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0744","id":"S9-0744","volume":"900v9","title":"A flexible gas diffuser could narrow bubble-size distributions under a slowly varying supply pressure.","prediction":"A flexible gas diffuser could narrow bubble-size distributions under a slowly varying supply pressure.","test":"Compare rigid and flexible pores.","contrary":"Flexibility broadens distributions.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0744","hypothesis":"A flexible gas diffuser could narrow bubble-size distributions under a slowly varying supply pressure.","test":"Compare rigid and flexible pores.","contrary_result":"Flexibility broadens distributions.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0745","id":"S9-0745","volume":"900v9","title":"A heat-pipe analogue could distinguish insufficient charge from blocked return flow through opposite phase responses.","prediction":"A heat-pipe analogue could distinguish insufficient charge from blocked return flow through opposite phase responses.","test":"Induce faults separately.","contrary":"Transfer functions coincide.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0745","hypothesis":"A heat-pipe analogue could distinguish insufficient charge from blocked return flow through opposite phase responses.","test":"Induce faults separately.","contrary_result":"Transfer functions coincide.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0746","id":"S9-0746","volume":"900v9","title":"A passive pressure recorder could retain the order of two pulses in two reversible geometric degrees of freedom.","prediction":"A passive pressure recorder could retain the order of two pulses in two reversible geometric degrees of freedom.","test":"Reverse pulse order.","contrary":"Final geometry depends only on extrema.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0746","hypothesis":"A passive pressure recorder could retain the order of two pulses in two reversible geometric degrees of freedom.","test":"Reverse pulse order.","contrary_result":"Final geometry depends only on extrema.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0747","id":"S9-0747","volume":"900v9","title":"A thermal expansion joint could reduce vibration transmission most strongly during intermediate rather than full closure.","prediction":"A thermal expansion joint could reduce vibration transmission most strongly during intermediate rather than full closure.","test":"Measure contact maps and spectra.","contrary":"Transmission varies monotonically with closure.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0747","hypothesis":"A thermal expansion joint could reduce vibration transmission most strongly during intermediate rather than full closure.","test":"Measure contact maps and spectra.","contrary_result":"Transmission varies monotonically with closure.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0748","id":"S9-0748","volume":"900v9","title":"A narrow liquid channel could reject vibration-induced mixing when its wall relaxation time matches the forcing period.","prediction":"A narrow liquid channel could reject vibration-induced mixing when its wall relaxation time matches the forcing period.","test":"Measure tracer spreading.","contrary":"Matching enhances mixing instead.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0748","hypothesis":"A narrow liquid channel could reject vibration-induced mixing when its wall relaxation time matches the forcing period.","test":"Measure tracer spreading.","contrary_result":"Matching enhances mixing instead.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0749","id":"S9-0749","volume":"900v9","title":"A dielectric coating could distinguish surface erosion from liquid uptake through opposite changes in noise kurtosis.","prediction":"A dielectric coating could distinguish surface erosion from liquid uptake through opposite changes in noise kurtosis.","test":"Calibrate both changes.","contrary":"Kurtosis follows mean capacitance only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0749","hypothesis":"A dielectric coating could distinguish surface erosion from liquid uptake through opposite changes in noise kurtosis.","test":"Calibrate both changes.","contrary_result":"Kurtosis follows mean capacitance only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0750","id":"S9-0750","volume":"900v9","title":"A suspended lattice could localize hidden liquid accumulation through a rotation of its principal vibration axes.","prediction":"A suspended lattice could localize hidden liquid accumulation through a rotation of its principal vibration axes.","test":"Move a known liquid mass.","contrary":"Axes depend only on support drift.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0750","hypothesis":"A suspended lattice could localize hidden liquid accumulation through a rotation of its principal vibration axes.","test":"Move a known liquid mass.","contrary_result":"Axes depend only on support drift.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0751","id":"S9-0751","volume":"900v9","title":"A compliant particle sieve could pass rigid grains while retaining equal-sized soft grains under oscillatory flow.","prediction":"A compliant particle sieve could pass rigid grains while retaining equal-sized soft grains under oscillatory flow.","test":"Measure deformation and passage.","contrary":"Size predicts passage exclusively.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0751","hypothesis":"A compliant particle sieve could pass rigid grains while retaining equal-sized soft grains under oscillatory flow.","test":"Measure deformation and passage.","contrary_result":"Size predicts passage exclusively.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0752","id":"S9-0752","volume":"900v9","title":"A fluidic thermal contact could break and remake before a solid joint reaches damaging stress.","prediction":"A fluidic thermal contact could break and remake before a solid joint reaches damaging stress.","test":"Measure strain and conductance.","contrary":"Contact changes occur after damage.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0752","hypothesis":"A fluidic thermal contact could break and remake before a solid joint reaches damaging stress.","test":"Measure strain and conductance.","contrary_result":"Contact changes occur after damage.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0753","id":"S9-0753","volume":"900v9","title":"A self-venting cavity could reduce pressure spikes more when its opening is slightly misaligned.","prediction":"A self-venting cavity could reduce pressure spikes more when its opening is slightly misaligned.","test":"Measure vent flow and pressure.","contrary":"Perfect alignment always performs best.","layers":[1,2,3],"categories":["physical","measurement"],"evidence":"Literature-informed proposal","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0753","hypothesis":"A self-venting cavity could reduce pressure spikes more when its opening is slightly misaligned.","test":"Measure vent flow and pressure.","contrary_result":"Perfect alignment always performs best.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":{"id":"S9-0753","hypothesis":"A self-venting cavity could reduce pressure spikes more when its opening is slightly misaligned.","test":"Measure vent flow and pressure.","contrary_result":"Perfect alignment always performs best.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"vent cavity misalignment pressure peak experiment","selection_reason":"Opening offset is a reproducible geometric parameter."},"dossier":{"id":"S9-0753","hypothesis":"A self-venting cavity could reduce pressure spikes more when its opening is slightly misaligned.","test":"Measure vent flow and pressure.","contrary_result":"Perfect alignment always performs best.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply","research_query":"vent cavity misalignment pressure peak experiment","selection_reason":"Opening offset is a reproducible geometric parameter.","rank":8,"title":"A small vent offset and transient pressure relief","reason":"Geometry is inexpensive to vary and a null result is useful. The sign of the effect is not established, making this an exploratory final selection rather than a high-confidence prediction.","evidence":"Experiments and Simulations on the Factors Governing Fast Transient Responses in Cavity Discharge (2026) is a primary publisher lead returned by search. Direct opening was rate-limited. Its actual results and relevance to offset were not verified; no positive source support is claimed.","sources":["https://www.mdpi.com/2076-3417/16/7/3535"],"protocol":"Use a low-pressure air cavity with identical vent area, thickness and inlet pulse. Shift the vent relative to the inflow axis while keeping volume fixed. Measure fast pressure at several positions, actual inlet flow and vent flow. Compare offset and centered layouts in randomized order, with a long-duration pulse control and swapped sensor positions. Use an unpressurized or very low-pressure prototype before any apparatus capable of storing substantial energy.","analysis":"A spatially uniform model C*p'+G*p=q(t) predicts identical responses for equal C,G regardless of position. Thus this hypothesis requires distributed flow, inertance or an offset-dependent effective conductance. For a rectangular inlet pulse q0 of duration T, ppeak=(q0/G)*(1-exp(-G*T/C)). This decreases with G, so offset lowers the peak only if it increases effective G or changes dynamics beyond the lumped model. That missing mechanism must be measured.","counterexample":"Offset may increase path loss and reduce conductance, raising peak pressure. A local pressure reduction at one sensor may merely move the peak elsewhere.","decision":"Primary outcome is the largest measured cavity pressure across all sensors. Require equal delivered inlet flow histories and report spatial maxima. If only one local sensor improves, reject the global pressure-relief interpretation. This dossier supplies a test and null model, not proof of benefit.","data":"time_s,layout_id,vent_offset_m,inlet_flow_m3_s,vent_flow_m3_s,pressure_sensor_id,pressure_Pa,temperature_C"},"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0754","id":"S9-0754","volume":"900v9","title":"A porous optical coating could signal impending delamination through increasing spatial correlation of spectral fluctuations.","prediction":"A porous optical coating could signal impending delamination through increasing spatial correlation of spectral fluctuations.","test":"Measure correlation and interface integrity.","contrary":"Correlation rises only after separation.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0754","hypothesis":"A porous optical coating could signal impending delamination through increasing spatial correlation of spectral fluctuations.","test":"Measure correlation and interface integrity.","contrary_result":"Correlation rises only after separation.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0755","id":"S9-0755","volume":"900v9","title":"A passive flow meter could distinguish pulsation from mean flow through oppositely curved elastic branches.","prediction":"A passive flow meter could distinguish pulsation from mean flow through oppositely curved elastic branches.","test":"Calibrate independent flow components.","contrary":"Outputs remain inseparable.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0755","hypothesis":"A passive flow meter could distinguish pulsation from mean flow through oppositely curved elastic branches.","test":"Calibrate independent flow components.","contrary_result":"Outputs remain inseparable.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0756","id":"S9-0756","volume":"900v9","title":"A thermally actuated acoustic cavity could maintain a constant resonant frequency over a finite temperature interval.","prediction":"A thermally actuated acoustic cavity could maintain a constant resonant frequency over a finite temperature interval.","test":"Measure geometry and sound speed.","contrary":"Compensation works only at one point.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0756","hypothesis":"A thermally actuated acoustic cavity could maintain a constant resonant frequency over a finite temperature interval.","test":"Measure geometry and sound speed.","contrary_result":"Compensation works only at one point.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0757","id":"S9-0757","volume":"900v9","title":"A loose-contact conductor could reveal vibration direction through the sign of voltage-noise asymmetry.","prediction":"A loose-contact conductor could reveal vibration direction through the sign of voltage-noise asymmetry.","test":"Apply calibrated directional motion.","contrary":"Noise depends only on acceleration magnitude.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0757","hypothesis":"A loose-contact conductor could reveal vibration direction through the sign of voltage-noise asymmetry.","test":"Apply calibrated directional motion.","contrary_result":"Noise depends only on acceleration magnitude.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0758","id":"S9-0758","volume":"900v9","title":"A wet friction joint could reduce restart force after a short negative pressure pulse.","prediction":"A wet friction joint could reduce restart force after a short negative pressure pulse.","test":"Measure liquid distribution and friction.","contrary":"Force follows mean pressure only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0758","hypothesis":"A wet friction joint could reduce restart force after a short negative pressure pulse.","test":"Measure liquid distribution and friction.","contrary_result":"Force follows mean pressure only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0759","id":"S9-0759","volume":"900v9","title":"A floating heat exchanger could self-level through differential condensation on its underside.","prediction":"A floating heat exchanger could self-level through differential condensation on its underside.","test":"Measure tilt and condensation.","contrary":"Leveling requires external mechanical asymmetry.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0759","hypothesis":"A floating heat exchanger could self-level through differential condensation on its underside.","test":"Measure tilt and condensation.","contrary_result":"Leveling requires external mechanical asymmetry.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0760","id":"S9-0760","volume":"900v9","title":"A porous pressure damper could distinguish a gas leak from an increase in liquid compressibility through recovery shape.","prediction":"A porous pressure damper could distinguish a gas leak from an increase in liquid compressibility through recovery shape.","test":"Calibrate faults.","contrary":"Recovery curves coincide.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0760","hypothesis":"A porous pressure damper could distinguish a gas leak from an increase in liquid compressibility through recovery shape.","test":"Calibrate faults.","contrary_result":"Recovery curves coincide.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0761","id":"S9-0761","volume":"900v9","title":"A flexible optical grating could measure fluid shear while rejecting uniform hydrostatic pressure through symmetry.","prediction":"A flexible optical grating could measure fluid shear while rejecting uniform hydrostatic pressure through symmetry.","test":"Calibrate loads.","contrary":"Pressure produces the same signal.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0761","hypothesis":"A flexible optical grating could measure fluid shear while rejecting uniform hydrostatic pressure through symmetry.","test":"Calibrate loads.","contrary_result":"Pressure produces the same signal.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0762","id":"S9-0762","volume":"900v9","title":"A thin thermal barrier could signal internal cracking through a phase jump in transmitted temperature oscillations.","prediction":"A thin thermal barrier could signal internal cracking through a phase jump in transmitted temperature oscillations.","test":"Image cracks and thermal transfer.","contrary":"Signal changes are gradual only.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0762","hypothesis":"A thin thermal barrier could signal internal cracking through a phase jump in transmitted temperature oscillations.","test":"Image cracks and thermal transfer.","contrary_result":"Signal changes are gradual only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0763","id":"S9-0763","volume":"900v9","title":"A liquid-filled beam could suppress impact rebound through delayed internal circulation at constant total mass.","prediction":"A liquid-filled beam could suppress impact rebound through delayed internal circulation at constant total mass.","test":"Compare matched rigid mass.","contrary":"Rebound reduction follows static damping alone.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0763","hypothesis":"A liquid-filled beam could suppress impact rebound through delayed internal circulation at constant total mass.","test":"Compare matched rigid mass.","contrary_result":"Rebound reduction follows static damping alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0764","id":"S9-0764","volume":"900v9","title":"A passive gas sampler could preferentially collect the beginning of a concentration pulse through reversible pore closure.","prediction":"A passive gas sampler could preferentially collect the beginning of a concentration pulse through reversible pore closure.","test":"Measure collected time fractions.","contrary":"Sampling is proportional to pulse duration.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0764","hypothesis":"A passive gas sampler could preferentially collect the beginning of a concentration pulse through reversible pore closure.","test":"Measure collected time fractions.","contrary_result":"Sampling is proportional to pulse duration.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0765","id":"S9-0765","volume":"900v9","title":"A magnetically loaded elastic loop could separate temperature and field changes through opposite mode-order shifts.","prediction":"A magnetically loaded elastic loop could separate temperature and field changes through opposite mode-order shifts.","test":"Calibrate independently.","contrary":"Mode order remains ambiguous.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0765","hypothesis":"A magnetically loaded elastic loop could separate temperature and field changes through opposite mode-order shifts.","test":"Calibrate independently.","contrary_result":"Mode order remains ambiguous.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0766","id":"S9-0766","volume":"900v9","title":"A thermal contact network could redistribute heat faster after selective unloading than after uniform compression.","prediction":"A thermal contact network could redistribute heat faster after selective unloading than after uniform compression.","test":"Measure transient heat paths.","contrary":"Uniform compression always improves redistribution.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0766","hypothesis":"A thermal contact network could redistribute heat faster after selective unloading than after uniform compression.","test":"Measure transient heat paths.","contrary_result":"Uniform compression always improves redistribution.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0767","id":"S9-0767","volume":"900v9","title":"A microbubble reservoir could detect dissolved-gas supersaturation through enhanced volume fluctuations before average growth.","prediction":"A microbubble reservoir could detect dissolved-gas supersaturation through enhanced volume fluctuations before average growth.","test":"Measure fluctuations and gas.","contrary":"Growth is detected first.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0767","hypothesis":"A microbubble reservoir could detect dissolved-gas supersaturation through enhanced volume fluctuations before average growth.","test":"Measure fluctuations and gas.","contrary_result":"Growth is detected first.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0768","id":"S9-0768","volume":"900v9","title":"A flexible capillary joint could resist leakage most strongly at intermediate axial tension.","prediction":"A flexible capillary joint could resist leakage most strongly at intermediate axial tension.","test":"Measure leak thresholds.","contrary":"Threshold changes monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0768","hypothesis":"A flexible capillary joint could resist leakage most strongly at intermediate axial tension.","test":"Measure leak thresholds.","contrary_result":"Threshold changes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0769","id":"S9-0769","volume":"900v9","title":"A particle-coated droplet could measure shear direction through a reversible quadrupolar texture.","prediction":"A particle-coated droplet could measure shear direction through a reversible quadrupolar texture.","test":"Track particles and imposed shear.","contrary":"Texture is independent of direction.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0769","hypothesis":"A particle-coated droplet could measure shear direction through a reversible quadrupolar texture.","test":"Track particles and imposed shear.","contrary_result":"Texture is independent of direction.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0770","id":"S9-0770","volume":"900v9","title":"A resonant porous tile could distinguish interior wetting from surface puddling through modal participation ratios.","prediction":"A resonant porous tile could distinguish interior wetting from surface puddling through modal participation ratios.","test":"Calibrate water placement.","contrary":"Ratios depend only on water mass.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0770","hypothesis":"A resonant porous tile could distinguish interior wetting from surface puddling through modal participation ratios.","test":"Calibrate water placement.","contrary_result":"Ratios depend only on water mass.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0771","id":"S9-0771","volume":"900v9","title":"A passive thermal latch could reset through a brief cooling pulse without returning its bulk temperature to baseline.","prediction":"A passive thermal latch could reset through a brief cooling pulse without returning its bulk temperature to baseline.","test":"Measure local and bulk temperatures.","contrary":"Reset requires bulk cooling.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0771","hypothesis":"A passive thermal latch could reset through a brief cooling pulse without returning its bulk temperature to baseline.","test":"Measure local and bulk temperatures.","contrary_result":"Reset requires bulk cooling.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0772","id":"S9-0772","volume":"900v9","title":"A deformable nozzle could suppress jet breakup at intermediate pressure through phase-lagged radial motion.","prediction":"A deformable nozzle could suppress jet breakup at intermediate pressure through phase-lagged radial motion.","test":"Measure nozzle and jet modes.","contrary":"Stability follows jet speed only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0772","hypothesis":"A deformable nozzle could suppress jet breakup at intermediate pressure through phase-lagged radial motion.","test":"Measure nozzle and jet modes.","contrary_result":"Stability follows jet speed only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0773","id":"S9-0773","volume":"900v9","title":"A double-shell pressure sensor could reject temperature drift using unequal thermal contact paths.","prediction":"A double-shell pressure sensor could reject temperature drift using unequal thermal contact paths.","test":"Calibrate pressure and temperature.","contrary":"Compensation removes pressure response too.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0773","hypothesis":"A double-shell pressure sensor could reject temperature drift using unequal thermal contact paths.","test":"Calibrate pressure and temperature.","contrary_result":"Compensation removes pressure response too.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0774","id":"S9-0774","volume":"900v9","title":"A liquid-filled microgap could warn of mechanical overload through a sharp increase in acoustic loss before contact.","prediction":"A liquid-filled microgap could warn of mechanical overload through a sharp increase in acoustic loss before contact.","test":"Measure gap and damping.","contrary":"Loss jumps only after contact.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0774","hypothesis":"A liquid-filled microgap could warn of mechanical overload through a sharp increase in acoustic loss before contact.","test":"Measure gap and damping.","contrary_result":"Loss jumps only after contact.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0775","id":"S9-0775","volume":"900v9","title":"A granular heat-storage bed could release heat more evenly after brief transverse vibration during charging.","prediction":"A granular heat-storage bed could release heat more evenly after brief transverse vibration during charging.","test":"Measure temperature distribution.","contrary":"Benefit follows improved bulk mixing alone.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0775","hypothesis":"A granular heat-storage bed could release heat more evenly after brief transverse vibration during charging.","test":"Measure temperature distribution.","contrary_result":"Benefit follows improved bulk mixing alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0776","id":"S9-0776","volume":"900v9","title":"A passive droplet trap could release oversized droplets while retaining smaller ones through elastic inversion.","prediction":"A passive droplet trap could release oversized droplets while retaining smaller ones through elastic inversion.","test":"Measure size thresholds and shape.","contrary":"Release is governed only by gravity.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0776","hypothesis":"A passive droplet trap could release oversized droplets while retaining smaller ones through elastic inversion.","test":"Measure size thresholds and shape.","contrary_result":"Release is governed only by gravity.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0777","id":"S9-0777","volume":"900v9","title":"A porous conductor could detect directional vapor flow through asymmetric thermoelectric noise correlations.","prediction":"A porous conductor could detect directional vapor flow through asymmetric thermoelectric noise correlations.","test":"Reverse flow at matched uptake.","contrary":"Correlations remain direction independent.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0777","hypothesis":"A porous conductor could detect directional vapor flow through asymmetric thermoelectric noise correlations.","test":"Reverse flow at matched uptake.","contrary_result":"Correlations remain direction independent.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0778","id":"S9-0778","volume":"900v9","title":"A flexible fluidic resistor could reduce pressure noise without reducing concentration-pulse bandwidth by separating wall and core flows.","prediction":"A flexible fluidic resistor could reduce pressure noise without reducing concentration-pulse bandwidth by separating wall and core flows.","test":"Measure both transfer functions.","contrary":"Bandwidths decline together.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0778","hypothesis":"A flexible fluidic resistor could reduce pressure noise without reducing concentration-pulse bandwidth by separating wall and core flows.","test":"Measure both transfer functions.","contrary_result":"Bandwidths decline together.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0779","id":"S9-0779","volume":"900v9","title":"A hollow optical resonator could distinguish internal wall wetting from exterior wetting through mode anticrossing direction.","prediction":"A hollow optical resonator could distinguish internal wall wetting from exterior wetting through mode anticrossing direction.","test":"Wet surfaces separately.","contrary":"Anticrossings are indistinguishable.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0779","hypothesis":"A hollow optical resonator could distinguish internal wall wetting from exterior wetting through mode anticrossing direction.","test":"Wet surfaces separately.","contrary_result":"Anticrossings are indistinguishable.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0780","id":"S9-0780","volume":"900v9","title":"A thermal switch could have a lower cycling loss when driven by unequal heating and cooling rates.","prediction":"A thermal switch could have a lower cycling loss when driven by unequal heating and cooling rates.","test":"Measure energy and switching reliability.","contrary":"Loss depends only on cycle duration.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0780","hypothesis":"A thermal switch could have a lower cycling loss when driven by unequal heating and cooling rates.","test":"Measure energy and switching reliability.","contrary_result":"Loss depends only on cycle duration.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0781","id":"S9-0781","volume":"900v9","title":"A suspended rough plate could infer droplet evaporation rate from torsional noise rather than mean deflection.","prediction":"A suspended rough plate could infer droplet evaporation rate from torsional noise rather than mean deflection.","test":"Measure mass loss and noise.","contrary":"Noise reflects ambient vibration only.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0781","hypothesis":"A suspended rough plate could infer droplet evaporation rate from torsional noise rather than mean deflection.","test":"Measure mass loss and noise.","contrary_result":"Noise reflects ambient vibration only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0782","id":"S9-0782","volume":"900v9","title":"A compliant porous seal could become tighter under alternating rather than constant differential pressure.","prediction":"A compliant porous seal could become tighter under alternating rather than constant differential pressure.","test":"Measure leakage at equal mean load.","contrary":"Only peak pressure matters.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0782","hypothesis":"A compliant porous seal could become tighter under alternating rather than constant differential pressure.","test":"Measure leakage at equal mean load.","contrary_result":"Only peak pressure matters.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0783","id":"S9-0783","volume":"900v9","title":"A vibration-powered particle filter could clean its entrance while retaining particles deeper inside.","prediction":"A vibration-powered particle filter could clean its entrance while retaining particles deeper inside.","test":"Map deposits and outlet loss.","contrary":"Cleaning always releases interior particles.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0783","hypothesis":"A vibration-powered particle filter could clean its entrance while retaining particles deeper inside.","test":"Map deposits and outlet loss.","contrary_result":"Cleaning always releases interior particles.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0784","id":"S9-0784","volume":"900v9","title":"A reversible acoustic contact could detect surface oxidation through a shift in its nonlinear threshold before linear stiffness changes.","prediction":"A reversible acoustic contact could detect surface oxidation through a shift in its nonlinear threshold before linear stiffness changes.","test":"Measure oxide and acoustic response.","contrary":"Linear stiffness detects oxidation first.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0784","hypothesis":"A reversible acoustic contact could detect surface oxidation through a shift in its nonlinear threshold before linear stiffness changes.","test":"Measure oxide and acoustic response.","contrary_result":"Linear stiffness detects oxidation first.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0785","id":"S9-0785","volume":"900v9","title":"A fluidic bridge could indicate incipient blockage through an increase in anti-phase branch fluctuations.","prediction":"A fluidic bridge could indicate incipient blockage through an increase in anti-phase branch fluctuations.","test":"Measure blockage and correlations.","contrary":"Fluctuations follow source noise only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0785","hypothesis":"A fluidic bridge could indicate incipient blockage through an increase in anti-phase branch fluctuations.","test":"Measure blockage and correlations.","contrary_result":"Fluctuations follow source noise only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0786","id":"S9-0786","volume":"900v9","title":"A temperature-sensitive optical loop could identify which segment is wetted from noncommuting spectral shifts.","prediction":"A temperature-sensitive optical loop could identify which segment is wetted from noncommuting spectral shifts.","test":"Wet segments in reversed order.","contrary":"Final spectrum depends only on total water.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0786","hypothesis":"A temperature-sensitive optical loop could identify which segment is wetted from noncommuting spectral shifts.","test":"Wet segments in reversed order.","contrary_result":"Final spectrum depends only on total water.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0787","id":"S9-0787","volume":"900v9","title":"A porous heat-transfer surface could avoid persistent dry spots through weak geometrical disorder.","prediction":"A porous heat-transfer surface could avoid persistent dry spots through weak geometrical disorder.","test":"Compare matched ordered surfaces.","contrary":"Disorder only worsens wetting uniformity.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0787","hypothesis":"A porous heat-transfer surface could avoid persistent dry spots through weak geometrical disorder.","test":"Compare matched ordered surfaces.","contrary_result":"Disorder only worsens wetting uniformity.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0788","id":"S9-0788","volume":"900v9","title":"A compliant bearing could distinguish transient lubrication failure from permanent wear through recovery of mode coupling.","prediction":"A compliant bearing could distinguish transient lubrication failure from permanent wear through recovery of mode coupling.","test":"Induce separately and restore lubricant.","contrary":"Coupling recovers identically.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0788","hypothesis":"A compliant bearing could distinguish transient lubrication failure from permanent wear through recovery of mode coupling.","test":"Induce separately and restore lubricant.","contrary_result":"Coupling recovers identically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0789","id":"S9-0789","volume":"900v9","title":"A passive pressure equalizer could retain fast composition changes while suppressing pressure shocks through gas-selective compliance.","prediction":"A passive pressure equalizer could retain fast composition changes while suppressing pressure shocks through gas-selective compliance.","test":"Measure pressure and composition transfer.","contrary":"Both changes are equally delayed.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0789","hypothesis":"A passive pressure equalizer could retain fast composition changes while suppressing pressure shocks through gas-selective compliance.","test":"Measure pressure and composition transfer.","contrary_result":"Both changes are equally delayed.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0790","id":"S9-0790","volume":"900v9","title":"A thermal sensor pair could identify contact loss from changing cross-correlation before absolute temperature diverges.","prediction":"A thermal sensor pair could identify contact loss from changing cross-correlation before absolute temperature diverges.","test":"Control contact deterioration.","contrary":"Temperature divergence always leads.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0790","hypothesis":"A thermal sensor pair could identify contact loss from changing cross-correlation before absolute temperature diverges.","test":"Control contact deterioration.","contrary_result":"Temperature divergence always leads.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0791","id":"S9-0791","volume":"900v9","title":"A liquid-filled elastic tube could exhibit minimum acoustic transmission at intermediate internal pressure.","prediction":"A liquid-filled elastic tube could exhibit minimum acoustic transmission at intermediate internal pressure.","test":"Sweep pressure and measure modes.","contrary":"Transmission changes monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0791","hypothesis":"A liquid-filled elastic tube could exhibit minimum acoustic transmission at intermediate internal pressure.","test":"Sweep pressure and measure modes.","contrary_result":"Transmission changes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0792","id":"S9-0792","volume":"900v9","title":"A reversible magnetic clamp could reduce thermal contact drift through small field dithering below slip threshold.","prediction":"A reversible magnetic clamp could reduce thermal contact drift through small field dithering below slip threshold.","test":"Measure conductance and motion.","contrary":"Stability requires slip.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0792","hypothesis":"A reversible magnetic clamp could reduce thermal contact drift through small field dithering below slip threshold.","test":"Measure conductance and motion.","contrary_result":"Stability requires slip.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0793","id":"S9-0793","volume":"900v9","title":"A passive shear sensor could reject uniform swelling through an antisymmetric pore geometry.","prediction":"A passive shear sensor could reject uniform swelling through an antisymmetric pore geometry.","test":"Calibrate swelling and shear.","contrary":"Both produce antisymmetric signals.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0793","hypothesis":"A passive shear sensor could reject uniform swelling through an antisymmetric pore geometry.","test":"Calibrate swelling and shear.","contrary_result":"Both produce antisymmetric signals.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0794","id":"S9-0794","volume":"900v9","title":"A flexible insulation panel could reveal hidden moisture through amplitude-dependent vibration damping.","prediction":"A flexible insulation panel could reveal hidden moisture through amplitude-dependent vibration damping.","test":"Measure water location and damping.","contrary":"Damping depends only on total mass.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0794","hypothesis":"A flexible insulation panel could reveal hidden moisture through amplitude-dependent vibration damping.","test":"Measure water location and damping.","contrary_result":"Damping depends only on total mass.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0795","id":"S9-0795","volume":"900v9","title":"A gas-liquid separator could self-stabilize its outlet composition through delayed elastic chamber expansion.","prediction":"A gas-liquid separator could self-stabilize its outlet composition through delayed elastic chamber expansion.","test":"Measure composition under input disturbances.","contrary":"Elasticity amplifies disturbances.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0795","hypothesis":"A gas-liquid separator could self-stabilize its outlet composition through delayed elastic chamber expansion.","test":"Measure composition under input disturbances.","contrary_result":"Elasticity amplifies disturbances.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0796","id":"S9-0796","volume":"900v9","title":"A capillary pressure recorder could distinguish two pulse shapes with equal peak and volume through final interface curvature.","prediction":"A capillary pressure recorder could distinguish two pulse shapes with equal peak and volume through final interface curvature.","test":"Apply calibrated pulses.","contrary":"Curvature depends only on total volume.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0796","hypothesis":"A capillary pressure recorder could distinguish two pulse shapes with equal peak and volume through final interface curvature.","test":"Apply calibrated pulses.","contrary_result":"Curvature depends only on total volume.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0797","id":"S9-0797","volume":"900v9","title":"A thermally cycled porous joint could heal a small gap through reversible particle rearrangement without added material.","prediction":"A thermally cycled porous joint could heal a small gap through reversible particle rearrangement without added material.","test":"Image contacts and measure transfer.","contrary":"Recovery requires permanent sintering.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0797","hypothesis":"A thermally cycled porous joint could heal a small gap through reversible particle rearrangement without added material.","test":"Image contacts and measure transfer.","contrary_result":"Recovery requires permanent sintering.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0798","id":"S9-0798","volume":"900v9","title":"A resonant fluidic sensor could separate evaporation from leakage through opposite correlations between frequency and damping.","prediction":"A resonant fluidic sensor could separate evaporation from leakage through opposite correlations between frequency and damping.","test":"Induce each route.","contrary":"Correlation signs coincide.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0798","hypothesis":"A resonant fluidic sensor could separate evaporation from leakage through opposite correlations between frequency and damping.","test":"Induce each route.","contrary_result":"Correlation signs coincide.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0799","id":"S9-0799","volume":"900v9","title":"A mechanically coupled pair of droplets could reject common vibration while revealing unequal composition through phase differences.","prediction":"A mechanically coupled pair of droplets could reject common vibration while revealing unequal composition through phase differences.","test":"Measure calibrated fluids.","contrary":"Phase differences follow size mismatch only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0799","hypothesis":"A mechanically coupled pair of droplets could reject common vibration while revealing unequal composition through phase differences.","test":"Measure calibrated fluids.","contrary_result":"Phase differences follow size mismatch only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0800","id":"S9-0800","volume":"900v9","title":"A passive contact array could localize a moving heat source through the sequence of reversible closures.","prediction":"A passive contact array could localize a moving heat source through the sequence of reversible closures.","test":"Record contacts and source position.","contrary":"Closures encode only peak temperature.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0800","hypothesis":"A passive contact array could localize a moving heat source through the sequence of reversible closures.","test":"Record contacts and source position.","contrary_result":"Closures encode only peak temperature.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0801","id":"S9-0801","volume":"900v9","title":"Two weakly coupled optical cavities could exchange energy more completely during a slow loss modulation than at fixed equal losses.","prediction":"Two weakly coupled optical cavities could exchange energy more completely during a slow loss modulation than at fixed equal losses.","test":"Measure energy transfer.","contrary":"Modulation only dissipates energy.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0801","hypothesis":"Two weakly coupled optical cavities could exchange energy more completely during a slow loss modulation than at fixed equal losses.","test":"Measure energy transfer.","contrary_result":"Modulation only dissipates energy.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0802","id":"S9-0802","volume":"900v9","title":"A mechanically driven crystal could generate a directional phonon population without a net temperature gradient.","prediction":"A mechanically driven crystal could generate a directional phonon population without a net temperature gradient.","test":"Measure directional scattering.","contrary":"Signals reduce to bulk heating.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0802","hypothesis":"A mechanically driven crystal could generate a directional phonon population without a net temperature gradient.","test":"Measure directional scattering.","contrary_result":"Signals reduce to bulk heating.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0803","id":"S9-0803","volume":"900v9","title":"A disordered waveguide could exhibit reduced backscatter after reversible local softening at one interference hotspot.","prediction":"A disordered waveguide could exhibit reduced backscatter after reversible local softening at one interference hotspot.","test":"Map fields and stiffness.","contrary":"Softening increases all scattering.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0803","hypothesis":"A disordered waveguide could exhibit reduced backscatter after reversible local softening at one interference hotspot.","test":"Map fields and stiffness.","contrary_result":"Softening increases all scattering.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0804","id":"S9-0804","volume":"900v9","title":"An acoustic vortex could separate hollow from solid equal-density particles through rotational coupling.","prediction":"An acoustic vortex could separate hollow from solid equal-density particles through rotational coupling.","test":"Track independently characterized particles.","contrary":"Translation follows size alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0804","hypothesis":"An acoustic vortex could separate hollow from solid equal-density particles through rotational coupling.","test":"Track independently characterized particles.","contrary_result":"Translation follows size alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0805","id":"S9-0805","volume":"900v9","title":"A refractive-index front could trap a light pulse transiently without a permanent cavity.","prediction":"A refractive-index front could trap a light pulse transiently without a permanent cavity.","test":"Measure time-resolved pulse position.","contrary":"Apparent trapping is detector delay.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0805","hypothesis":"A refractive-index front could trap a light pulse transiently without a permanent cavity.","test":"Measure time-resolved pulse position.","contrary_result":"Apparent trapping is detector delay.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0806","id":"S9-0806","volume":"900v9","title":"A thin magnetic layer could rotate the polarization of a surface acoustic wave near a domain boundary.","prediction":"A thin magnetic layer could rotate the polarization of a surface acoustic wave near a domain boundary.","test":"Measure full displacement vectors.","contrary":"Only amplitude changes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0806","hypothesis":"A thin magnetic layer could rotate the polarization of a surface acoustic wave near a domain boundary.","test":"Measure full displacement vectors.","contrary_result":"Only amplitude changes.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0807","id":"S9-0807","volume":"900v9","title":"A rapidly changing dielectric boundary could convert a narrow input spectrum into two phase-correlated sidebands.","prediction":"A rapidly changing dielectric boundary could convert a narrow input spectrum into two phase-correlated sidebands.","test":"Measure spectral phase correlations.","contrary":"Sidebands are independent noise.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0807","hypothesis":"A rapidly changing dielectric boundary could convert a narrow input spectrum into two phase-correlated sidebands.","test":"Measure spectral phase correlations.","contrary_result":"Sidebands are independent noise.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0808","id":"S9-0808","volume":"900v9","title":"A nonuniformly strained crystal could support a localized vibration that disappears when strain is reversed.","prediction":"A nonuniformly strained crystal could support a localized vibration that disappears when strain is reversed.","test":"Map modes across signed strain.","contrary":"Localization follows geometry only.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0808","hypothesis":"A nonuniformly strained crystal could support a localized vibration that disappears when strain is reversed.","test":"Map modes across signed strain.","contrary_result":"Localization follows geometry only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0809","id":"S9-0809","volume":"900v9","title":"A pair of fluid-loaded membranes could exchange mode localization under slow pressure cycling.","prediction":"A pair of fluid-loaded membranes could exchange mode localization under slow pressure cycling.","test":"Measure mode shapes.","contrary":"Modes remain on the same membrane.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0809","hypothesis":"A pair of fluid-loaded membranes could exchange mode localization under slow pressure cycling.","test":"Measure mode shapes.","contrary_result":"Modes remain on the same membrane.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0810","id":"S9-0810","volume":"900v9","title":"A lossy optical scatterer could become more transparent when a nearby absorber is weakly increased.","prediction":"A lossy optical scatterer could become more transparent when a nearby absorber is weakly increased.","test":"Measure scattering and absorption separately.","contrary":"Transmission decreases monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0810","hypothesis":"A lossy optical scatterer could become more transparent when a nearby absorber is weakly increased.","test":"Measure scattering and absorption separately.","contrary_result":"Transmission decreases monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0811","id":"S9-0811","volume":"900v9","title":"A thermal fluctuation could seed coherent mechanical motion in a delayed photothermal feedback cavity below static instability.","prediction":"A thermal fluctuation could seed coherent mechanical motion in a delayed photothermal feedback cavity below static instability.","test":"Measure phase coherence and energy.","contrary":"Motion remains incoherent.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0811","hypothesis":"A thermal fluctuation could seed coherent mechanical motion in a delayed photothermal feedback cavity below static instability.","test":"Measure phase coherence and energy.","contrary_result":"Motion remains incoherent.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0812","id":"S9-0812","volume":"900v9","title":"A crystalline plate could transmit torsional waves around a notch through anisotropic mode conversion.","prediction":"A crystalline plate could transmit torsional waves around a notch through anisotropic mode conversion.","test":"Map displacement fields.","contrary":"All energy scatters away from the notch.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0812","hypothesis":"A crystalline plate could transmit torsional waves around a notch through anisotropic mode conversion.","test":"Map displacement fields.","contrary_result":"All energy scatters away from the notch.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0813","id":"S9-0813","volume":"900v9","title":"A liquid interface could shift an acoustic focus upstream through a controlled surface-tension gradient.","prediction":"A liquid interface could shift an acoustic focus upstream through a controlled surface-tension gradient.","test":"Measure focus and gradient.","contrary":"Focus follows sound-speed changes only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0813","hypothesis":"A liquid interface could shift an acoustic focus upstream through a controlled surface-tension gradient.","test":"Measure focus and gradient.","contrary_result":"Focus follows sound-speed changes only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0814","id":"S9-0814","volume":"900v9","title":"A reversible defect pattern could alter wavepacket delay without changing average transmission intensity.","prediction":"A reversible defect pattern could alter wavepacket delay without changing average transmission intensity.","test":"Measure phase and intensity.","contrary":"Delay changes require intensity changes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0814","hypothesis":"A reversible defect pattern could alter wavepacket delay without changing average transmission intensity.","test":"Measure phase and intensity.","contrary_result":"Delay changes require intensity changes.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0815","id":"S9-0815","volume":"900v9","title":"A magnetic waveguide could show a narrow frequency interval of reversed energy-flow direction under uniform bias.","prediction":"A magnetic waveguide could show a narrow frequency interval of reversed energy-flow direction under uniform bias.","test":"Measure dispersion and energy flux.","contrary":"Phase reversal lacks flux reversal.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0815","hypothesis":"A magnetic waveguide could show a narrow frequency interval of reversed energy-flow direction under uniform bias.","test":"Measure dispersion and energy flux.","contrary_result":"Phase reversal lacks flux reversal.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0816","id":"S9-0816","volume":"900v9","title":"A weakly absorbing microsphere could reveal internal concentration gradients through unequal decay of optical modes.","prediction":"A weakly absorbing microsphere could reveal internal concentration gradients through unequal decay of optical modes.","test":"Measure gradients independently.","contrary":"Decay depends only on average concentration.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0816","hypothesis":"A weakly absorbing microsphere could reveal internal concentration gradients through unequal decay of optical modes.","test":"Measure gradients independently.","contrary_result":"Decay depends only on average concentration.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0817","id":"S9-0817","volume":"900v9","title":"A temporally modulated elastic lattice could redirect waves around a stationary defect without moving its masses on average.","prediction":"A temporally modulated elastic lattice could redirect waves around a stationary defect without moving its masses on average.","test":"Measure full fields.","contrary":"Transmission benefit follows static prestress.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0817","hypothesis":"A temporally modulated elastic lattice could redirect waves around a stationary defect without moving its masses on average.","test":"Measure full fields.","contrary_result":"Transmission benefit follows static prestress.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0818","id":"S9-0818","volume":"900v9","title":"A crystal interface could support a mechanically localized mode controlled by reversible ion occupancy.","prediction":"A crystal interface could support a mechanically localized mode controlled by reversible ion occupancy.","test":"Measure occupancy and modes.","contrary":"Localization requires permanent structural change.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0818","hypothesis":"A crystal interface could support a mechanically localized mode controlled by reversible ion occupancy.","test":"Measure occupancy and modes.","contrary_result":"Localization requires permanent structural change.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0819","id":"S9-0819","volume":"900v9","title":"A fluctuating bubble array could suppress one acoustic band through correlations absent from its mean geometry.","prediction":"A fluctuating bubble array could suppress one acoustic band through correlations absent from its mean geometry.","test":"Compare correlated and decorrelated states.","contrary":"Mean geometry predicts attenuation fully.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0819","hypothesis":"A fluctuating bubble array could suppress one acoustic band through correlations absent from its mean geometry.","test":"Compare correlated and decorrelated states.","contrary_result":"Mean geometry predicts attenuation fully.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0820","id":"S9-0820","volume":"900v9","title":"A graded optical film could exhibit a reflection minimum that moves opposite its swelling direction.","prediction":"A graded optical film could exhibit a reflection minimum that moves opposite its swelling direction.","test":"Measure profiles and spectra.","contrary":"Minimum follows thickness monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0820","hypothesis":"A graded optical film could exhibit a reflection minimum that moves opposite its swelling direction.","test":"Measure profiles and spectra.","contrary_result":"Minimum follows thickness monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0821","id":"S9-0821","volume":"900v9","title":"A narrow thermal waveguide could exchange dominant transport paths when a boundary contact is periodically switched.","prediction":"A narrow thermal waveguide could exchange dominant transport paths when a boundary contact is periodically switched.","test":"Map transient temperatures.","contrary":"Heat follows the lowest mean resistance always.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0821","hypothesis":"A narrow thermal waveguide could exchange dominant transport paths when a boundary contact is periodically switched.","test":"Map transient temperatures.","contrary_result":"Heat follows the lowest mean resistance always.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0822","id":"S9-0822","volume":"900v9","title":"A single crack could split an acoustic vortex into unequal orbital components depending on crack closure.","prediction":"A single crack could split an acoustic vortex into unequal orbital components depending on crack closure.","test":"Measure phase-resolved fields.","contrary":"Components depend only on aperture area.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0822","hypothesis":"A single crack could split an acoustic vortex into unequal orbital components depending on crack closure.","test":"Measure phase-resolved fields.","contrary_result":"Components depend only on aperture area.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0823","id":"S9-0823","volume":"900v9","title":"A rotating dielectric particle could shift scattered-light frequency asymmetrically through internal birefringence.","prediction":"A rotating dielectric particle could shift scattered-light frequency asymmetrically through internal birefringence.","test":"Measure rotation and sidebands.","contrary":"Sidebands remain symmetric after alignment correction.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0823","hypothesis":"A rotating dielectric particle could shift scattered-light frequency asymmetrically through internal birefringence.","test":"Measure rotation and sidebands.","contrary_result":"Sidebands remain symmetric after alignment correction.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0824","id":"S9-0824","volume":"900v9","title":"A soft crystal could focus acoustic energy at a moving strain boundary without density contrast.","prediction":"A soft crystal could focus acoustic energy at a moving strain boundary without density contrast.","test":"Map strain and energy.","contrary":"Focusing requires density contrast.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0824","hypothesis":"A soft crystal could focus acoustic energy at a moving strain boundary without density contrast.","test":"Map strain and energy.","contrary_result":"Focusing requires density contrast.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0825","id":"S9-0825","volume":"900v9","title":"A nonuniform gas layer could stabilize a mechanical resonator by selectively damping a competing mode.","prediction":"A nonuniform gas layer could stabilize a mechanical resonator by selectively damping a competing mode.","test":"Measure individual modes and gas profiles.","contrary":"All damping changes proportionally.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0825","hypothesis":"A nonuniform gas layer could stabilize a mechanical resonator by selectively damping a competing mode.","test":"Measure individual modes and gas profiles.","contrary_result":"All damping changes proportionally.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0826","id":"S9-0826","volume":"900v9","title":"A weakly coupled cavity network could reveal one broken connection through a localized noise-correlation sign change.","prediction":"A weakly coupled cavity network could reveal one broken connection through a localized noise-correlation sign change.","test":"Break known links.","contrary":"Different breaks yield identical correlations.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0826","hypothesis":"A weakly coupled cavity network could reveal one broken connection through a localized noise-correlation sign change.","test":"Break known links.","contrary_result":"Different breaks yield identical correlations.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0827","id":"S9-0827","volume":"900v9","title":"A liquid crystal defect could guide a thermal perturbation differently before and after director reversal.","prediction":"A liquid crystal defect could guide a thermal perturbation differently before and after director reversal.","test":"Measure director and heat fields.","contrary":"Thermal transfer is unchanged.","layers":[1],"categories":["energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0827","hypothesis":"A liquid crystal defect could guide a thermal perturbation differently before and after director reversal.","test":"Measure director and heat fields.","contrary_result":"Thermal transfer is unchanged.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0828","id":"S9-0828","volume":"900v9","title":"A phase-shifted acoustic standing wave could trap particles at positions not occupied by pressure nodes.","prediction":"A phase-shifted acoustic standing wave could trap particles at positions not occupied by pressure nodes.","test":"Map pressure and particles.","contrary":"Particles remain at conventional nodes.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0828","hypothesis":"A phase-shifted acoustic standing wave could trap particles at positions not occupied by pressure nodes.","test":"Map pressure and particles.","contrary_result":"Particles remain at conventional nodes.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0829","id":"S9-0829","volume":"900v9","title":"A nearly touching crystal pair could exchange heat in bursts through intermittent nanoscale contact.","prediction":"A nearly touching crystal pair could exchange heat in bursts through intermittent nanoscale contact.","test":"Measure gap and heat fluctuations.","contrary":"Heat is smooth after noise correction.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0829","hypothesis":"A nearly touching crystal pair could exchange heat in bursts through intermittent nanoscale contact.","test":"Measure gap and heat fluctuations.","contrary_result":"Heat is smooth after noise correction.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0830","id":"S9-0830","volume":"900v9","title":"A modulated optical absorber could transfer energy preferentially between two mechanical modes through phase-controlled heating.","prediction":"A modulated optical absorber could transfer energy preferentially between two mechanical modes through phase-controlled heating.","test":"Measure modal work.","contrary":"Energy follows frequency proximity only.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0830","hypothesis":"A modulated optical absorber could transfer energy preferentially between two mechanical modes through phase-controlled heating.","test":"Measure modal work.","contrary_result":"Energy follows frequency proximity only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0831","id":"S9-0831","volume":"900v9","title":"A porous acoustic layer could exhibit a narrower resonance when a small fraction of pores is intentionally blocked.","prediction":"A porous acoustic layer could exhibit a narrower resonance when a small fraction of pores is intentionally blocked.","test":"Measure spectra across blockage.","contrary":"Blocking always broadens resonance.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0831","hypothesis":"A porous acoustic layer could exhibit a narrower resonance when a small fraction of pores is intentionally blocked.","test":"Measure spectra across blockage.","contrary_result":"Blocking always broadens resonance.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0832","id":"S9-0832","volume":"900v9","title":"A vibrating liquid shell could maintain a localized thickness wave against viscous spreading through mode coupling.","prediction":"A vibrating liquid shell could maintain a localized thickness wave against viscous spreading through mode coupling.","test":"Measure thickness fields.","contrary":"Localization decays diffusively.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0832","hypothesis":"A vibrating liquid shell could maintain a localized thickness wave against viscous spreading through mode coupling.","test":"Measure thickness fields.","contrary_result":"Localization decays diffusively.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0833","id":"S9-0833","volume":"900v9","title":"An anisotropic thermal contact could rotate a heat pulse's principal axis during relaxation.","prediction":"An anisotropic thermal contact could rotate a heat pulse's principal axis during relaxation.","test":"Measure temperature covariance.","contrary":"Axes remain fixed.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0833","hypothesis":"An anisotropic thermal contact could rotate a heat pulse's principal axis during relaxation.","test":"Measure temperature covariance.","contrary_result":"Axes remain fixed.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0834","id":"S9-0834","volume":"900v9","title":"A weakly disordered magnetic array could suppress reversal avalanches through a chosen spatial correlation length.","prediction":"A weakly disordered magnetic array could suppress reversal avalanches through a chosen spatial correlation length.","test":"Measure avalanche distributions.","contrary":"Only disorder magnitude matters.","layers":[1],"categories":["anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0834","hypothesis":"A weakly disordered magnetic array could suppress reversal avalanches through a chosen spatial correlation length.","test":"Measure avalanche distributions.","contrary_result":"Only disorder magnitude matters.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0835","id":"S9-0835","volume":"900v9","title":"A transparent plate could reveal subsurface friction through amplitude-dependent optical speckle decorrelation.","prediction":"A transparent plate could reveal subsurface friction through amplitude-dependent optical speckle decorrelation.","test":"Measure friction independently.","contrary":"Decorrelation tracks displacement only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0835","hypothesis":"A transparent plate could reveal subsurface friction through amplitude-dependent optical speckle decorrelation.","test":"Measure friction independently.","contrary_result":"Decorrelation tracks displacement only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0836","id":"S9-0836","volume":"900v9","title":"A fiber-suspended crystal could exhibit rotational recoil when trapped charge is released under fixed illumination polarization.","prediction":"A fiber-suspended crystal could exhibit rotational recoil when trapped charge is released under fixed illumination polarization.","test":"Measure torque and emitted charge with thermal controls.","contrary":"Torque follows heating rather than charge release.","layers":[1],"categories":["physical","energy","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0836","hypothesis":"A fiber-suspended crystal could exhibit rotational recoil when trapped charge is released under fixed illumination polarization.","test":"Measure torque and emitted charge with thermal controls.","contrary_result":"Torque follows heating rather than charge release.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0837","id":"S9-0837","volume":"900v9","title":"A ring resonator could detect a traveling concentration wave from unequal clockwise and counterclockwise phase noise.","prediction":"A ring resonator could detect a traveling concentration wave from unequal clockwise and counterclockwise phase noise.","test":"Measure concentration and phases.","contrary":"Signals are reciprocal after flow correction.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0837","hypothesis":"A ring resonator could detect a traveling concentration wave from unequal clockwise and counterclockwise phase noise.","test":"Measure concentration and phases.","contrary_result":"Signals are reciprocal after flow correction.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0838","id":"S9-0838","volume":"900v9","title":"A constrained liquid interface could support a long-lived quadrupole deformation through contact-line energy storage.","prediction":"A constrained liquid interface could support a long-lived quadrupole deformation through contact-line energy storage.","test":"Measure ringdown and contact motion.","contrary":"Viscosity fully predicts decay.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0838","hypothesis":"A constrained liquid interface could support a long-lived quadrupole deformation through contact-line energy storage.","test":"Measure ringdown and contact motion.","contrary_result":"Viscosity fully predicts decay.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0839","id":"S9-0839","volume":"900v9","title":"A multilayer crystal could change acoustic handedness under reversible shear without changing layer order.","prediction":"A multilayer crystal could change acoustic handedness under reversible shear without changing layer order.","test":"Measure polarization and strain.","contrary":"Handedness remains fixed.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0839","hypothesis":"A multilayer crystal could change acoustic handedness under reversible shear without changing layer order.","test":"Measure polarization and strain.","contrary_result":"Handedness remains fixed.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0840","id":"S9-0840","volume":"900v9","title":"A passive optical cavity could distinguish adsorption at a field node from adsorption at an antinode through noise statistics.","prediction":"A passive optical cavity could distinguish adsorption at a field node from adsorption at an antinode through noise statistics.","test":"Deposit equal masses locally.","contrary":"Statistics reflect mass only.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0840","hypothesis":"A passive optical cavity could distinguish adsorption at a field node from adsorption at an antinode through noise statistics.","test":"Deposit equal masses locally.","contrary_result":"Statistics reflect mass only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0841","id":"S9-0841","volume":"900v9","title":"A periodically softened beam could transfer an impulse away from its weakest section before peak strain.","prediction":"A periodically softened beam could transfer an impulse away from its weakest section before peak strain.","test":"Map strain and wave propagation.","contrary":"Peak strain remains at the weak section.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0841","hypothesis":"A periodically softened beam could transfer an impulse away from its weakest section before peak strain.","test":"Map strain and wave propagation.","contrary_result":"Peak strain remains at the weak section.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0842","id":"S9-0842","volume":"900v9","title":"A surface wave could reveal a hidden liquid pocket through a delayed phase echo without amplitude loss.","prediction":"A surface wave could reveal a hidden liquid pocket through a delayed phase echo without amplitude loss.","test":"Measure pocket and echo.","contrary":"Echo requires strong attenuation.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0842","hypothesis":"A surface wave could reveal a hidden liquid pocket through a delayed phase echo without amplitude loss.","test":"Measure pocket and echo.","contrary_result":"Echo requires strong attenuation.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0843","id":"S9-0843","volume":"900v9","title":"A weak magnetic gradient could tune the mixing of torsional and bending modes in a particle-loaded fiber.","prediction":"A weak magnetic gradient could tune the mixing of torsional and bending modes in a particle-loaded fiber.","test":"Measure mode shapes.","contrary":"Only frequencies shift.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0843","hypothesis":"A weak magnetic gradient could tune the mixing of torsional and bending modes in a particle-loaded fiber.","test":"Measure mode shapes.","contrary_result":"Only frequencies shift.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0844","id":"S9-0844","volume":"900v9","title":"A crystal's acoustic response could become more linear after partial rather than complete defect annealing.","prediction":"A crystal's acoustic response could become more linear after partial rather than complete defect annealing.","test":"Measure harmonics and defect populations.","contrary":"Linearity improves monotonically.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0844","hypothesis":"A crystal's acoustic response could become more linear after partial rather than complete defect annealing.","test":"Measure harmonics and defect populations.","contrary_result":"Linearity improves monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0845","id":"S9-0845","volume":"900v9","title":"A phase-modulated thermal source could concentrate heating at a buried interface while reducing surface temperature oscillation.","prediction":"A phase-modulated thermal source could concentrate heating at a buried interface while reducing surface temperature oscillation.","test":"Measure depth profiles.","contrary":"Buried heating tracks surface amplitude.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0845","hypothesis":"A phase-modulated thermal source could concentrate heating at a buried interface while reducing surface temperature oscillation.","test":"Measure depth profiles.","contrary_result":"Buried heating tracks surface amplitude.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0846","id":"S9-0846","volume":"900v9","title":"A disordered optical cavity could retain a mechanical pulse's direction in its spectral recovery path.","prediction":"A disordered optical cavity could retain a mechanical pulse's direction in its spectral recovery path.","test":"Reverse pulses at matched energy.","contrary":"Recovery depends only on energy.","layers":[1],"categories":["physical","energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0846","hypothesis":"A disordered optical cavity could retain a mechanical pulse's direction in its spectral recovery path.","test":"Reverse pulses at matched energy.","contrary_result":"Recovery depends only on energy.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0847","id":"S9-0847","volume":"900v9","title":"A coupled bubble pair could generate a nonzero mean torque in a symmetric acoustic field through unequal relaxation delays.","prediction":"A coupled bubble pair could generate a nonzero mean torque in a symmetric acoustic field through unequal relaxation delays.","test":"Measure torque and phases.","contrary":"Torque vanishes after streaming controls.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0847","hypothesis":"A coupled bubble pair could generate a nonzero mean torque in a symmetric acoustic field through unequal relaxation delays.","test":"Measure torque and phases.","contrary_result":"Torque vanishes after streaming controls.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0848","id":"S9-0848","volume":"900v9","title":"A strained porous film could show a reversible optical transmission maximum at the onset of pore connectivity.","prediction":"A strained porous film could show a reversible optical transmission maximum at the onset of pore connectivity.","test":"Measure connectivity and spectra.","contrary":"Transmission follows porosity monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0848","hypothesis":"A strained porous film could show a reversible optical transmission maximum at the onset of pore connectivity.","test":"Measure connectivity and spectra.","contrary_result":"Transmission follows porosity monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0849","id":"S9-0849","volume":"900v9","title":"A magnetoelastic plate could transmit an acoustic pulse faster after a field pause than under steady bias.","prediction":"A magnetoelastic plate could transmit an acoustic pulse faster after a field pause than under steady bias.","test":"Measure domain recovery and transit.","contrary":"Only instantaneous field matters.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0849","hypothesis":"A magnetoelastic plate could transmit an acoustic pulse faster after a field pause than under steady bias.","test":"Measure domain recovery and transit.","contrary_result":"Only instantaneous field matters.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0850","id":"S9-0850","volume":"900v9","title":"A moving liquid contact could convert a low-frequency flexural wave into a higher-frequency torsional packet.","prediction":"A moving liquid contact could convert a low-frequency flexural wave into a higher-frequency torsional packet.","test":"Measure modal energy and contact motion.","contrary":"No coherent conversion occurs.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0850","hypothesis":"A moving liquid contact could convert a low-frequency flexural wave into a higher-frequency torsional packet.","test":"Measure modal energy and contact motion.","contrary_result":"No coherent conversion occurs.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0851","id":"S9-0851","volume":"900v9","title":"A vapor-filled cavity could distinguish two equal-density gases through thermal-acoustic cross-correlation delay.","prediction":"A vapor-filled cavity could distinguish two equal-density gases through thermal-acoustic cross-correlation delay.","test":"Measure calibrated gases.","contrary":"Delay follows density exclusively.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0851","hypothesis":"A vapor-filled cavity could distinguish two equal-density gases through thermal-acoustic cross-correlation delay.","test":"Measure calibrated gases.","contrary_result":"Delay follows density exclusively.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0852","id":"S9-0852","volume":"900v9","title":"A random fiber network could guide heat along a vibration-selected contact pathway after forcing stops.","prediction":"A random fiber network could guide heat along a vibration-selected contact pathway after forcing stops.","test":"Map contacts and heat.","contrary":"Guidance disappears immediately.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0852","hypothesis":"A random fiber network could guide heat along a vibration-selected contact pathway after forcing stops.","test":"Map contacts and heat.","contrary_result":"Guidance disappears immediately.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0853","id":"S9-0853","volume":"900v9","title":"A transparent granular solid could reveal incipient contact slip through polarized scattering before acoustic emission.","prediction":"A transparent granular solid could reveal incipient contact slip through polarized scattering before acoustic emission.","test":"Synchronize both signals.","contrary":"Acoustic emission always leads.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0853","hypothesis":"A transparent granular solid could reveal incipient contact slip through polarized scattering before acoustic emission.","test":"Synchronize both signals.","contrary_result":"Acoustic emission always leads.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0854","id":"S9-0854","volume":"900v9","title":"A nonuniformly adsorbed film could exhibit a temporary reduction in optical localization length during desorption.","prediction":"A nonuniformly adsorbed film could exhibit a temporary reduction in optical localization length during desorption.","test":"Measure spatial mode decay.","contrary":"Localization depends only on mean coverage.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0854","hypothesis":"A nonuniformly adsorbed film could exhibit a temporary reduction in optical localization length during desorption.","test":"Measure spatial mode decay.","contrary_result":"Localization depends only on mean coverage.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0855","id":"S9-0855","volume":"900v9","title":"A liquid droplet could exchange angular momentum with an acoustic field without net translational force.","prediction":"A liquid droplet could exchange angular momentum with an acoustic field without net translational force.","test":"Measure rotation and displacement.","contrary":"Rotation requires translation-producing asymmetry.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0855","hypothesis":"A liquid droplet could exchange angular momentum with an acoustic field without net translational force.","test":"Measure rotation and displacement.","contrary_result":"Rotation requires translation-producing asymmetry.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0856","id":"S9-0856","volume":"900v9","title":"A soft dielectric resonator could maintain two different field-localization states at identical shape through internal charge history.","prediction":"A soft dielectric resonator could maintain two different field-localization states at identical shape through internal charge history.","test":"Map field and charge.","contrary":"Shape alone fixes localization.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0856","hypothesis":"A soft dielectric resonator could maintain two different field-localization states at identical shape through internal charge history.","test":"Map field and charge.","contrary_result":"Shape alone fixes localization.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0857","id":"S9-0857","volume":"900v9","title":"A crystalline membrane could develop a reversible acoustic stopband from patterned thermal stress without material patterning.","prediction":"A crystalline membrane could develop a reversible acoustic stopband from patterned thermal stress without material patterning.","test":"Map stress and transmission.","contrary":"Stopband requires permanent geometry changes.","layers":[1],"categories":["physical","energy","biology"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0857","hypothesis":"A crystalline membrane could develop a reversible acoustic stopband from patterned thermal stress without material patterning.","test":"Map stress and transmission.","contrary_result":"Stopband requires permanent geometry changes.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0858","id":"S9-0858","volume":"900v9","title":"A slow gas-composition wave could synchronize two otherwise uncoupled thermal oscillators.","prediction":"A slow gas-composition wave could synchronize two otherwise uncoupled thermal oscillators.","test":"Measure phase locking versus separation.","contrary":"Synchronization follows shared temperature drift only.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0858","hypothesis":"A slow gas-composition wave could synchronize two otherwise uncoupled thermal oscillators.","test":"Measure phase locking versus separation.","contrary_result":"Synchronization follows shared temperature drift only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0859","id":"S9-0859","volume":"900v9","title":"A weakly absorbing surface grating could amplify directional thermal emission after reversible elastic shear.","prediction":"A weakly absorbing surface grating could amplify directional thermal emission after reversible elastic shear.","test":"Measure angular emissivity.","contrary":"Only total emission changes.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0859","hypothesis":"A weakly absorbing surface grating could amplify directional thermal emission after reversible elastic shear.","test":"Measure angular emissivity.","contrary_result":"Only total emission changes.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0860","id":"S9-0860","volume":"900v9","title":"A trapped liquid inclusion could cause a mechanical mode crossing to become avoided as its viscosity changes.","prediction":"A trapped liquid inclusion could cause a mechanical mode crossing to become avoided as its viscosity changes.","test":"Measure spectra and viscosity.","contrary":"Crossing geometry is viscosity independent.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0860","hypothesis":"A trapped liquid inclusion could cause a mechanical mode crossing to become avoided as its viscosity changes.","test":"Measure spectra and viscosity.","contrary_result":"Crossing geometry is viscosity independent.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0861","id":"S9-0861","volume":"900v9","title":"A charged optical particle could show a sign change in polarization torque during controlled discharge.","prediction":"A charged optical particle could show a sign change in polarization torque during controlled discharge.","test":"Measure charge and torque.","contrary":"Torque magnitude changes without sign reversal.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0861","hypothesis":"A charged optical particle could show a sign change in polarization torque during controlled discharge.","test":"Measure charge and torque.","contrary_result":"Torque magnitude changes without sign reversal.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0862","id":"S9-0862","volume":"900v9","title":"A thin crystal layer could redirect a crack-generated acoustic pulse toward its compression axis.","prediction":"A thin crystal layer could redirect a crack-generated acoustic pulse toward its compression axis.","test":"Map stress and emitted waves.","contrary":"Radiation follows crack orientation alone.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0862","hypothesis":"A thin crystal layer could redirect a crack-generated acoustic pulse toward its compression axis.","test":"Map stress and emitted waves.","contrary_result":"Radiation follows crack orientation alone.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0863","id":"S9-0863","volume":"900v9","title":"A fluid-filled lattice could distinguish uniform gas uptake from localized bubble formation through mode participation changes.","prediction":"A fluid-filled lattice could distinguish uniform gas uptake from localized bubble formation through mode participation changes.","test":"Image gas and modes.","contrary":"Participation follows total gas volume.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0863","hypothesis":"A fluid-filled lattice could distinguish uniform gas uptake from localized bubble formation through mode participation changes.","test":"Image gas and modes.","contrary_result":"Participation follows total gas volume.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0864","id":"S9-0864","volume":"900v9","title":"An acoustic cavity could develop a transient high-quality mode immediately after switching off steady flow.","prediction":"An acoustic cavity could develop a transient high-quality mode immediately after switching off steady flow.","test":"Measure ringdown versus delay.","contrary":"Quality improves only after all flow stops.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0864","hypothesis":"An acoustic cavity could develop a transient high-quality mode immediately after switching off steady flow.","test":"Measure ringdown versus delay.","contrary_result":"Quality improves only after all flow stops.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0865","id":"S9-0865","volume":"900v9","title":"A thermally strained optical fiber pair could reveal unequal interfacial slip through differential polarization noise.","prediction":"A thermally strained optical fiber pair could reveal unequal interfacial slip through differential polarization noise.","test":"Measure slip and noise.","contrary":"Noise follows mean temperature only.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0865","hypothesis":"A thermally strained optical fiber pair could reveal unequal interfacial slip through differential polarization noise.","test":"Measure slip and noise.","contrary_result":"Noise follows mean temperature only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0866","id":"S9-0866","volume":"900v9","title":"A resonant powder bed could show a narrow window where weak vibration reduces rather than enhances vapor transport.","prediction":"A resonant powder bed could show a narrow window where weak vibration reduces rather than enhances vapor transport.","test":"Measure transport and contacts.","contrary":"Transport changes monotonically.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0866","hypothesis":"A resonant powder bed could show a narrow window where weak vibration reduces rather than enhances vapor transport.","test":"Measure transport and contacts.","contrary_result":"Transport changes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0867","id":"S9-0867","volume":"900v9","title":"A slowly dissolving optical crystal could develop a moving internal focus before its exterior shape measurably changes.","prediction":"A slowly dissolving optical crystal could develop a moving internal focus before its exterior shape measurably changes.","test":"Map refractive index and focus.","contrary":"Focus changes require exterior erosion.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0867","hypothesis":"A slowly dissolving optical crystal could develop a moving internal focus before its exterior shape measurably changes.","test":"Map refractive index and focus.","contrary_result":"Focus changes require exterior erosion.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0868","id":"S9-0868","volume":"900v9","title":"A delayed mechanical feedback path could suppress thermal drift while preserving impulsive force sensitivity.","prediction":"A delayed mechanical feedback path could suppress thermal drift while preserving impulsive force sensitivity.","test":"Measure both transfer functions.","contrary":"Drift suppression equally suppresses impulses.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0868","hypothesis":"A delayed mechanical feedback path could suppress thermal drift while preserving impulsive force sensitivity.","test":"Measure both transfer functions.","contrary_result":"Drift suppression equally suppresses impulses.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0869","id":"S9-0869","volume":"900v9","title":"A phase-changing inclusion could rotate the nodal lines of a surrounding elastic cavity without changing its boundary.","prediction":"A phase-changing inclusion could rotate the nodal lines of a surrounding elastic cavity without changing its boundary.","test":"Map nodal patterns and phase state.","contrary":"Nodes shift only with boundary motion.","layers":[1],"categories":[],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0869","hypothesis":"A phase-changing inclusion could rotate the nodal lines of a surrounding elastic cavity without changing its boundary.","test":"Map nodal patterns and phase state.","contrary_result":"Nodes shift only with boundary motion.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0870","id":"S9-0870","volume":"900v9","title":"A localized thermal pulse could cause a temporary increase in magnetic-noise coherence across neighboring grains.","prediction":"A localized thermal pulse could cause a temporary increase in magnetic-noise coherence across neighboring grains.","test":"Measure spatial noise correlations.","contrary":"Correlations follow temperature uniformly.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0870","hypothesis":"A localized thermal pulse could cause a temporary increase in magnetic-noise coherence across neighboring grains.","test":"Measure spatial noise correlations.","contrary_result":"Correlations follow temperature uniformly.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0871","id":"S9-0871","volume":"900v9","title":"A water-bearing ceramic could support an acoustic memory echo from reversible pore-fluid redistribution.","prediction":"A water-bearing ceramic could support an acoustic memory echo from reversible pore-fluid redistribution.","test":"Apply paired pulses and measure echoes.","contrary":"Echoes are ordinary boundary reflections.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0871","hypothesis":"A water-bearing ceramic could support an acoustic memory echo from reversible pore-fluid redistribution.","test":"Apply paired pulses and measure echoes.","contrary_result":"Echoes are ordinary boundary reflections.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0872","id":"S9-0872","volume":"900v9","title":"A thin optical film could distinguish tensile creep from solvent loss through opposite spectral-noise skewness.","prediction":"A thin optical film could distinguish tensile creep from solvent loss through opposite spectral-noise skewness.","test":"Control each mechanism.","contrary":"Skewness changes are identical.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0872","hypothesis":"A thin optical film could distinguish tensile creep from solvent loss through opposite spectral-noise skewness.","test":"Control each mechanism.","contrary_result":"Skewness changes are identical.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0873","id":"S9-0873","volume":"900v9","title":"A patterned strain field could hold a propagating domain wall temporarily without creating a static pinning minimum.","prediction":"A patterned strain field could hold a propagating domain wall temporarily without creating a static pinning minimum.","test":"Measure time-dependent energy and position.","contrary":"Holding requires static pinning.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0873","hypothesis":"A patterned strain field could hold a propagating domain wall temporarily without creating a static pinning minimum.","test":"Measure time-dependent energy and position.","contrary_result":"Holding requires static pinning.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0874","id":"S9-0874","volume":"900v9","title":"A gas-loaded membrane could have maximum acoustic transparency at a finite static deflection.","prediction":"A gas-loaded membrane could have maximum acoustic transparency at a finite static deflection.","test":"Sweep pressure and measure transmission.","contrary":"Transparency changes monotonically.","layers":[1],"categories":["physical","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0874","hypothesis":"A gas-loaded membrane could have maximum acoustic transparency at a finite static deflection.","test":"Sweep pressure and measure transmission.","contrary_result":"Transparency changes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0875","id":"S9-0875","volume":"900v9","title":"A liquid boundary layer could rotate the polarization of an elastic surface wave through anisotropic shear response.","prediction":"A liquid boundary layer could rotate the polarization of an elastic surface wave through anisotropic shear response.","test":"Measure full polarization and flow.","contrary":"Only attenuation changes.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0875","hypothesis":"A liquid boundary layer could rotate the polarization of an elastic surface wave through anisotropic shear response.","test":"Measure full polarization and flow.","contrary_result":"Only attenuation changes.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0876","id":"S9-0876","volume":"900v9","title":"A reversible adsorption pattern could guide a mechanical wave without resolvable topographic contrast.","prediction":"A reversible adsorption pattern could guide a mechanical wave without resolvable topographic contrast.","test":"Map adsorption and wave fields.","contrary":"Guidance requires height variation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0876","hypothesis":"A reversible adsorption pattern could guide a mechanical wave without resolvable topographic contrast.","test":"Map adsorption and wave fields.","contrary_result":"Guidance requires height variation.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0877","id":"S9-0877","volume":"900v9","title":"A weakly coupled resonator pair could amplify a small contact-loss signal through opposite linewidth shifts.","prediction":"A weakly coupled resonator pair could amplify a small contact-loss signal through opposite linewidth shifts.","test":"Measure losses and linewidths.","contrary":"Both linewidths move together.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0877","hypothesis":"A weakly coupled resonator pair could amplify a small contact-loss signal through opposite linewidth shifts.","test":"Measure losses and linewidths.","contrary_result":"Both linewidths move together.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0878","id":"S9-0878","volume":"900v9","title":"A thermally modulated crystal could show a delayed luminescence polarization rotation after the temperature gradient disappears.","prediction":"A thermally modulated crystal could show a delayed luminescence polarization rotation after the temperature gradient disappears.","test":"Measure polarization and thermal fields.","contrary":"Rotation vanishes with the gradient.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0878","hypothesis":"A thermally modulated crystal could show a delayed luminescence polarization rotation after the temperature gradient disappears.","test":"Measure polarization and thermal fields.","contrary_result":"Rotation vanishes with the gradient.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0879","id":"S9-0879","volume":"900v9","title":"A porous cavity could distinguish gas diffusion from wall adsorption through the sign of a pressure-temperature cross-spectrum.","prediction":"A porous cavity could distinguish gas diffusion from wall adsorption through the sign of a pressure-temperature cross-spectrum.","test":"Calibrate mechanisms independently.","contrary":"Cross-spectral signs coincide.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0879","hypothesis":"A porous cavity could distinguish gas diffusion from wall adsorption through the sign of a pressure-temperature cross-spectrum.","test":"Calibrate mechanisms independently.","contrary_result":"Cross-spectral signs coincide.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0880","id":"S9-0880","volume":"900v9","title":"A floating elastic disk could convert a passing gravity wave into a localized torsional ringdown.","prediction":"A floating elastic disk could convert a passing gravity wave into a localized torsional ringdown.","test":"Measure wave and disk modes.","contrary":"Response contains bending only.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0880","hypothesis":"A floating elastic disk could convert a passing gravity wave into a localized torsional ringdown.","test":"Measure wave and disk modes.","contrary_result":"Response contains bending only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0881","id":"S9-0881","volume":"900v9","title":"A dielectric interface could retain an optical phase offset after reversible pressure release through slow dipole relaxation.","prediction":"A dielectric interface could retain an optical phase offset after reversible pressure release through slow dipole relaxation.","test":"Measure phase and strain recovery.","contrary":"Phase follows strain instantaneously.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0881","hypothesis":"A dielectric interface could retain an optical phase offset after reversible pressure release through slow dipole relaxation.","test":"Measure phase and strain recovery.","contrary_result":"Phase follows strain instantaneously.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0882","id":"S9-0882","volume":"900v9","title":"A granular acoustic lens could refocus after losing one contact through load redistribution.","prediction":"A granular acoustic lens could refocus after losing one contact through load redistribution.","test":"Map contacts and focus.","contrary":"Focus degrades irreversibly.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0882","hypothesis":"A granular acoustic lens could refocus after losing one contact through load redistribution.","test":"Map contacts and focus.","contrary_result":"Focus degrades irreversibly.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0883","id":"S9-0883","volume":"900v9","title":"A partially wet photonic powder could show a minimum in spectral fluctuation amplitude before capillary percolation.","prediction":"A partially wet photonic powder could show a minimum in spectral fluctuation amplitude before capillary percolation.","test":"Measure connectivity and noise.","contrary":"Noise varies monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0883","hypothesis":"A partially wet photonic powder could show a minimum in spectral fluctuation amplitude before capillary percolation.","test":"Measure connectivity and noise.","contrary_result":"Noise varies monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0884","id":"S9-0884","volume":"900v9","title":"A crystal containing two defect families could exhibit a temperature interval of cancelled photothermal bending.","prediction":"A crystal containing two defect families could exhibit a temperature interval of cancelled photothermal bending.","test":"Measure separate defect absorption and curvature.","contrary":"Bending simply crosses zero at one point.","layers":[1],"categories":["energy","biology","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0884","hypothesis":"A crystal containing two defect families could exhibit a temperature interval of cancelled photothermal bending.","test":"Measure separate defect absorption and curvature.","contrary_result":"Bending simply crosses zero at one point.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0885","id":"S9-0885","volume":"900v9","title":"A traveling surface-charge pattern could move neutral polarizable droplets without net average electric field.","prediction":"A traveling surface-charge pattern could move neutral polarizable droplets without net average electric field.","test":"Measure field and displacement.","contrary":"Motion requires a nonzero mean field.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0885","hypothesis":"A traveling surface-charge pattern could move neutral polarizable droplets without net average electric field.","test":"Measure field and displacement.","contrary_result":"Motion requires a nonzero mean field.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0886","id":"S9-0886","volume":"900v9","title":"A flexural wave crossing a liquid-filled crack could generate a delayed concentration pulse through oscillatory squeezing.","prediction":"A flexural wave crossing a liquid-filled crack could generate a delayed concentration pulse through oscillatory squeezing.","test":"Measure fluid composition and wave phase.","contrary":"Only pressure oscillates.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0886","hypothesis":"A flexural wave crossing a liquid-filled crack could generate a delayed concentration pulse through oscillatory squeezing.","test":"Measure fluid composition and wave phase.","contrary_result":"Only pressure oscillates.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0887","id":"S9-0887","volume":"900v9","title":"A thermal resonator could reveal anisotropic contact aging through a rotation of its phase contours.","prediction":"A thermal resonator could reveal anisotropic contact aging through a rotation of its phase contours.","test":"Measure contacts and temperature phases.","contrary":"Contours follow unchanged geometry.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0887","hypothesis":"A thermal resonator could reveal anisotropic contact aging through a rotation of its phase contours.","test":"Measure contacts and temperature phases.","contrary_result":"Contours follow unchanged geometry.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0888","id":"S9-0888","volume":"900v9","title":"A soft optical crystal could separate hydrostatic pressure from absorbed-gas strain through orthogonal spectral shifts.","prediction":"A soft optical crystal could separate hydrostatic pressure from absorbed-gas strain through orthogonal spectral shifts.","test":"Calibrate both perturbations.","contrary":"Shifts remain collinear.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0888","hypothesis":"A soft optical crystal could separate hydrostatic pressure from absorbed-gas strain through orthogonal spectral shifts.","test":"Calibrate both perturbations.","contrary_result":"Shifts remain collinear.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0889","id":"S9-0889","volume":"900v9","title":"A pair of charged bubbles could suppress mutual coalescence through phase-locked shape oscillations at fixed separation.","prediction":"A pair of charged bubbles could suppress mutual coalescence through phase-locked shape oscillations at fixed separation.","test":"Measure oscillations and merger rate.","contrary":"Suppression follows electrostatic repulsion only.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0889","hypothesis":"A pair of charged bubbles could suppress mutual coalescence through phase-locked shape oscillations at fixed separation.","test":"Measure oscillations and merger rate.","contrary_result":"Suppression follows electrostatic repulsion only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0890","id":"S9-0890","volume":"900v9","title":"A thin magnetic ribbon could emit a directional acoustic pulse during a reversible field cycle with zero net magnetization change.","prediction":"A thin magnetic ribbon could emit a directional acoustic pulse during a reversible field cycle with zero net magnetization change.","test":"Measure sound and magnetic trajectory.","contrary":"Sound requires irreversible reversal.","layers":[1],"categories":["physical","anomalies","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0890","hypothesis":"A thin magnetic ribbon could emit a directional acoustic pulse during a reversible field cycle with zero net magnetization change.","test":"Measure sound and magnetic trajectory.","contrary_result":"Sound requires irreversible reversal.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0891","id":"S9-0891","volume":"900v9","title":"A disordered waveguide could recover pulse fidelity after a weak reversible boundary perturbation.","prediction":"A disordered waveguide could recover pulse fidelity after a weak reversible boundary perturbation.","test":"Measure transmitted pulse overlap.","contrary":"All perturbations reduce fidelity.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0891","hypothesis":"A disordered waveguide could recover pulse fidelity after a weak reversible boundary perturbation.","test":"Measure transmitted pulse overlap.","contrary_result":"All perturbations reduce fidelity.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0892","id":"S9-0892","volume":"900v9","title":"A gas-exchanging optical cavity could distinguish leak location from the order of resonance shifts.","prediction":"A gas-exchanging optical cavity could distinguish leak location from the order of resonance shifts.","test":"Open controlled leaks separately.","contrary":"Order depends only on leak rate.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0892","hypothesis":"A gas-exchanging optical cavity could distinguish leak location from the order of resonance shifts.","test":"Open controlled leaks separately.","contrary_result":"Order depends only on leak rate.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0893","id":"S9-0893","volume":"900v9","title":"A suspended liquid film could exhibit a long-lived standing concentration wave after mechanical forcing ends.","prediction":"A suspended liquid film could exhibit a long-lived standing concentration wave after mechanical forcing ends.","test":"Map concentration and flow.","contrary":"Concentration relaxes diffusively without oscillation.","layers":[1],"categories":["physical"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0893","hypothesis":"A suspended liquid film could exhibit a long-lived standing concentration wave after mechanical forcing ends.","test":"Map concentration and flow.","contrary_result":"Concentration relaxes diffusively without oscillation.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0894","id":"S9-0894","volume":"900v9","title":"A strained dielectric powder could retain a field-free birefringence signal after particle orientations recover.","prediction":"A strained dielectric powder could retain a field-free birefringence signal after particle orientations recover.","test":"Measure orientation and optics.","contrary":"Birefringence follows orientation exclusively.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0894","hypothesis":"A strained dielectric powder could retain a field-free birefringence signal after particle orientations recover.","test":"Measure orientation and optics.","contrary_result":"Birefringence follows orientation exclusively.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0895","id":"S9-0895","volume":"900v9","title":"A crystal interface could show enhanced thermal transfer when driven at an interfacial vibration frequency.","prediction":"A crystal interface could show enhanced thermal transfer when driven at an interfacial vibration frequency.","test":"Measure transferred heat and mechanical work.","contrary":"Heating is fully explained by dissipated work.","layers":[1],"categories":["energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0895","hypothesis":"A crystal interface could show enhanced thermal transfer when driven at an interfacial vibration frequency.","test":"Measure transferred heat and mechanical work.","contrary_result":"Heating is fully explained by dissipated work.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0896","id":"S9-0896","volume":"900v9","title":"A mechanical cavity could distinguish internal microcracks from external roughness through opposite amplitude dependence of echo delay.","prediction":"A mechanical cavity could distinguish internal microcracks from external roughness through opposite amplitude dependence of echo delay.","test":"Calibrate defects.","contrary":"Delay signatures coincide.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0896","hypothesis":"A mechanical cavity could distinguish internal microcracks from external roughness through opposite amplitude dependence of echo delay.","test":"Calibrate defects.","contrary_result":"Delay signatures coincide.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0897","id":"S9-0897","volume":"900v9","title":"A propagating adsorption front could temporarily reverse an optical waveguide's birefringence without changing net uptake direction.","prediction":"A propagating adsorption front could temporarily reverse an optical waveguide's birefringence without changing net uptake direction.","test":"Measure front and polarization.","contrary":"Birefringence changes monotonically.","layers":[1],"categories":["physical","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0897","hypothesis":"A propagating adsorption front could temporarily reverse an optical waveguide's birefringence without changing net uptake direction.","test":"Measure front and polarization.","contrary_result":"Birefringence changes monotonically.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0898","id":"S9-0898","volume":"900v9","title":"A liquid-loaded elastic shell could rotate its dominant vibration axis during drying at fixed exterior geometry.","prediction":"A liquid-loaded elastic shell could rotate its dominant vibration axis during drying at fixed exterior geometry.","test":"Measure liquid distribution and modes.","contrary":"Axis changes follow support drift only.","layers":[1],"categories":["measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0898","hypothesis":"A liquid-loaded elastic shell could rotate its dominant vibration axis during drying at fixed exterior geometry.","test":"Measure liquid distribution and modes.","contrary_result":"Axis changes follow support drift only.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0899","id":"S9-0899","volume":"900v9","title":"A patterned thermal contact could split an acoustic impulse into two delayed packets without a geometric split path.","prediction":"A patterned thermal contact could split an acoustic impulse into two delayed packets without a geometric split path.","test":"Measure heat state and wave packets.","contrary":"Packets require distinct physical paths.","layers":[1],"categories":["physical","energy","measurement"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0899","hypothesis":"A patterned thermal contact could split an acoustic impulse into two delayed packets without a geometric split path.","test":"Measure heat state and wave packets.","contrary_result":"Packets require distinct physical paths.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"},{"uid":"900v9--S9-0900","id":"S9-0900","volume":"900v9","title":"A nonuniformly cooled mineral could retain reversible elastic-energy localization after its temperature becomes uniform.","prediction":"A nonuniformly cooled mineral could retain reversible elastic-energy localization after its temperature becomes uniform.","test":"Map strain energy and temperature.","contrary":"Localization vanishes with thermal equilibration.","layers":[1],"categories":["energy"],"evidence":"Exploratory hypothesis","dataset":"Not yet assessed","source":"sources/900v9/Hypotheses.json","original":{"id":"S9-0900","hypothesis":"A nonuniformly cooled mineral could retain reversible elastic-energy localization after its temperature becomes uniform.","test":"Map strain energy and temperature.","contrary_result":"Localization vanishes with thermal equilibration.","status":"Untested proposal","novelty":"Unverified; familiar mechanisms and prior art may apply"},"lead":null,"dossier":null,"selection_source":"sources/90v9/90 Selections.json","dossier_source":"sources/9v9/9 Selections.json"}]